https://wiki.fablabbcn.org/api.php?action=feedcontributions&user=Lanaaaaaa&feedformat=atomFab Lab Bcn WIKI - User contributions [en]2024-03-29T12:16:02ZUser contributionsMediaWiki 1.22.15https://wiki.fablabbcn.org/Rayjet500Rayjet5002021-01-15T12:26:51Z<p>Lanaaaaaa: /* Machine work flow */</p>
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<div>[[Category:Machines]]<br />
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[[File:Rayjet500.jpg| frame |widths="180px" heights="120px" |Rayjet500 Laser Cutter]]<br />
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==Technical specifications==<br />
*Cutting area: 1300 x 900 millimeters <br />
*Machine size: W 1870 x D 1700 x H 1110 mm<br />
*Cutting power 60 - 120 watts<br />
*Laser type= CO2 laser<br />
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==Health & Safety==<br />
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[[File:0-plan p59 laser cutting area.jpg| frame |widths="180px" heights="120px" |Laser cutting area_Atelier Lab P59 map]]<br />
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===1. PRECAUTIONS===<br />
[[File:STEPS_FUME_EXTRACTOR.jpg| frame |widths="180px" heights="120px" |Turn on the main fume extractor linked to the light switch located in the column between the lift and the laser cutting area]]<br />
[[File:STEPS valves air pressure RAYJET500 2.jpg| frame |widths="180px" heights="120px" |In order to use properly the air assistance during your laser cutting work please follow the next steps]]<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|-<br />
|1.<br />
|style="text-align:left;"|If you are not going to use the computer in the Fab Lab, install the Rayjet Manager Engraver in your computer (you can reach the machine inside the Fab Lab network).<br />
|-<br />
|2.<br />
|style="text-align:left;"|Turn on the main fume extractor in the big laser cutter switch panel.<br />
|-<br />
|3.<br />
|style="text-align:left;"|Check that the general compressor of the building is ON.<br />
|-<br />
|4.<br />
|style="text-align:left;"|Turn ON the laser cutter (right side of the machine).<br />
|-<br />
|5.<br />
|Turn ON the red valve on the right in order to open the general air assistance. (Remember that to open the valve just positioned the RED key aligned along with the flow of the air).<br />
|-<br />
|6.<br />
|Just turn ON the air assistance on the specific machine: Rayjet 500<br />
|-<br />
|7.<br />
|style="text-align:left;"|Turn ON the pc desktop and the monitor of the Lab connected to the laser machine.<br />
|-<br />
|8.<br />
|style="text-align:left;"|Make sure the material you want to use is in the 'Materials and configuration' list. If it is not there, ask the Fab Lab responsible.<br />
|-<br />
|9.<br />
|style="text-align:left;"|Measure the size of your material board. If it doesn’t fit into the board of the laser machine ask the Fab Lab responsible for cutting the correct format.<br />
|-<br />
|10.<br />
|Please remove all your leftovers pieces after using the machines and remember to '''close the valve at the end of your works'''. Keep this small area clean and free for others to use.<br />
|-<br />
|11.<br />
|The building is already provided by different air outlets.<br />
|-<br />
|}<br />
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===2. FILE SETTINGS===<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|-<br />
|1.<br />
|style="text-align:left;"|Open dxf, 3dm, or compatible file with Rhino. <br />
|-<br />
|2.<br />
|style="text-align:left;"|Select the curves and hatches and put them in separate layers.<br />
|-<br />
|3.<br />
|style="text-align:left;"|Choose the correct colour for every operation (Cutting, Engraving, Raster E.) (The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works)<br />
|-<br />
|4.<br />
|style="text-align:left;"|Select all objects and make sure that they are displayed by layer on properties.<br />
|-<br />
|5.<br />
|style="text-align:left;"|From your vector editing software, once you are ready for printing and if you already installed the driver, press Ctrl+P or select ‘Print’.<br />
|-<br />
|6.<br />
|style="text-align:left;"|Select ‘Rayjet Manager Engraver v10.7.3’ from the printer list and go to ‘Printer settings’ or ‘Properties’.<br />
|-<br />
|7.<br />
|style="text-align:left;"|The laser cutter driver interface should appear. Here you can set-up the laser’s power and speed according to how the vector paths in your drawing are organized <br />
(you can also print raster images).<br />
|}<br />
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===3. PRINT SETTINGS:===<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|1.<br />
|style="text-align:left;"|In Rhino Click File>Print (Ctrl+Print)<br />
|-<br />
|2.<br />
|style="text-align:left;"|In the destination tab, set the printer to > Rayjet Manager Engraver v10.7.3<br />
|-<br />
|3.<br />
|style="text-align:left;"|Confirm that your file units are in mm and 1:1 scale <br />
|-<br />
|3.<br />
|style="text-align:left;"|Click properties to start up the Rayjet software<br />
|-<br />
|4.<br />
|style="text-align:left;"|IMPORTANT: Remember to always select the cut CO2 DC option under the ‘Intensity’ tab and to always turn ON air assistance. Once set, continue onto the next pages of Rayjet Software by selecting ‘Next”. Do not adjust any other settings and continue selecting ‘Next’ until you reach the ‘Play’ button option. Press ‘Play’ to confirm the settings.<br />
|-<br />
|5.<br />
|style="text-align:left;"|Make sure that your page dimensions are set correctly by checking in the Printer Details tab that the page type is configured to A4 (1291x900mm).<br />
|-<br />
|6.<br />
|style="text-align:left;"|Now you set the print canvas to your CAD drawing. Under the ‘View and Output Scale’, select the ‘Window’ option and click SET.<br />
|-<br />
|7.<br />
|style="text-align:left;"|Type Move and fit the upper left corner of your canvas frame to the (0,0,0) coordinates point.<br />
|-<br />
|8.<br />
|style="text-align: left;"|Now you should see your drawing located properly according to the appropriate canvas dimensions and position from the Rayjet software.<br />
|-<br />
|9.<br />
|style="text-align: left;"|Once all is confirmed, click on PRINT to open the file in the printer software (Rayjet Manager Engraver v10.7.3)<br />
|-<br />
|10.<br />
|style="text-align: left;"|Now you will find your file placed in the right-hand side of the screen under the ‘Jobs’ tab <br />
|-<br />
|11.<br />
|style="text-align: left;"|CONNECT the computer to the engraver by selecting the button under the ‘Jobs’ panel.<br />
|-<br />
|12.<br />
|style="text-align: left;"|Drag your file onto the canvas by selecting the file name, and dragging it onto the canvas. Now you have two options to set up your work location on the canvas depending on your work objectives:<br />
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Option 1- Move job to zero position<br />
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Option 2- Move job to nozzle position <br />
|-<br />
|13.<br />
|style="text-align: left;"| Under the Settings menu, find and select ‘Material’ to set up your cutting and engraving parameters for your file strategies. Please take care to set up the proper parameter settings according to the appropriate color layer:<br />
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a- '''Cut and Engrave lines are in CUT CO2 DC option and NOT ENGRAVE option. Engrave option is only for raster type jobs'''. The Rayjet Manager software does not have the option to control the frequency on the option '''C02 CUT DC'''. The frequency on your work is always set up by default as a continues and not very high frequency.<br />
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b- Raster work is in ENGRAVE CO2 DC option (The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works)<br />
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c- Skip only if you are not using the colour layer option.<br />
|-<br />
|14.<br />
|style="text-align: left;"|To verify if your drawing lines are set up properly with the colours set up in material settings, click on the EYE icon. This will let you check your colour vectors.<br />
|-<br />
|15.<br />
|style="text-align: left;"|Once all is finalized, click on the Play icon, on the bottom right side to launch the file on the Rayjet machine. The work should automatically.<br />
|-<br />
|16.<br />
|style="text-align: left;"|Don't leave the machine unattended. It is always required to check the machine during the work is being developed.<br />
|-<br />
|17.<br />
|style="text-align: left;"|Once all is finalized, click on the Play icon, on the bottom right side to launch the file on the Rayjet machine. The work should automatically.<br />
|-<br />
|18.<br />
|style="text-align: left;"|Once the job is complete, please turn OFF the air assistance and remove all your pieces off of the bed. Any leftover pieces should be cut down to a proper size and stored in the material drawers. Always keep this small area clean and free for others to use.<br />
|-<br />
|}<br />
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===4. MACHINE:===<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|1.<br />
|style="text-align:left;"|Open the hood and place the material on the metal bed without hitting the cutting head.<br />
|-<br />
|2.<br />
|style="text-align:left;"|Focus the cutting nozzle according to the thickness of your material by using a specific tool provided by the lab. Depending on the objectives of your work, you can set varying focus levels. (0=Proper focus, cleanest edge; <0=Thicker materials, broader cutting channel; >0=Reduced power, broader cut line burn markings) <br />
|-<br />
|3.<br />
|style="text-align:left;"|Set the machine head to the origin by pressing 'Ctrl+Shift.'<br />
|-<br />
|5.<br />
|style="text-align:left;"|Tape the corners for the material and where it is needed, if necessary. Close the hood.<br />
|-<br />
|7.<br />
|style="text-align:left;"|After you have sent the job to the machine you will directly see the machine starting the job.<br />
|-<br />
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|10.<br />
|style="text-align:left;"|Never leave the machine unattended.<br />
|-<br />
|}<br />
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==CAM==<br />
*'''2D''' Printer driver from most CAD or ilustration software<br />
* From PDF<br />
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==Caution==<br />
*this remark should go on all pages for lasers:<br />
The honeycomb structure of the bed of the machine is very expensive and it easily gets damaged.<br />
The quality of the cuts is only going to be good if the bed is perfectly flat and undamaged.<br />
Take good care of the honeycomb<br />
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==Materials and configurations==<br />
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===Settings===<br />
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{| class="wikitable sortable" <br />
|+Laser settings for common materials - Rayjet 500<br />
! rowspan="2"|Material<br />
! colspan="2" style=" text-align: center;"|Cut <br />
! colspan="2" | Engraving 1 (low)<br />
! colspan="2" | Engraving 2 (high)<br />
|-<br />
|<br />
|style="text-align:center;"|Speed (%)<br />
|style="text-align:center;"|Power (%)<br />
|style="text-align:center;"|Speed (%)<br />
|style="text-align:center;"|Power (%)<br />
|style="text-align:center;"|Speed (%)<br />
|style="text-align:center;"|Power (%)<br />
|-<br />
|Polypropylene - White - 0.5mm<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|-<br />
|Polypropylene - Transparent - 0.8mm<br />
|style="text-align:center;"|3.50<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|80<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|20<br />
|-<br />
|Polypropylene - Black - 1.20mm<br />
|style="text-align:center;"|3.50<br />
|style="text-align:center;"|48<br />
|style="text-align:center;"|80<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|20<br />
|-<br />
|Polypropylene - Transparent - 1.20mm<br />
|style="text-align:center;"|3.50<br />
|style="text-align:center;"|48<br />
|style="text-align:center;"|75<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|45<br />
|style="text-align:center;"|20<br />
|-<br />
|Acrylic - Transparent - 2mm<br />
|style="text-align:center;"|3<br />
|style="text-align:center;"|35<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|45<br />
|style="text-align:center;"|65<br />
|-<br />
|Acrylic - Transparent - 3mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|70<br />
|-<br />
|Acrylic - Semitransparant - 3mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|95<br />
|style="text-align:center;"|30<br />
|-<br />
|Acrylic - Opaque - 3mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|70<br />
|-<br />
|Acrylic - Transparent - 4mm<br />
|style="text-align:center;"|1.40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|90<br />
|-<br />
|Acrylic - Transparent - 4mm<br />
|style="text-align:center;"|1.40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|1.40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|90<br />
|-<br />
|Acrylic - Semitransparent - 4mm<br />
|style="text-align:center;"|1.50<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|95<br />
|-<br />
|Acrylic - Transparent - 5mm<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|60 <br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|50 <br />
|-<br />
|Acrylic - Transparent/Matt - 10mm<br />
|style="text-align:center;"|0.20<br />
|style="text-align:center;"|100<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|50<br />
|-<br />
|Wood - Poplar Plywood (3mm) / Madera<br />
|style="text-align:center;"|2.20<br />
|style="text-align:center;"|30<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|50<br />
|-<br />
|Wood - Poplar Plywood (4mm) / Madera<br />
|style="text-align:center;"|1.80<br />
|style="text-align:center;"|42<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|30<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|45<br />
|-<br />
|Wood - Birch Plywood (3mm) / Madera<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|45<br />
|-<br />
|Wood - MDF (4mm)<br />
|style="text-align:center;"|1.70<br />
|style="text-align:center;"|45<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|30<br />
|-<br />
|Wood - Veneer (0.5mm)<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|14<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|30<br />
|-<br />
|Wood - Veneer (1mm)<br />
|style="text-align:center;"|3<br />
|style="text-align:center;"|17<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|25<br />
|-<br />
|Cork - 4mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|40<br />
|-<br />
|Paper - White - 0.5mm<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|22<br />
|-<br />
|Paper - 1mm<br />
|style="text-align:center;"|3<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|-<br />
|Cardboard - One layer (1.5mm)<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|40<br />
|-<br />
|Cardboard - Corrugated (1.5mm/2 layers)<br />
|style="text-align:center;"|2.50<br />
|style="text-align:center;"|20 <br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|40<br />
|-<br />
|Cardboard - Corrugated (3mm/2 layers)<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20 <br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|35<br />
|-<br />
|Cardboard - Corrugated (foam board)(5mm/2 layers)<br />
|style="text-align:center;"|1.50<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|-<br />
|Textile - Waterproofing polyester (Double layer)- 0.3mm<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|22<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|17<br />
|-<br />
|Rubber - 1.5mm<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|30<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|40<br />
|}<br />
'''Note1:''' The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. That is the reason why it is not here indicated the raster parameters. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works.<br />
<br />
'''Note2:''' The Rayjet Manager software does not have the option to control the frequency on the option '''C02 CUT DC'''. The frequency on your work is always set up by default as a continues and not very high frequency.<br />
<br />
'''Note3:''' Settings above are a good starting point. Laser cutting quality is affected by several factors including lens cleanliness, maintenance and/or managing laser tube. If you are not achieving a cut, try to increase the power, decrease the speed or a do combination of both. Change settings with 5-10% step at a time.<br />
<br />
==Machine work flow==<br />
<br />
*Turn on the main fume extractor in the big laser cutter switch panel.<br />
*Turn on the small air compressor on the left hand side of the machine.<br />
*Turn on the laser cutter (left side of the machine).<br />
*Make sure the material you want to use is in the 'Materials and configuration' list. If it is not there, ask the Fab Lab responsible.<br />
*Measure the size of your material board. The bed size of the Rayjet 500 is 1291x900mm. If your material is larger than this bed size, you should cut it down to the correct format.<br />
*Focus the cutting nozzle according to the thickness of your material by using a specific tool provided by the lab. Depending on the objectives of your work, you can set varying focus levels.(0=Proper focus, cleanest edge; <0=Thicker materials, broader cutting channel; >0=Reduced power, broader cut line burn markings)<br />
*Once your file is prepared properly for printing, press Ctrl+P or select 'Print'.<br />
*In the destination tab, set the printer to > Rayjet Manager Engraver v10.7.3, confirm that your file units are in mm and 1:1 scale and then press to start up the Rayjet Software.<br />
*The laser cutter driver interface should appear. Ensure that the workspace of the interface is clear, and if not right-click and delete anything remaining.<br />
*Connect the computer to the engraver by selecting the button under the ‘Jobs’ panel.<br />
*Find your latest file sent to print in the left-hand corner under the 'Jobs' tab and drag it onto the workspace. Drag your file onto the canvas by selecting the file name, and dragging it onto the canvas. Now you have two options to set up your work location on the canvas depending on your work objectives:<br />
**Option 1- Move job to zero position<br />
**Option 2- Move job to nozzle position <br />
*Under the Settings menu, find and select ‘Material’ to set up your cutting and engraving parameters for your file strategies. Please take care to set up the proper parameter settings according to the appropriate color layer as follows below:<br />
**1- Cut and Engrave lines are in CUT CO2 DC option <br />
**2- Raster work is in ENGRAVE CO2 DC option (The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works)<br />
**3- Skip only if you are not using the colour layer option.<br />
*To verify if your drawing lines are set up properly with the colours set up in material settings, click on the EYE icon. This will let you check your colour vectors.<br />
*On the left-hand side under the 'Calculation' tab, you will find the estimated time to run the file based on the parameter settings specified.<br />
*IMPORTANT: Always optimize the print time by right-clicking on your job and select 'Vector Ordering'.<br />
*A window will pop open to specify with two options, Quick Ordering or Enhanced Ordering.<br />
**Quick ordering is a very fast and easy to use method. Of course more complex jobs, with a higher number of vectors may require the enhanced ordering method. But bear in mind that the enhanced method is more time consuming. This will re-order all vectors within a job file to achieve way-optimized processing, reducing cutting time.<br />
*To see the new time calculation for your job, go to the left-hand side under the 'Calculation' tab, and select 'Update'. This will update the total production time.<br />
*Once all is finalized, click on the Play icon, on the bottom right side to launch the file on the Rayjet machine. The work should automatically.<br />
*Don't leave the machine unattended. It is always required to check the machine during the work is being developed.<br />
*Once the job is complete, please turn OFF the air assistance and remove all your pieces off of the bed. Any leftover pieces should be cut down to a proper size and stored in the material drawers. Always keep this small area clean and free for others to use.<br />
<br />
==External links==<br />
<br />
*See web site machine [https://www.rayjetlaser.com/en/products/r500-laser-cutter]<br />
*About material parameters [https://www.rayjetlaser.com/en/range-of-applications]<br />
<br />
==Maintenance==<br />
<br />
==Downloads==<br />
<br />
*See technical data sheet (PDF) [https://www.rayjetlaser.com/fileadmin/content/pdf/R500_Folder.pdf]<br />
<br />
'''--'''<br />
<br />
It should be noted here that the information gathering was drawn by Ricardo Mayor Luque, and many people at IAAC<br />
<br />
[[Category: Machines]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Rayjet500Rayjet5002021-01-15T12:26:18Z<p>Lanaaaaaa: </p>
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<div>[[Category:Machines]]<br />
<br />
[[File:Rayjet500.jpg| frame |widths="180px" heights="120px" |Rayjet500 Laser Cutter]]<br />
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==Technical specifications==<br />
*Cutting area: 1300 x 900 millimeters <br />
*Machine size: W 1870 x D 1700 x H 1110 mm<br />
*Cutting power 60 - 120 watts<br />
*Laser type= CO2 laser<br />
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==Health & Safety==<br />
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[[File:0-plan p59 laser cutting area.jpg| frame |widths="180px" heights="120px" |Laser cutting area_Atelier Lab P59 map]]<br />
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===1. PRECAUTIONS===<br />
[[File:STEPS_FUME_EXTRACTOR.jpg| frame |widths="180px" heights="120px" |Turn on the main fume extractor linked to the light switch located in the column between the lift and the laser cutting area]]<br />
[[File:STEPS valves air pressure RAYJET500 2.jpg| frame |widths="180px" heights="120px" |In order to use properly the air assistance during your laser cutting work please follow the next steps]]<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|-<br />
|1.<br />
|style="text-align:left;"|If you are not going to use the computer in the Fab Lab, install the Rayjet Manager Engraver in your computer (you can reach the machine inside the Fab Lab network).<br />
|-<br />
|2.<br />
|style="text-align:left;"|Turn on the main fume extractor in the big laser cutter switch panel.<br />
|-<br />
|3.<br />
|style="text-align:left;"|Check that the general compressor of the building is ON.<br />
|-<br />
|4.<br />
|style="text-align:left;"|Turn ON the laser cutter (right side of the machine).<br />
|-<br />
|5.<br />
|Turn ON the red valve on the right in order to open the general air assistance. (Remember that to open the valve just positioned the RED key aligned along with the flow of the air).<br />
|-<br />
|6.<br />
|Just turn ON the air assistance on the specific machine: Rayjet 500<br />
|-<br />
|7.<br />
|style="text-align:left;"|Turn ON the pc desktop and the monitor of the Lab connected to the laser machine.<br />
|-<br />
|8.<br />
|style="text-align:left;"|Make sure the material you want to use is in the 'Materials and configuration' list. If it is not there, ask the Fab Lab responsible.<br />
|-<br />
|9.<br />
|style="text-align:left;"|Measure the size of your material board. If it doesn’t fit into the board of the laser machine ask the Fab Lab responsible for cutting the correct format.<br />
|-<br />
|10.<br />
|Please remove all your leftovers pieces after using the machines and remember to '''close the valve at the end of your works'''. Keep this small area clean and free for others to use.<br />
|-<br />
|11.<br />
|The building is already provided by different air outlets.<br />
|-<br />
|}<br />
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===2. FILE SETTINGS===<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|-<br />
|1.<br />
|style="text-align:left;"|Open dxf, 3dm, or compatible file with Rhino. <br />
|-<br />
|2.<br />
|style="text-align:left;"|Select the curves and hatches and put them in separate layers.<br />
|-<br />
|3.<br />
|style="text-align:left;"|Choose the correct colour for every operation (Cutting, Engraving, Raster E.) (The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works)<br />
|-<br />
|4.<br />
|style="text-align:left;"|Select all objects and make sure that they are displayed by layer on properties.<br />
|-<br />
|5.<br />
|style="text-align:left;"|From your vector editing software, once you are ready for printing and if you already installed the driver, press Ctrl+P or select ‘Print’.<br />
|-<br />
|6.<br />
|style="text-align:left;"|Select ‘Rayjet Manager Engraver v10.7.3’ from the printer list and go to ‘Printer settings’ or ‘Properties’.<br />
|-<br />
|7.<br />
|style="text-align:left;"|The laser cutter driver interface should appear. Here you can set-up the laser’s power and speed according to how the vector paths in your drawing are organized <br />
(you can also print raster images).<br />
|}<br />
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===3. PRINT SETTINGS:===<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
|-<br />
|1.<br />
|style="text-align:left;"|In Rhino Click File>Print (Ctrl+Print)<br />
|-<br />
|2.<br />
|style="text-align:left;"|In the destination tab, set the printer to > Rayjet Manager Engraver v10.7.3<br />
|-<br />
|3.<br />
|style="text-align:left;"|Confirm that your file units are in mm and 1:1 scale <br />
|-<br />
|3.<br />
|style="text-align:left;"|Click properties to start up the Rayjet software<br />
|-<br />
|4.<br />
|style="text-align:left;"|IMPORTANT: Remember to always select the cut CO2 DC option under the ‘Intensity’ tab and to always turn ON air assistance. Once set, continue onto the next pages of Rayjet Software by selecting ‘Next”. Do not adjust any other settings and continue selecting ‘Next’ until you reach the ‘Play’ button option. Press ‘Play’ to confirm the settings.<br />
|-<br />
|5.<br />
|style="text-align:left;"|Make sure that your page dimensions are set correctly by checking in the Printer Details tab that the page type is configured to A4 (1291x900mm).<br />
|-<br />
|6.<br />
|style="text-align:left;"|Now you set the print canvas to your CAD drawing. Under the ‘View and Output Scale’, select the ‘Window’ option and click SET.<br />
|-<br />
|7.<br />
|style="text-align:left;"|Type Move and fit the upper left corner of your canvas frame to the (0,0,0) coordinates point.<br />
|-<br />
|8.<br />
|style="text-align: left;"|Now you should see your drawing located properly according to the appropriate canvas dimensions and position from the Rayjet software.<br />
|-<br />
|9.<br />
|style="text-align: left;"|Once all is confirmed, click on PRINT to open the file in the printer software (Rayjet Manager Engraver v10.7.3)<br />
|-<br />
|10.<br />
|style="text-align: left;"|Now you will find your file placed in the right-hand side of the screen under the ‘Jobs’ tab <br />
|-<br />
|11.<br />
|style="text-align: left;"|CONNECT the computer to the engraver by selecting the button under the ‘Jobs’ panel.<br />
|-<br />
|12.<br />
|style="text-align: left;"|Drag your file onto the canvas by selecting the file name, and dragging it onto the canvas. Now you have two options to set up your work location on the canvas depending on your work objectives:<br />
<br />
Option 1- Move job to zero position<br />
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Option 2- Move job to nozzle position <br />
|-<br />
|13.<br />
|style="text-align: left;"| Under the Settings menu, find and select ‘Material’ to set up your cutting and engraving parameters for your file strategies. Please take care to set up the proper parameter settings according to the appropriate color layer:<br />
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a- '''Cut and Engrave lines are in CUT CO2 DC option and NOT ENGRAVE option. Engrave option is only for raster type jobs'''. The Rayjet Manager software does not have the option to control the frequency on the option '''C02 CUT DC'''. The frequency on your work is always set up by default as a continues and not very high frequency.<br />
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b- Raster work is in ENGRAVE CO2 DC option (The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works)<br />
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c- Skip only if you are not using the colour layer option.<br />
|-<br />
|14.<br />
|style="text-align: left;"|To verify if your drawing lines are set up properly with the colours set up in material settings, click on the EYE icon. This will let you check your colour vectors.<br />
|-<br />
|15.<br />
|style="text-align: left;"|Once all is finalized, click on the Play icon, on the bottom right side to launch the file on the Rayjet machine. The work should automatically.<br />
|-<br />
|16.<br />
|style="text-align: left;"|Don't leave the machine unattended. It is always required to check the machine during the work is being developed.<br />
|-<br />
|17.<br />
|style="text-align: left;"|Once all is finalized, click on the Play icon, on the bottom right side to launch the file on the Rayjet machine. The work should automatically.<br />
|-<br />
|18.<br />
|style="text-align: left;"|Once the job is complete, please turn OFF the air assistance and remove all your pieces off of the bed. Any leftover pieces should be cut down to a proper size and stored in the material drawers. Always keep this small area clean and free for others to use.<br />
|-<br />
|}<br />
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===4. MACHINE:===<br />
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{| class="wikitable sortable" <br />
! rowspan="3"|Step<br />
! colspan="1" style=" text-align: center;"|Description<br />
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|1.<br />
|style="text-align:left;"|Open the hood and place the material on the metal bed without hitting the cutting head.<br />
|-<br />
|2.<br />
|style="text-align:left;"|Focus the cutting nozzle according to the thickness of your material by using a specific tool provided by the lab. Depending on the objectives of your work, you can set varying focus levels. (0=Proper focus, cleanest edge; <0=Thicker materials, broader cutting channel; >0=Reduced power, broader cut line burn markings) <br />
|-<br />
|3.<br />
|style="text-align:left;"|Set the machine head to the origin by pressing 'Ctrl+Shift.'<br />
|-<br />
|5.<br />
|style="text-align:left;"|Tape the corners for the material and where it is needed, if necessary. Close the hood.<br />
|-<br />
|7.<br />
|style="text-align:left;"|After you have sent the job to the machine you will directly see the machine starting the job.<br />
|-<br />
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|10.<br />
|style="text-align:left;"|Never leave the machine unattended.<br />
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|}<br />
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==CAM==<br />
*'''2D''' Printer driver from most CAD or ilustration software<br />
* From PDF<br />
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==Caution==<br />
*this remark should go on all pages for lasers:<br />
The honeycomb structure of the bed of the machine is very expensive and it easily gets damaged.<br />
The quality of the cuts is only going to be good if the bed is perfectly flat and undamaged.<br />
Take good care of the honeycomb<br />
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==Materials and configurations==<br />
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===Settings===<br />
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{| class="wikitable sortable" <br />
|+Laser settings for common materials - Rayjet 500<br />
! rowspan="2"|Material<br />
! colspan="2" style=" text-align: center;"|Cut <br />
! colspan="2" | Engraving 1 (low)<br />
! colspan="2" | Engraving 2 (high)<br />
|-<br />
|<br />
|style="text-align:center;"|Speed (%)<br />
|style="text-align:center;"|Power (%)<br />
|style="text-align:center;"|Speed (%)<br />
|style="text-align:center;"|Power (%)<br />
|style="text-align:center;"|Speed (%)<br />
|style="text-align:center;"|Power (%)<br />
|-<br />
|Polypropylene - White - 0.5mm<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|style="text-align:center;"|xx<br />
|-<br />
|Polypropylene - Transparent - 0.8mm<br />
|style="text-align:center;"|3.50<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|80<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|20<br />
|-<br />
|Polypropylene - Black - 1.20mm<br />
|style="text-align:center;"|3.50<br />
|style="text-align:center;"|48<br />
|style="text-align:center;"|80<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|20<br />
|-<br />
|Polypropylene - Transparent - 1.20mm<br />
|style="text-align:center;"|3.50<br />
|style="text-align:center;"|48<br />
|style="text-align:center;"|75<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|45<br />
|style="text-align:center;"|20<br />
|-<br />
|Acrylic - Transparent - 2mm<br />
|style="text-align:center;"|3<br />
|style="text-align:center;"|35<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|45<br />
|style="text-align:center;"|65<br />
|-<br />
|Acrylic - Transparent - 3mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|70<br />
|-<br />
|Acrylic - Semitransparant - 3mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|95<br />
|style="text-align:center;"|30<br />
|-<br />
|Acrylic - Opaque - 3mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|70<br />
|-<br />
|Acrylic - Transparent - 4mm<br />
|style="text-align:center;"|1.40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|90<br />
|-<br />
|Acrylic - Transparent - 4mm<br />
|style="text-align:center;"|1.40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|1.40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|90<br />
|-<br />
|Acrylic - Semitransparent - 4mm<br />
|style="text-align:center;"|1.50<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|95<br />
|-<br />
|Acrylic - Transparent - 5mm<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|60 <br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|50 <br />
|-<br />
|Acrylic - Transparent/Matt - 10mm<br />
|style="text-align:center;"|0.20<br />
|style="text-align:center;"|100<br />
|style="text-align:center;"|60<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|50<br />
|-<br />
|Wood - Poplar Plywood (3mm) / Madera<br />
|style="text-align:center;"|2.20<br />
|style="text-align:center;"|30<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|50<br />
|-<br />
|Wood - Poplar Plywood (4mm) / Madera<br />
|style="text-align:center;"|1.80<br />
|style="text-align:center;"|42<br />
|style="text-align:center;"|50<br />
|style="text-align:center;"|30<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|45<br />
|-<br />
|Wood - Birch Plywood (3mm) / Madera<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|45<br />
|-<br />
|Wood - MDF (4mm)<br />
|style="text-align:center;"|1.70<br />
|style="text-align:center;"|45<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|30<br />
|-<br />
|Wood - Veneer (0.5mm)<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|14<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|30<br />
|-<br />
|Wood - Veneer (1mm)<br />
|style="text-align:center;"|3<br />
|style="text-align:center;"|17<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|25<br />
|-<br />
|Cork - 4mm<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|40<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|40<br />
|-<br />
|Paper - White - 0.5mm<br />
|style="text-align:center;"|5<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|22<br />
|-<br />
|Paper - 1mm<br />
|style="text-align:center;"|3<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|-<br />
|Cardboard - One layer (1.5mm)<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|40<br />
|-<br />
|Cardboard - Corrugated (1.5mm/2 layers)<br />
|style="text-align:center;"|2.50<br />
|style="text-align:center;"|20 <br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|15<br />
|style="text-align:center;"|40<br />
|-<br />
|Cardboard - Corrugated (3mm/2 layers)<br />
|style="text-align:center;"|2<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|20 <br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|35<br />
|-<br />
|Cardboard - Corrugated (foam board)(5mm/2 layers)<br />
|style="text-align:center;"|1.50<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|20<br />
|style="text-align:center;"|25<br />
|-<br />
|Textile - Waterproofing polyester (Double layer)- 0.3mm<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|22<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|25<br />
|style="text-align:center;"|17<br />
|-<br />
|Rubber - 1.5mm<br />
|style="text-align:center;"|1.20<br />
|style="text-align:center;"|30<br />
|style="text-align:center;"|55<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|10<br />
|style="text-align:center;"|40<br />
|}<br />
'''Note1:''' The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. That is the reason why it is not here indicated the raster parameters. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works.<br />
<br />
'''Note2:''' The Rayjet Manager software does not have the option to control the frequency on the option '''C02 CUT DC'''. The frequency on your work is always set up by default as a continues and not very high frequency.<br />
<br />
'''Note3:''' Settings above are a good starting point. Laser cutting quality is affected by several factors including lens cleanliness, maintenance and/or managing laser tube. If you are not achieving a cut, try to increase the power, decrease the speed or a do combination of both. Change settings with 5-10% step at a time.<br />
<br />
==Machine work flow==<br />
<br />
*Turn on the main fume extractor in the big laser cutter switch panel.<br />
*Turn on the small air compressor on the left hand side of the machine.<br />
*Turn on the laser cutter (left side of the machine).<br />
*Make sure the material you want to use is in the 'Materials and configuration' list. If it is not there, ask the Fab Lab responsible.<br />
*Measure the size of your material board. The bed size of the Rayjet 500 is 1291x900mm. If your material is larger than this bed size, you should cut it down to the correct format.<br />
*Focus the cutting nozzle according to the thickness of your material by using a specific tool provided by the lab. Depending on the objectives of your work, you can set varying focus levels.(0=Proper focus, cleanest edge; <0=Thicker materials, broader cutting channel; >0=Reduced power, broader cut line burn markings)<br />
*Once your file is prepared properly for printing, press Ctrl+P or select 'Print'.<br />
*In the destination tab, set the printer to > Rayjet Manager Engraver v10.7.3, confirm that your file units are in mm and 1:1 scale and then press to start up the Rayjet Software.<br />
*The laser cutter driver interface should appear. Ensure that the workspace of the interface is clear, and if not right-click and delete anything remaining.<br />
*Connect the computer to the engraver by selecting the button under the ‘Jobs’ panel.<br />
*Find your latest file sent to print in the left-hand corner under the 'Jobs' tab and drag it onto the workspace. Drag your file onto the canvas by selecting the file name, and dragging it onto the canvas. Now you have two options to set up your work location on the canvas depending on your work objectives:<br />
**Option 1- Move job to zero position<br />
**Option 2- Move job to nozzle position <br />
*Under the Settings menu, find and select ‘Material’ to set up your cutting and engraving parameters for your file strategies. Please take care to set up the proper parameter settings according to the appropriate color layer as follows below:<br />
**1- Cut and Engrave lines are in CUT CO2 DC option <br />
**2- Raster work is in ENGRAVE CO2 DC option (The Rayjet 500 Laser cutting machine is NOT recommended for raster works due to the large file sizes which freeze the interface. The Epilog 50/75w Laser cutter machines are better suited and more optimized in terms of time to develop these types of works)<br />
**3- Skip only if you are not using the colour layer option.<br />
*To verify if your drawing lines are set up properly with the colours set up in material settings, click on the EYE icon. This will let you check your colour vectors.<br />
*On the left-hand side under the 'Calculation' tab, you will find the estimated time to run the file based on the parameter settings specified.<br />
*IMPORTANT: Always optimize the print time by right-clicking on your job and select 'Vector Ordering'.<br />
*A window will pop open to specify with two options, Quick Ordering or Enhanced Ordering.<br />
**Quick ordering is a very fast and easy to use method. Of course more complex jobs, with a higher number of vectors may require the enhanced ordering method. But bear in mind that the enhanced method is more time consuming. This will re-order all vectors within a job file to achieve way-optimized processing, reducing cutting time.<br />
*To see the new time calculation for your job, go to the left-hand side under the 'Calculation' tab, and select 'Update'. This will update the total production time.<br />
*Once all is finalized, click on the Play icon, on the bottom right side to launch the file on the Rayjet machine. The work should automatically.<br />
*Don't leave the machine unattended. It is always required to check the machine during the work is being developed.<br />
*Once the job is complete, please turn OFF the air assistance and remove all your pieces off of the bed. Any leftover pieces should be cut down to a proper size and stored in the material drawers. Always keep this small area clean and free for others to use.<br />
<br />
[[File:Epilog_legend_md.png|frame|none|alt=the Epilog Legend 36 interface pannel|Epilog Legend 36 interface pannel]]<br />
<br />
<br />
==External links==<br />
<br />
*See web site machine [https://www.rayjetlaser.com/en/products/r500-laser-cutter]<br />
*About material parameters [https://www.rayjetlaser.com/en/range-of-applications]<br />
<br />
==Maintenance==<br />
<br />
==Downloads==<br />
<br />
*See technical data sheet (PDF) [https://www.rayjetlaser.com/fileadmin/content/pdf/R500_Folder.pdf]<br />
<br />
'''--'''<br />
<br />
It should be noted here that the information gathering was drawn by Ricardo Mayor Luque, and many people at IAAC<br />
<br />
[[Category: Machines]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/CuraCura2020-11-18T13:12:54Z<p>Lanaaaaaa: Created page with "CURA is an open-sourced slicing software from Ultimaker compatible with most open-sourced 3D printing machines. ==Downloading CURA== As of the writing of this article, Cura ..."</p>
<hr />
<div>CURA is an open-sourced slicing software from Ultimaker compatible with most open-sourced 3D printing machines.<br />
<br />
==Downloading CURA==<br />
<br />
As of the writing of this article, Cura is in version 4.6. It works on all common OS platforms: Windows, Mac, and Linux. The minimum system requirements for Cura are:<br />
<br />
Windows Vista or newer<br />
Mac OSX 10.7 or newer<br />
Linux Ubuntu 15.04, Fedora 23, OpenSuse 13.2, ArchLinux or newer<br />
<br />
You can download and run older versions if your computer does not fulfill the requirements for the newest version.<br />
<br />
To install Cura, first, download it for your OS from this page. When the download is complete, run the installer and go through the usual steps.<br />
<br />
==Printer Selection==<br />
<br />
On first loading Cura, you’ll be asked to select a printer. If not, or if you want to set up a new printer, then select Settings > Printer.<br />
<br />
You’ll now be confronted with a selection of many printers. If you downloaded through the link at the top, then the listed printers will all be Ultimaker. For all other printers click Other and if you’re lucky then your printer will be listed.<br />
<br />
If not, head along to the manufacturer’s website and you may find that there’s a custom version of the Cura software (or a Cura profile) ready to download. If not, then select Custom and Add Printer.<br />
<br />
You’ll now be shown the Add Printer screen and here you’ll need to know a bit about your printer. Again, details should be found on the manufacturer’s website. If you built the printer yourself, then you should know these details off by heart! Just enter the settings for your 3D printer in the Cura Machine settings window.<br />
<br />
==Adding a Model in .stl Format==<br />
<br />
Once you have set up Cura for your printer, it’s time to import a model into the Cura software.<br />
<br />
To import a model, you can either click on the floating folder icon on the left or select File > Open File(s) from the top menu. Select an STL, OBJ, or 3MF file from your computer and Cura will import it. Wait a little bit and the model will appear on the Cura build area (the box in the center).<br />
<br />
==Preparing to Print==<br />
<br />
Adjust your model by scaling, rotating, duplicating, moving, etc. as necessary. If your model is ready to be printed, then it's time to adjust the settings panel on the right. You need to choose the correct settings in this panel in order to get your desired print quality.<br />
<br />
Cura’s settings panel is divided into two sections. The topmost section is the Printer Settings and the next section is called Print Setup.<br />
<br />
==Print Settings==<br />
<br />
This section lets you select the right printer and material.<br />
<br />
Printer: This is the printer that you selected in the first step. If you have more than one printer, then these can be set up, and then selected from this dropdown menu.<br />
<br />
Material & Temperature: Quickly select the material and nozzle that your printer is using, and temperatures will be automatically adjusted.<br />
Print Setup<br />
<br />
There are two options: Recommended and Custom<br />
<br />
Recommended: The Recommended print options are calculated on the settings you input when initially configuring the Cura slicer for your printer. This option is a great choice when you’re just starting out or you just want to see how the software and printer communicate. Options are limited under the Recommended header, but you can quickly adjust quality, infill, plate adhesion, and basic support structures.<br />
<br />
Custom: This is where the fun really starts and will enable you to adjust the print settings – from quality through to speed. We’ll look at this section and the options a little later.<br />
<br />
The Recommended settings<br />
<br />
Layer height<br />
As we have already discussed, 3D printers print an object by depositing layer after layer of material. The Layer Height slider in Cura controls the height of each individual layer. Here, the rule is: the lower the layer height, the better the print quality and vice versa. But note that setting a low value for Layer Height means that the print is going to take proportionally longer to complete. You need to make a trade-off between quality and print speed and pick your own sweet spot. 0.1 mm is a good starting point.<br />
<br />
Infill in Cura<br />
The Infill slider controls the quality of the infill. Setting it to 0 % essentially means that you don’t want any infill and want your object to be hollow. Anything in the range of 10% – 40% is known as a light infill. The 50% – 90% range is called a medium infill. Setting the slider to 100% will produce the strongest model. Light is a good starting point.<br />
<br />
When the Infill slider is set to above 0%, a checkbox titled Enable Gradual appears. Checking this box will make Cura gradually increase the amount of infill towards the top of the model. This lets you use a low value for Infill and still get decent top quality. It’s recommended that you check this box when using low values for Infill.<br />
<br />
Helper parts in Cura<br />
These are your support and adhesion settings – controlled by two checkboxes titled Generate Support and Build Plate Adhesion. If this is your first print, then switch both on. As a rule, if your 3D model has plenty of contact with the print platform then switch off Build Plate Adhesion. If your model has no overhangs switch off Generate Support in Cura’s Helper Settings.<br />
<br />
==Slicing a Model==<br />
Generate a G-code file with Cura<br />
<br />
The model is now print-ready and all you need to do is to export the file from Cura to either an SD card or send it directly to the printer. Cura will now handle everything converting the 3D STL or OBJ into the G-code file required by the printer.<br />
<br />
Save the 3D print file: Click either Save to file, Save to SD or Send to Printer button on the bottom right of the window.<br />
Estimate of time for 3D print: Cura will give you a rough estimate on the length of time it will take for your printer to print the piece.<br />
Start the 3D print: If tethered, sit back and wait for the printer to fire up and start printing. If you save to SD, then eject the SD card from your computer and transfer to your printer. Select print, select the file, and go.<br />
<br />
<br />
[[Category:Software]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Z-suiteZ-suite2020-11-18T13:01:17Z<p>Lanaaaaaa: </p>
<hr />
<div>Z-SUITE is slicing software compatible with the Zortrax 3D printing machines.<br />
<br />
==Downloading Z-SUITE==<br />
<br />
Download the latest version of Z-SUITE from the download section at the Support Center Download section. You will need the serial number of your printer to complete the download. To find the serial number, go to “Information” option on the display and choose “Serial Number.” Also remember to update your Firmware to the newest version. The newest version is available at the Support Center in the Download section – to update, extract a zip file. Copy update.bin on your memory card, insert it into the printer, then turn on the printer.<br />
<br />
==Printer Selection==<br />
<br />
On the Z-SUITE start screen, select the model of the printer you are going to use. The recently selected model is displayed in the bottom right corner of the screen. You can change the model at any point of planning the print by selecting the other model from the list.<br />
<br />
==Adding a Model in .stl Format==<br />
<br />
On the start screen, select the model of your printer which will be used. Use “+” icon or use drag and drop option to upload a model. You may do so with models saved in an .stl format. Select a model and click OPEN. Your model is now within the workspace. To select the model, click the right mouse button. You can save your model at any time by clicking SAVE PROJECT.<br />
<br />
==Preparing to Print==<br />
<br />
Adjust your model by scaling, rotating, duplicating, moving, etc. as necessary. If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL.<br />
<br />
==Print Settings==<br />
<br />
Normal print options include:<br />
<br />
Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
<br />
Quality (previously Speed):<br />
<br />
in M200: HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
<br />
Infill: choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
<br />
SUPPORT – Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
<br />
SUPPORT LITE – Choose this option to generate the support structure without the outer perimiter. Support lite consumes less material and it is easier to remove.<br />
<br />
PRINT COOLING – You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
==Advanced Print Settings==<br />
<br />
SEAM – It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
SURFACE LAYERS – If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
OFFSET – this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
INFILL Advanced:<br />
<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
<br />
==Slicing a Model==<br />
<br />
1. Generate the .zcode when preparing the model for print. Read the article Preparing the model to print.<br />
<br />
2. Z-SUITE will show the information on the material usage and estimated print time.<br />
<br />
3. Add a pause – “PAUSE” option divides the print into stages and allows you to hold the printing process in order to change the material.<br />
<br />
To plan a pause, move the slider onto a desired layer.<br />
<br />
– “INSERT” function allows to set the pause in a chosen place. You can use this function several times in order to plan multiple pauses during one print.<br />
– “REMOVE” function allows to remove a pause.<br />
– “REMOVE ALL” function allows to remove all pauses.<br />
<br />
4. Apart from the “PAUSE” option, in the tools menu there is a list of components which you can show or hide from the final look of the model in .zcode format:<br />
–PRINT BED,<br />
–RAFT,<br />
–MODEL,<br />
–SEAM,<br />
–SUPPORT,<br />
–PAUSE.<br />
<br />
For example, you can uncheck the model to see what the seam will look like in your print.<br />
<br />
5. Save your .zcode (with pauses) on a hard drive or directly on the SD card – click Save to print button.<br />
<br />
==Saving a Z-code==<br />
<br />
Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen.<br />
<br />
Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
<br />
[[Category:Software]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Z-suiteZ-suite2020-11-18T12:54:21Z<p>Lanaaaaaa: </p>
<hr />
<div>Z-suite is slicing software compatible with the Zortrax 3D printing machines.<br />
<br />
<br />
<br />
[[Category:Software]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Z-suiteZ-suite2020-11-18T12:50:27Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Software]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Talk:Z-suiteTalk:Z-suite2020-11-18T12:50:04Z<p>Lanaaaaaa: Blanked the page</p>
<hr />
<div></div>Lanaaaaaahttps://wiki.fablabbcn.org/Talk:Z-suiteTalk:Z-suite2020-11-18T12:49:40Z<p>Lanaaaaaa: Created page with "Category:Software"</p>
<hr />
<div>[[Category:Software]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Z-suiteZ-suite2020-11-18T12:42:55Z<p>Lanaaaaaa: Created page with "Information to be added here"</p>
<hr />
<div>Information to be added here</div>Lanaaaaaahttps://wiki.fablabbcn.org/Dremel_3000_Rotary_Multi-ToolDremel 3000 Rotary Multi-Tool2020-04-27T10:22:27Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Dremel_3000.png| thumb |Dremel 3000 Rotary Multi-Tool]]<br />
<br />
'''Description:'''<br />
<br />
The Dremel multitool is a handheld rotary tool that uses a variety of attachments and accessories. You can use a Dremel tool on wood, metal, glass, electronics, plastic, and many other materials. Dremel tools are very useful for fine detailing and finishing.<br />
<br />
This versatile tool is based to a rotation bit at high speed which is held in place with a collet. The Dremel concept relies on high speed as opposed to the high torque of a conventional power drill. By inserting an appropriate bit the tool can perform drilling, grinding, sharpening, cutting, cleaning, polishing, sanding, routing, carving, and engraving.<br />
<br />
==Safety==<br />
Always wear safety glasses<br />
<br />
==How to use==<br />
<br />
*Make sure to change the bit while the Dremel is turned off and unplugged.<br />
<br />
*Insert or change bit. Place the bit into the hole at the end of the Dremel and back it out slightly. Tighten the collet nut so that the bit is secure and won't wiggle. <br />
<br />
*To remove the bit, press down on the shaft lock button while turning the collet. This should loosen the bit so you can replace it.<br />
<br />
*Turn on. With the lever on the top of the machine choose the rotation speed. Be careful, this is also the turn on command, when you increase the speed, the spindle starts to move<br />
<br />
==The bits==<br />
<br />
Use the right bit for the job. You should choose your bit attachment based on the type of material you'll be working with. Dremel makes many bits with a variety of materials for almost any material. For example, for:<br />
Carving and engraving jobs: use high speed cutters, engraving cutters, structured tooth carbide cutters, tungsten carbide cutters and diamond wheel points<br />
Routing jobs: use router bits (straight, keyhole, corner, or groove). When using a router, take care to only use router bits.<br />
Small drilling jobs: use drill bits (purchased individually or as a set)<br />
<br />
[[File:Dremel bits.jpeg]]<br />
==Grinding, Sanding, and Polishing==<br />
<br />
'''Grinding'''<br />
For grinding, attach the grinding stone bit which can be fixed to the mandrel/shaft. Slide the grinding stone into the front of the tool where it is fully inserted and tighten. Turn your Dremel on and grind on a low setting so you don't overheat the material. Gently hold the grinding stone against the material until it wears down.[12]<br />
*You can use grinding stones, grinding wheels, chain saw sharpening stones, abrasive wheels and abrasive points to grind a material. Carbide bits tend to work best on metal, porcelain, or ceramic.<br />
*Use cylindrical or triangular tips for round grinds. To grind a notch into something or grind an inside corner, use a flat disc shape. Or, use cylindrical or triangular tips for round grinding.<br />
<br />
'''Sharpening or sanding'''<br />
Select a sandpaper bit and secure it in your Dremel. Sandpaper bits are available in fine through course grits, and all grades should fit on the same mandrel. Tighten the screw at the end of the sandpaper bit. Turn on your Dremel and set it between 2 and 10. Choose lower settings if you're sanding or polishing plastics or woods. Select a higher setting if you're sanding metal. While holding the material secure, run the bit across the material so that the sandpaper bit completely comes into contact with your material and sharpens or sands it.[13]<br />
*Make sure that the sanding bits are in good shape so they don't scuff or mark your material. They should fit in the drill snugly and shouldn't be worn down. Have several sanding bits on hand so you can quickly replace them.<br />
*To sand, you can use sanding bands, sanding discs, flap wheels, shaping wheels and finishing and detail abrasive brushes.<br />
<br />
<br />
==External link==<br />
<br />
https://shop.dremeleurope.com/gb/en/productdetails/dremel-3000--485</div>Lanaaaaaahttps://wiki.fablabbcn.org/Makita_DTD146_Cordless_impact_driverMakita DTD146 Cordless impact driver2020-04-27T10:18:14Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Makita-DTD146.png| thumb |Makita DTD146 Cordless impact driver]]<br />
<br />
'''Description:'''<br />
<br />
The impact drivers have started to replace the cordless drills in some applications, especially with the advent of bit sets with hex-shank accessories that are specifically designed to withstand the stresses that these drivers impose on a bit.<br />
<br />
Impact drivers are high-torque tools primarily used for driving screws and tightening nuts. Their chuck accepts only bits with a hex shank. You either pull up on the chuck sleeve to insert a bit or you just slip the bit into the chuck.<br />
<br />
These tools are lighter and smaller than drill drivers, and although they are not as versatile, they will perform many of the same functions. Since their torque output is higher than a typical drill driver, they get through work more quickly.<br />
<br />
==How to use==<br />
<br />
*Choose the correct bit type and size.<br />
*Make sure to hold or push the board down when you use the impact driver on screws.<br />
*If you can't use a clamp, mark the wood with a nail or trim a hole instead. <br />
*With hard wood or thin wood use the countersink bit to make a secondary hole to hide the head of the screw, if you don’t the wood can split<br />
*When the battery is low, swap it with a charged one. There are always spare battery packs charging.<br />
<br />
==Features==<br />
<br />
*Powerful<br />
*Screwdriver<br />
<br />
==Screw==<br />
<br />
The bit for the screw are: Torx, Slotted, Pozidriv, Phillips, Allen. And every type has different size marks with a number on the side of the bit<br />
[[File:Screws.png]]<br />
<br />
==External link==<br />
<br />
http://www.makita.my/products/btd146rfe-cordless-impact-driver/</div>Lanaaaaaahttps://wiki.fablabbcn.org/Makita_DHP453_Hammer_driver_drillMakita DHP453 Hammer driver drill2020-04-27T10:15:44Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Makita-BHP453.png| thumb |Makita DHP453 Hammer driver drill]]<br />
<br />
'''Description:'''<br />
<br />
A driver drill is a tool primarily used for making round holes or driving fasteners. It is fitted with a bit, either a drill or driver, depending on application, secured by a chuck. It also includes a hammer function.<br />
<br />
A cordless drill is an electric drill which uses rechargeable batteries. They are available in the hammer drill configuration and most have a clutch, which aids in driving screws into various substrates while not damaging them. <br />
<br />
==How to use==<br />
*Choose the correct drill bit. <br />
*Fit the drill bit firmly into the chuck. You may be able to do this by hand.<br />
*Hold the drill steady and push it into the material you're drilling. If it takes more than light force to drill the hole, you're probably using the wrong bit.<br />
*Adjust the clutch. Each drill has a twistable collar to adjust the torque. The higher the number, the more torque (rotational force) the drill will apply.<br />
*Avoid overheating the drill bit.<br />
*If the battery is too low, swap it with a spare battery pack.<br />
<br />
==Features==<br />
*Drill and screwdriver<br />
*Two speeds, less speed more power, more speed less power<br />
*Gear number:<br />
** High number (14) more pressure and power<br />
** Low number (1) less power for not damage the material when you break the bottom surface<br />
*Screw position<br />
*Hammer position, not just spin (used for concrete and not for metal and wood)<br />
<br />
==Drills==<br />
<br />
Using a bit made from the wrong material can cause the bit or the material you're drilling to break. You can use a general-purpose bit on most wood; a masonry bit for stone, brick or concrete; an HSS (high speed steel) bit on most metals<br />
[[File:Drills.png]]<br />
==Screw==<br />
<br />
[[File:Screws.png]]<br />
<br />
==External link==<br />
<br />
http://www.makitauk.com/products/front/?model=BHP453Z</div>Lanaaaaaahttps://wiki.fablabbcn.org/Makita_9404_Belt_SanderMakita 9404 Belt Sander2020-04-27T10:13:15Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
<br />
[[File:Makita_9404.png| thumb |Makita 9404 Belt Sander]]<br />
<br />
'''Description''':<br />
<br />
A belt sander is a woodworking tool designed to sand down or smooth wood. It can also be used to smooth or round edges. A belt sander is rather large and if not used properly can result in damaging your wood or causing serious injury. <br />
<br />
Belt sander may be handheld and moved over the material, or stationary, where the material is moved to the sanding belt. <br />
<br />
This machine can have a very aggressive action on wood and are normally used only for the beginning stages of the sanding process, or used to rapidly remove material. It is also used for removing paints or finishes from wood. Fitted with fine grit sand paper, a belt sander can be used to achieve a completely smooth surface.<br />
<br />
==Safety==<br />
*Always wear mask, safety goggles and gloves.<br />
*Use both hands.<br />
*If used upside down, ensure it is clamped securely on a table.<br />
<br />
==How to use==<br />
<br />
*Prepare your wood to be sanded by ensuring it is properly secured on the table or workbench.<br />
*Start the motor of the belt sander while holding it away from the wood you intend to sand. Ensure it is at full speed before bringing it in contact with the wood.<br />
*Move the sander back and forth in smooth, even motions, using the front handle to guide it across the wood.<br />
<br />
'''Stationary (clamped upside down):'''<br />
<br />
*Ensure the belt sander is clamped securely and properly on the table.<br />
*Turn it on and press the button on the side to keep it on. This allows you to use both hands to hold the workpiece and gives you more control.<br />
<br />
==External link==<br />
<br />
'''Manual:'''<br />
http://www.icmsmakita.eu/cms/custom/es/user_manual/9404.pdf</div>Lanaaaaaahttps://wiki.fablabbcn.org/Makita_RT0700C_RouterMakita RT0700C Router2020-04-27T10:11:55Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Makita-router.png| thumb |Makita RT0700C Router]]<br />
<br />
'''Description''':<br />
<br />
High-speed spinning tool with a bit at the end of the motor’s shaft that allows the user to smoothen, to curve, and to polish the edges and surfaces of the wood. <br />
<br />
A hand router is one of the most versatile tools in woodworking. More than just a way to bevel an edge, a router can create all kinds of edge profiles, be used to square wood edges, and even used as a thickness planer to level uneven wood. <br />
<br />
Although the bearing on some router bits helps guide the blade based on a reference, sometimes you may want to make a cut with the router where there is no existing reference. Create a fence to guide you.<br />
<br />
==Safety==<br />
*Always wear safety glasses.<br />
*Hold and support the machine firmly on the surface, secure it with clamps if necessary so as not to loose control.<br />
*The electric cable must be positioned on the opposite side of the cutting direction.<br />
<br />
==How to use==<br />
<br />
*Install the router bit in the collet. <br />
*Remove the base for easy access to the collet when changing the router bit, and for adjusting the fixed base for a tilting one.<br />
*Adjusting the gauge for the depth of cut you need. Set your bit depth by unbuckling the clasp and setting the depth of the fixed base.<br />
*Edge-routing. Clamp the board down and move the wood router in a counterclockwise direction around the board.<br />
<br />
<br />
<br />
'''Conventional Vs Climbing Cut'''<br />
<br />
A milling cutter can cut in two directions, sometimes known as conventional (up-cut) and climb (down-cut). For almost all cuts required with a hand router, a conventional cut is recommended, but know that it can cause tear out when reaching the end of a cut.<br />
[[File:CONVENTIONAL CLIMB.png|600px]]<br />
<br />
==Bits==<br />
<br />
[[File:83b51ee90830f2e2ee75ed7360d17abc.jpg|600px]]<br />
<br />
'''Straight Bits'''<br />
<br />
Straight bits are most commonly used extensions for a router as they allow you to perform straight cuts. These cuts form grooves or pockets. They can also be used for creating a shaft for embedding decorative parts in your newly created wooden part.<br />
<br />
'''Rabbeting Bits'''<br />
<br />
These router extensions are guided by a pilot bearing and are designed to cut shoulders. They are mostly used to create connecting wooden pieces and parts that don’t require screws or nails to connect to one another. <br />
<br />
'''Flush Trim Bits'''<br />
<br />
Flush trim bits are great for evening the edges of certain materials. For example, if you have two parts that are supposed to act as a support for other parts, it’s advisable that you laminate the edges and make them even. This way you will minimize the friction and ensure that the part lasts longer.<br />
<br />
'''Edge Forming Bits'''<br />
<br />
Edge forming parts are designed to perform small but precise cuts and shafts. They are usually used for decorative cuts and can easily lose their effectiveness over time. <br />
<br />
==External link==<br />
<br />
https://www.makita.co.nz/products/model/RT0700C<br />
<br />
https://www.instructables.com/lesson/Hand-Router/<br />
<br />
'''Manual:'''<br />
https://www.google.it/url?sa=t&rct=j&q=&esrc=s&source=web&cd=1&ved=0ahUKEwi2suLyvcHbAhWE8RQKHbbWCY4QFggnMAA&url=https%3A%2F%2Fwww.makita.de%2Ffileadmin%2F_migrated%2Fcontent_uploads%2FRT0700C-B.pdf&usg=AOvVaw0yV2iaz0pONYlBRxpoyMMG</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_BKS4043_Wet_%26_Dry_Handheld_Vacuum_CleanerBosch BKS4043 Wet & Dry Handheld Vacuum Cleaner2020-04-27T09:58:13Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
<br />
[[File:Bosch-BKS4043.png| thumb |Bosch Wet&Dry Handheld Vacuum Cleaner]]<br />
<br />
==How to use==<br />
<br />
*Used to vacuum up dust and small debris.<br />
<br />
*Do not use on wet surfaces.<br />
<br />
*Make sure the tank is not too full before starting and be sure to empty is once completed.<br />
<br />
==External link==<br />
<br />
https://media3.bosch-home.com/Documents/9000729138_A.pdf<br />
<br />
[[Category: Hand tools]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_GEX_150_AC_Orbit_SanderBosch GEX 150 AC Orbit Sander2020-04-27T09:57:28Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Bosch_GEX_150_AC_Orbit_Sander.png| thumb |Bosch GEX 150 AC Orbit Sander]]<br />
<br />
'''Description''':<br />
<br />
The orbital sander allows for smooth, scratch free finish on planar wood boards.<br />
<br />
It is simply a sander that moves the sanding media in a circle (spinning it) while at the same time moving the entire pad in a slightly oval orbit around the center of the sanders' z-axis. Simply put the sander keeps the sanding particles from making contact with the same section of wood over and over, resulting in a more uniform finish.<br />
<br />
==Safety==<br />
*Always wear a mask along with safety goggles.<br />
*When you turn on the machine, keep it away from the surface.<br />
*When you turn off the machine, let it come to a complete stop before placing it on a surface.<br />
<br />
==How to use==<br />
<br />
*Before you begin sanding, make sure the disk of the sander has proper sandpaper attached and with the ideal grain.<br />
*Check that the sandpaper already on the sander still has grit; if it is too worn down, replace it before sanding.<br />
*As usual, make sure that the material you are sanding is properly secured with a vice or clamp to a table.<br />
*When you turn the sander on, make sure you let it spin up to full speed before making contact with the material. <br />
*Don't press down on the sander. The weight of the sander and your arm will cause enough pressure to get the job done.<br />
*Cover all rough surfaces of the material until the edges have been thoroughly smoothed and you have removed all splinters.<br />
*Lift the sander off of the material before allowing it to slow down/turn off.<br />
<br />
==Features==<br />
<br />
*Good finishing<br />
*Removes large marks on the wood<br />
*Only suitable for flat surfaces <br />
*Random movement<br />
*Not good for sanding edges as it can be too powerful<br />
<br />
<br />
==External link==<br />
<br />
http://www.bosch-professional.com/qa/en/random-orbit-sander-gex-150-ac-131479-0601372771.html</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_GWS_7-115_Angle_GrinderBosch GWS 7-115 Angle Grinder2020-04-27T09:53:27Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
<br />
[[File:Angle Grinder.png| thumb |Bosch GWS 7-115 Angle Grinder]]<br />
<br />
'''Description''':<br />
<br />
Angle grinders are electric power tools with detachable grinding wheels that you can apply to a variety of jobs, including sanding, grinding, cleaning, and cutting. When using a grinder, make sure you are picking the right attachment for the job and using that attachment correctly. Always practice safety procedures when working with a grinder, as it can cause injury, both from the blade itself and from flying debris.<br />
<br />
==Safety==<br />
*Always wear safety glasses and protect your arms and hands with work gloves and long sleeves and legs with long pants. Wear a mask if working with metal.<br />
*Use a proper lab coat to protect yourself from sparks and do not wear synthetic clothes.<br />
*Put in ear plugs or cover your ears with noise-canceling earmuffs.<br />
*Always change the blade with the machine unplugged.<br />
*Be aware of the environment around you and warn your colleagues that may be in the way. Sparks can be dangerous to other people and can burn fabrics and wood dust.<br />
<br />
==How to use==<br />
<br />
*Tool for cutting and grinding metal.<br />
*Use safety glasses.<br />
*Always stand in a comfortable position, one leg in front the other one.<br />
*Move the machine slowly to the material.<br />
*Be aware of people around you and check that they are wearing proper safety equipment.<br />
<br />
==External link==<br />
<br />
'''Manual:'''<br />
https://www.bosch-professional.com/binary/ocsmedia/optimized/full/o333286v21_160992A5FG_202003.pdf</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_GST_150_CE_JigsawBosch GST 150 CE Jigsaw2020-04-27T09:49:37Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Bosch_GST_150_CE.png| thumb |Bosch GST 150 CE Jigsaw]]<br />
<br />
'''Description''':<br />
<br />
A jigsaw power tool is a jigsaw made up of an electric motor and a reciprocating saw blade.<br />
<br />
Jigsaws are ideal for cutting curves and complex shapes in wood. They also work well for making short crosscuts on a board and finishing inside corner cuts. Jigsaws are not good for making fast, long, straight cuts. Use a circular saw instead.<br />
<br />
In the past, what is now usually called scroll saws were often referred to as jigsaws. A power jigsaw may also be referred to, by some manufacturers, as a "bayonet saw" or sabre saw.<br />
<br />
==Safety==<br />
*Always use safety glasses.<br />
*Make sure the machine is unplugged before changing the blade and keep it away from the direction of your face.<br />
*Check that the cutting line does not pass over the work table. Otherwise you risk damaging the work table.<br />
*The electric cable must be position on the opposite side of the cutting direction.<br />
<br />
==How to use==<br />
<br />
*Used for free shapes.<br />
*Choose the right blade according to the material, the thickness and the maximum angle of the cutting curve.<br />
*The blade have to be at least 1 cm longer than the thickness of material.<br />
*Don’t change the T-shape blade with it directed at your face. Lie the tool down onto the worktable and proceed to change the blade.<br />
*Use a fence for perfectly straight cuts. Hold the workpiece and the fence firmly with clamps. <br />
*Avoid driving blades into the bench top.<br />
*With hardwood use slower speeds (to much friction can burn the material).<br />
*With softwood can use faster speeds.<br />
[[File:Mode_Jig_Saw.png]]<br />
<br />
==Blades==<br />
[[File:Jig_Saw_Blades.png]]<br />
==External link==<br />
<br />
https://shop.bosch-professional.com/gb/en/product/jigsaw-gst-150-ce--23293</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_GST_150_BCE_JigsawBosch GST 150 BCE Jigsaw2020-04-27T09:49:24Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Bosch-GST-150-BCE.png| thumb |Bosch GST 150 BCE Jigsaw]]<br />
<br />
'''Description''':<br />
<br />
A jigsaw power tool is a jigsaw made up of an electric motor and a reciprocating saw blade.<br />
<br />
Jigsaws are ideal for cutting curves and complex shapes in wood. They also work well for making short crosscuts on a board and finishing inside corner cuts. Jigsaws are not good for making fast, long, straight cuts. Use a circular saw instead.<br />
<br />
In the past, what is now usually called scroll saws were often referred to as jigsaws. A power jigsaw may also be referred to, by some manufacturers, as a "bayonet saw" or sabre saw.<br />
<br />
==Safety==<br />
*Always use safety glasses.<br />
*Make sure the machine is unplugged before changing the blade and keep it away from the direction of your face.<br />
*Check that the cutting line does not pass over the work table. Otherwise you risk damaging the work table.<br />
*The electric cable must be position on the opposite side of the cutting direction.<br />
<br />
==How to use==<br />
<br />
*Used for free shapes.<br />
*Choose the right blade according to the material, the thickness and the maximum angle of the cutting curve.<br />
*The blade have to be at least 1 cm longer than the thickness of material.<br />
*Don’t change the T-shape blade with it directed at your face. Lie the tool down onto the worktable and proceed to change the blade.<br />
*Use a fence for perfectly straight cuts. Hold the workpiece and the fence firmly with clamps. <br />
*Avoid driving blades into the bench top.<br />
*With hardwood use slower speeds (to much friction can burn the material).<br />
*With softwood can use faster speeds.<br />
[[File:Mode_Jig_Saw.png]]<br />
<br />
==Blades==<br />
[[File:Jig_Saw_Blades.png]]<br />
==External link==<br />
<br />
http://www.bosch-professional.com/za/en/jigsaw-gst-150-bce-131485-0601513000.html</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_GST_150_CE_JigsawBosch GST 150 CE Jigsaw2020-04-27T09:46:10Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Bosch_GST_150_CE.png| thumb |Bosch GST 150 CE Jigsaw]]<br />
<br />
'''Description''':<br />
<br />
A jigsaw power tool is a jigsaw made up of an electric motor and a reciprocating saw blade.<br />
<br />
Jigsaws are ideal for cutting curves and complex shapes in wood. They also work well for making short crosscuts on a board and finishing inside corner cuts. Jigsaws are not good for making fast, long, straight cuts. Use a circular saw instead.<br />
<br />
In the past, what is now usually called scroll saws were often referred to as jigsaws. A power jigsaw may also be referred to, by some manufacturers, as a "bayonet saw" or sabre saw.<br />
<br />
==Safety==<br />
*Always use safety glasses<br />
*Make sure the machine is unplugged before changing the blade and keep it away from the direction of your face.<br />
*Check that the cutting line does not pass over the work table. Otherwise you risk damaging the work table.<br />
*The electric cable must be position on the opposite side of the cutting direction.<br />
<br />
==How to use==<br />
<br />
*Used for free shapes.<br />
*Choose the right blade according to the material, the thickness and the maximum angle of the cutting curve.<br />
*The blade have to be at least 1 cm longer than the thickness of material<br />
*Don’t change the T-shape blade with it directed at your face. Lie the tool down onto the worktable and proceed to change the blade.<br />
*Use a fence for perfectly straight cuts. Hold the workpiece and the fence firmly with clamps. <br />
*Avoid driving blades into the bench top.<br />
*With hardwood use slower speeds (to much friction can burn the material).<br />
*With softwood can use faster speeds.<br />
[[File:Mode_Jig_Saw.png]]<br />
<br />
==Blades==<br />
[[File:Jig_Saw_Blades.png]]<br />
==External link==<br />
<br />
https://shop.bosch-professional.com/gb/en/product/jigsaw-gst-150-ce--23293</div>Lanaaaaaahttps://wiki.fablabbcn.org/Ecoplus_TS-20_Drill_PressEcoplus TS-20 Drill Press2020-04-27T09:42:16Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Ecoplus-TS-20-p59.png| thumb |Ecoplus TS-20 Drill Press]]<br />
<br />
'''Description''':<br />
<br />
A drill press is a style of drill that may be mounted on a stand or bolted to the floor or workbench. <br />
<br />
Major components include a base, column (or pillar), adjustable table, spindle, chuck, and drill head, usually driven by an electric motor. The head has a set of three handles radiating from a central hub that are turned to move the spindle and chuck vertically. <br />
<br />
==Safety==<br />
*Always wear safety glasses and if you are drilling metal, additional gloves and mask are required.<br />
*The rotation of the drill bit may try to spin the wood or metal workpiece, so ensure it is clamped securely to the worktable.<br />
<br />
==How to use==<br />
<br />
*Tool to drill wood, metal and plastic<br />
<br />
*One speed. You don't need to set the speed.<br />
<br />
*Fit the bit. Open the chuck, slide in the bit, snug the chuck by hand around the shaft of the bit, then tighten.<br />
<br />
*Adjust the table. Release the clamping lever on the back of the platform and turn the crank on the right side to adjust the table height.<br />
<br />
*Gauging the depth. <br />
<br />
*Secure the workpiece with clamps<br />
<br />
*Drill<br />
<br />
*Drilling.<br />
<br />
==Advantages==<br />
<br />
A drill press has a number of advantages over a hand-held drill:<br />
<br />
*Less effort is required to apply the drill to the workpiece. <br />
*The movement of the chuck and spindle is by a lever working on a rack and pinion, which gives the operator considerable mechanical advantage.<br />
*The table allows a vise or clamp to be used to position and restrain the work, making the operation much more secure and accurate.<br />
*The angle of the spindle is fixed relative to the table, allowing holes to be drilled accurately and consistently.<br />
*Drill presses are almost always equipped with more powerful motors compared to hand-held drills. This enables larger drill bits to be used and also speeds up drilling with smaller bits.<br />
<br />
==External link==<br />
<br />
https://www.bricolandia.es/belflex-taladro-de-sobremesa-ep-ts-20-44174000/</div>Lanaaaaaahttps://wiki.fablabbcn.org/Hitachi_C8FSHE_Slide_Compound_Miter_SawHitachi C8FSHE Slide Compound Miter Saw2020-04-27T09:39:15Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
<br />
[[File:Hitachi-C8FSHE.png| thumb |Hitachi C8FSHE Slide Compound Miter Saw]]<br />
<br />
A miter saw is a saw used to make accurate crosscuts and miters in a workpiece by pulling a large backsaw or a mounted circular saw blade down onto a board in a quick motion. It is commonly used for cutting of molding, trim and small boards.<br />
<br />
The workpiece is held against a fence, which provides a precise cutting angle between the plane of the blade and the plane of the longest workpiece edge. In standard position, this angle is fixed at 90°<br />
<br />
It's possible to move the base in precise one-degree incremental changes or also provide "stops" that allow the miter index to be quickly set to common angles (such as 15°, 22.5°, 30°, and 45°)<br />
<br />
==Safety==<br />
*Always use safety glasses<br />
*Respect the safety distance limit between the hand and the blade as indicated on the machine<br />
*If the piece of wood to cut is small, use another machine is this is one is not suitable for small parts.<br />
*Let the blade come to a complete stop at the end of each cut before lifting it.<br />
<br />
==How to use==<br />
<br />
*Push the wood against the metal bar. <br />
*Mark a line with pencil on the material where you want to cut. <br />
*Ensure the blade fall on the side of the line and not along the center.<br />
*Start cutting the material from the back (closest side to your body), go down and continue forward.<br />
*You can adjust two different angles. the angle of the base or the angle of the blade<br />
*You can use the laser light to check for the line of cut.<br />
<br />
<br />
==External link==<br />
<br />
http://www.hitachi-koki.com/powertools/products/saw/c8fshe/c8fshe.html</div>Lanaaaaaahttps://wiki.fablabbcn.org/Bosch_GKS_190_Hand-Held_Circular_SawBosch GKS 190 Hand-Held Circular Saw2020-04-27T09:36:22Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
__NOTOC__<br />
[[File:Hand-held-circular-saw-gks-190-50576-0601623071.png| thumb |Bosch GKS 190 Hand-Held Circular Saw]]<br />
<br />
'''Description''':<br />
<br />
A circular saw is a power-saw with an attached toothed or abrasive disc or blade to cut different materials, such as wood, masonry, plastic, or metal, using a rotary motion spinning around an arbor.<br />
<br />
In woodworking the term "circular saw" refers specifically to the hand-held type and the table saw and chop saw are other common forms of circular saws. <br />
Circular saw blades are specially designed for each particular material they are intended to cut and in cutting wood are specifically designed for making rip-cuts, cross-cuts, or a combination of both. <br />
<br />
==Safety==<br />
*Always use safety glasses<br />
*For most cuts it is necessary to work with help, one person cutting and the other holding the part cut<br />
*Let the blade come to a complete stop at the end of each cut before removing it from the material<br />
*Make sure the electric cable extends on the opposite side of the cutting direction<br />
<br />
==How to use==<br />
<br />
*Use with a guide to help make long accurate straight cuts<br />
*By hand, measure the distance between the disc and the left side of machines then fix an extra wood guide on the shape.<br />
*Press the safety button and start the cut. <br />
<br />
==Work area==<br />
Rated power input. 1,400 W <br />
<br />
No-load speed 5.500 rpm<br />
<br />
Weight 4.1 kg<br />
<br />
Saw blade bore diameter. 20 mm<br />
<br />
Saw blade diameter. 184 mm<br />
<br />
==Applications== <br />
<br />
For rip, cross and mitre cuts in wood and similar materials, mainly in free handling.<br />
<br />
==External links==<br />
<br />
http://www.bosch-professional.com/za/en/hand-held-circular-saw-gks-190-226567-0601623000.html<br />
<br />
Manual:<br />
https://www.google.it/url?sa=t&rct=j&q=&esrc=s&source=web&cd=1&cad=rja&uact=8&ved=0ahUKEwiwhJGdpZ7bAhUGiSwKHVcDDkkQFggnMAA&url=http%3A%2F%2Fwww.free-instruction-manuals.com%2Fpdf%2Fpa_1404043.pdf&usg=AOvVaw3eXKdd9qXbb_6yH4v_lKbQ<br />
<br />
[[Category: Hand tools]]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Hitachi_C8FSHE_Slide_Compound_Miter_SawHitachi C8FSHE Slide Compound Miter Saw2020-04-27T09:31:47Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Hand tools]]<br />
<br />
[[File:Hitachi-C8FSHE.png| thumb |Hitachi C8FSHE Slide Compound Miter Saw]]<br />
<br />
A miter saw is a saw used to make accurate crosscuts and miters in a workpiece by pulling a large backsaw or a mounted circular saw blade down onto a board in a quick motion. It is commonly used for cutting of molding, trim and small boards.<br />
<br />
The workpiece is held against a fence, which provides a precise cutting angle between the plane of the blade and the plane of the longest workpiece edge. In standard position, this angle is fixed at 90°<br />
<br />
It's possible to move the base in precise one-degree incremental changes or also provide "stops" that allow the miter index to be quickly set to common angles (such as 15°, 22.5°, 30°, and 45°)<br />
<br />
==Safety==<br />
*Use always safety glasses<br />
*Respect the safety distance limit between the hand and the blade, indicated on the machine<br />
*if the piece of wood is too small, use another machine<br />
*Let the blade come to a complete stop at the end of each cut before lifting it.<br />
<br />
==How to use==<br />
<br />
*Push the wood against the metal bar. <br />
*Make a line on the material with pencil where you want to cut. <br />
*Put the blade on the side of the line (not along the center)<br />
*Start from far, go down and go forward.<br />
*You can adjust two different angles. the angle of the base or the angle of the blade<br />
*You can use the laser light to check for the line of cut.<br />
<br />
<br />
==External link==<br />
<br />
http://www.hitachi-koki.com/powertools/products/saw/c8fshe/c8fshe.html</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-03-10T11:16:20Z<p>Lanaaaaaa: /* STL File Preparation */</p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
STL is the standard file type used by most additive manufacturing systems. STL is a triangulated representation of a 3D CAD model. The triangulation (or poly count) of a surface will cause faceting of the 3D model. The parameters used for outputting a STL will affect how much faceting occurs. You cannot build the model smoother than the STL file. If the STL is coarse and faceted the physical 3D printed model will be coarse and faceted as well. However, the smoother/ less faceted your surface is, (the higher the poly count or triangulation) the larger your file. 3D printing can only accept a certain file size; therefore it’s important to find a balance between your model, its desired surface, and the 3D printing process of your choice.<br />
<br />
Important: STL files are suitable for 3D printing only if the models they describe are “watertight”, that is, they do not contain holes or gaps. To check to see if your mesh is watertight, follow the steps below:<br />
<br />
1. Convert file to MESH<br />
-Select Object<br />
-Convert to Mesh by typing command 'MESH'<br />
-Select Polygon Count > The higher the polygon count, the smoother the surface finish<br />
2. Check the MESH for any errors<br />
-Type 'CHECKMESH' to check mesh object for errors and problems, which include:<br />
• Degenerate faces - Fix with the CullDegenerateMeshFaces command.<br />
• Zero length edges - Zero-length edges typically are the result of degenerate faces. Fix with the CullDegenerateMeshFaces command.<br />
• Non-manifold edges - Use the CullDegenerateMeshFaces command and then fix with the ExtractNonManifoldMeshEdges command.<br />
• Naked edges - Naked edges can cause problems with rapid prototyping.<br />
Use the ShowEdges command to help find them or set the display mode to paint them a different color.<br />
Try the FillMeshHole, FillMeshHoles, or MatchMeshEdge commands to remove naked edges.<br />
If the mesh is still open, try the WELD Command.<br />
The Weld command will merge adjacent triangle points when 180 angle tolerance is set<br />
• Duplicate faces - Fix with the ExtractDuplicateMeshFaces command.<br />
• Faces with reversed normals. Fix with the UnifyMeshNormals command.<br />
• Disjoint pieces - Fix with the SplitDisjointMesh command.<br />
• Unused vertices - Unused vertices do not usually cause a problem, and there are no commands to for removing them in Rhino.<br />
Specific details on these commands can be found in the Rhino Help file.<br />
3. Once the mesh is watertight, it is ready to be exported.<br />
-File > Save As<br />
-Select File Type as STL<br />
-Select File Name > Save<br />
-Select Binary<br />
-As for the other settings, always select the standard options<br />
-Click OK<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
==M200/M200 Plus User Manual==<br />
<br />
# Save your model onto the Zortrax SD Card (M200) or onto the Zortrax USB Stick (M200 Plus)<br />
# Insert the SD Card/USB Stick on the appropriate machine<br />
# To change the material, unload and load the material by selecting "Material" option from the menu. To unload the material, select the “Unload the material” option. To load the material, select “Load the material” option. When the display shows the message “Insert new material,” insert the end of the material into the extruder and push the knob. Once the M200 finishes loading the material, it is ready to print. Remove the material remains using tweezers.<br />
# Select the model. To choose the model for printing, select the “Models” option from the main menu. Select the model in either the .zcode format file (M200) or .zcodex (M200 Plus) and confirm by pushing the knob. The printing procedure will begin automatically. The display will show information about the extruder heating level. Once the heating has been completed, the M200 will start printing. The bar on the display shows the progress of the print.<br />
# When it’s done, heat the platform.<br />
# Detach the model with the spatula tool and remove the model.<br />
# Use pliers or a scalpel to remove the support structure from your model. <br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-03-10T11:14:50Z<p>Lanaaaaaa: /* STL File Preparation */</p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
STL is the standard file type used by most additive manufacturing systems. STL is a triangulated representation of a 3D CAD model. The triangulation (or poly count) of a surface will cause faceting of the 3D model. The parameters used for outputting a STL will affect how much faceting occurs. You cannot build the model smoother than the STL file. If the STL is coarse and faceted the physical 3D printed model will be coarse and faceted as well. However, the smoother/ less faceted your surface is, (the higher the poly count or triangulation) the larger your file. 3D printing can only accept a certain file size; therefore it’s important to find a balance between your model, its desired surface, and the 3D printing process of your choice.<br />
<br />
Important: STL files are suitable for 3D printing only if the models they describe are “watertight”, that is, they do not contain holes or gaps. To check to see if your mesh is watertight, follow the steps below:<br />
<br />
1. Convert file to MESH<br />
-Select Object<br />
-Convert to Mesh by typing command 'MESH'<br />
-Select Polygon Count > The higher the polygon count, the smoother the surface finish<br />
2. Check the MESH for any errors<br />
-Type 'CHECKMESH' to check mesh object for errors and problems, which include:<br />
• Degenerate faces - Fix with the CullDegenerateMeshFaces command.<br />
• Zero length edges - Zero-length edges typically are the result of degenerate faces. Fix with the CullDegenerateMeshFaces command.<br />
• Non-manifold edges - Use the CullDegenerateMeshFaces command and then fix with the ExtractNonManifoldMeshEdges command.<br />
• Naked edges - Naked edges can cause problems with rapid prototyping. Use the ShowEdges command to help find them or set the display mode to paint them a different color. Try the FillMeshHole, FillMeshHoles, or MatchMeshEdge commands to remove naked edges. If the mesh is still open, try the WELD Command. The Weld command will merge adjacent triangle points when 180 angle tolerance is set<br />
• Duplicate faces - Fix with the ExtractDuplicateMeshFaces command.<br />
• Faces with reversed normals. Fix with the UnifyMeshNormals command.<br />
• Disjoint pieces - Fix with the SplitDisjointMesh command.<br />
• Unused vertices - Unused vertices do not usually cause a problem, and there are no commands to for removing them in Rhino. Specific details on these commands can be found in the Rhino Help file.<br />
3. Once the mesh is watertight, it is ready to be exported.<br />
-File > Save As<br />
-Select File Type as STL<br />
-Select File Name > Save<br />
-Select Binary<br />
-As for the other settings, always select the standard options<br />
-Click OK<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
==M200/M200 Plus User Manual==<br />
<br />
# Save your model onto the Zortrax SD Card (M200) or onto the Zortrax USB Stick (M200 Plus)<br />
# Insert the SD Card/USB Stick on the appropriate machine<br />
# To change the material, unload and load the material by selecting "Material" option from the menu. To unload the material, select the “Unload the material” option. To load the material, select “Load the material” option. When the display shows the message “Insert new material,” insert the end of the material into the extruder and push the knob. Once the M200 finishes loading the material, it is ready to print. Remove the material remains using tweezers.<br />
# Select the model. To choose the model for printing, select the “Models” option from the main menu. Select the model in either the .zcode format file (M200) or .zcodex (M200 Plus) and confirm by pushing the knob. The printing procedure will begin automatically. The display will show information about the extruder heating level. Once the heating has been completed, the M200 will start printing. The bar on the display shows the progress of the print.<br />
# When it’s done, heat the platform.<br />
# Detach the model with the spatula tool and remove the model.<br />
# Use pliers or a scalpel to remove the support structure from your model. <br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:54:18Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
==M200/M200 Plus User Manual==<br />
<br />
# Save your model onto the Zortrax SD Card (M200) or onto the Zortrax USB Stick (M200 Plus)<br />
# Insert the SD Card/USB Stick on the appropriate machine<br />
# To change the material, unload and load the material by selecting "Material" option from the menu. To unload the material, select the “Unload the material” option. To load the material, select “Load the material” option. When the display shows the message “Insert new material,” insert the end of the material into the extruder and push the knob. Once the M200 finishes loading the material, it is ready to print. Remove the material remains using tweezers.<br />
# Select the model. To choose the model for printing, select the “Models” option from the main menu. Select the model in either the .zcode format file (M200) or .zcodex (M200 Plus) and confirm by pushing the knob. The printing procedure will begin automatically. The display will show information about the extruder heating level. Once the heating has been completed, the M200 will start printing. The bar on the display shows the progress of the print.<br />
# When it’s done, heat the platform.<br />
# Detach the model with the spatula tool and remove the model.<br />
# Use pliers or a scalpel to remove the support structure from your model. <br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:53:48Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
==M200/M200 Plus User Manual==<br />
<br />
# Save your model onto the Zortrax SD Card (M200) or onto the Zortrax USB Stick (M200 Plus)<br />
# Insert the SD Card/USB Stick on the appropriate machine<br />
# To change the material, unload and load the material by selecting "Material" option from the menu. To unload the material, select the “Unload the material” option. To load the material, select “Load the material” option. When the display shows the message “Insert new material,” insert the end of the material into the extruder and push the knob. Once the M200 finishes loading the material, it is ready to print. Remove the material remains using tweezers.<br />
# Select the model. To choose the model for printing, select the “Models” option from the main menu.<br />
Select the model in either the .zcode format file (M200) or .zcodex (M200 Plus) and confirm by pushing the knob. The printing procedure will begin automatically. The display will show information about the extruder heating level. Once the heating has been completed, the M200 will start printing. The bar on the display shows the progress of the print.<br />
# When it’s done, heat the platform.<br />
# Detach the model with the spatula tool and remove the model.<br />
# Use pliers or a scalpel to remove the support structure from your model. <br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:43:05Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:42:33Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
<br />
<br />
*'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
*'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
*'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:42:10Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
*'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
<br />
*'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
<br />
*'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:41:29Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
<br />
<br />
*'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:30:32Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
<br />
<br />
<br />
<br />
<br />
*'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:29:33Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
# '''Saving the Z-Code:''' Once the .zcode has been generated, your model is ready to be saved on the SD card. Information about your print: profile, layer thickness, infill as well as an estimated print time and material usage will be shown at the bottom of the screen. Save your .zcode on a hard drive or directly on the SD card by clicking “Save to print” button. Insert the SD card into the printer and start printing.<br />
<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
<br />
<br />
<br />
<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:27:16Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:26:44Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: -MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: -SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: -There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:26:12Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced:'''<br />
##: MESH Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
##: SHELL Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
##: There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:25:20Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''Support:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''Support Lite:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''Print Cooling:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''Seam:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''Surface Layers:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''Offset:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''Infill Advanced'''<br />
###: MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
###: SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
###: There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:17:57Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
## '''Advanced Settings'''<br />
##: '''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
##: '''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
##: '''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
##: '''INFILL Advanced:'''<br />
###: MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
###: SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
###: There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:16:27Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# '''Printer Selection:''' On Z-Suite start screen, select the model of the printer you are going to use.<br />
# '''Adding a Model:''' Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# '''Editing a Model:''' There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# '''Preparing to Print:''' If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# '''Print Settings:'''<br />
## '''Normal Settings'''<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: '''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: '''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: '''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: '''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: '''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:15:40Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
## Normal Settings<br />
##: '''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: Quality (previously Speed): HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: Infill: Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: SUPPORT: Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: SUPPORT LITE: Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: PRINT COOLING: You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:15:14Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
## Normal Settings<br />
##: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
##: Quality (previously Speed): HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
##: Infill: Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
##: SUPPORT: Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
##: SUPPORT LITE: Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
##: PRINT COOLING: You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:14:52Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
## Normal Settings<br />
##: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
***: Quality (previously Speed): HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
***: Infill: Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
***: SUPPORT: Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
***: SUPPORT LITE: Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
***: PRINT COOLING: You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:14:28Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
## Normal Settings<br />
***: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
***: Quality (previously Speed): HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
***: Infill: Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
***: SUPPORT: Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
***: SUPPORT LITE: Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
***: PRINT COOLING: You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:13:56Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
*# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
*# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
*# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
*# Print Settings:<br />
** Normal Settings<br />
***: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
***: Quality (previously Speed): HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
***: Infill: Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
***: SUPPORT: Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
***: SUPPORT LITE: Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
***: PRINT COOLING: You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:13:23Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
*# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
*# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
*# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
*# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
*# Print Settings:<br />
** Normal Settings<br />
***: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
***: Quality (previously Speed): HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
***: Infill: Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
***: SUPPORT: Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
***: SUPPORT LITE: Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
***: PRINT COOLING: You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:12:06Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
*# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
*# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
*# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
*# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
*# Print Settings:<br />
** Normal Settings<br />
**: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
<br />
'''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
<br />
'''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
<br />
'''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
<br />
'''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
<br />
'''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:11:37Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
*# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
*# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
*# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
*# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
*# Print Settings:<br />
**; Normal Settings<br />
**: Layer thickness: choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
<br />
'''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
<br />
'''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
<br />
'''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
<br />
'''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
<br />
'''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:08:18Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
** Normal Settings<br />
'''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
<br />
'''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
<br />
'''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
<br />
'''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
<br />
'''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
<br />
'''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:07:46Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
## Normal Settings<br />
'''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
<br />
'''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
<br />
'''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
<br />
'''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
<br />
'''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
<br />
'''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
<br />
===Advanced Settings===<br />
<br />
<br />
<br />
'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
<br />
'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
<br />
'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
<br />
'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
<br />
<br />
*<br />
'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
<br />
*<br />
'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
<br />
*<br />
'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
<br />
<br />
=='''MACHINE SETTINGS'''==<br />
<br />
How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
<br />
Models >Name of the model > Print<br />
<br />
Maintenance > Heat the platform <br />
<br />
Material > Load the material<br />
. Use this option to change the material.<br />
<br />
==Maintenance==<br />
<br />
*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
<br />
==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaahttps://wiki.fablabbcn.org/Zortrax_M200_3D_printerZortrax M200 3D printer2020-02-11T17:07:05Z<p>Lanaaaaaa: </p>
<hr />
<div>[[Category:Machines]]<br />
<br />
=ZORTRAX 3D PRINTER=<br />
[[File:Zortrax m200.png| frame |Zortrax M200]]<br />
[[Category:Machines]]<br />
Zortrax is a Polish manufacturer of 3D printers and filaments for SMB market and rapid prototyping for industries, including robotics and automation, architecture, industrial design, engineering, aviation, industrial automation. Zortrax machines work with dedicated software, firmware and filaments.<br />
<br />
==Technology==<br />
Zortrax manufactures Layer Plastic Deposition (LPD) technology. The technology is using three-dimensional data to create three-dimensional model in layer after layer process.<br />
<br />
==Technical specifications==<br />
===M200===<br />
*Build volume: Length: 200mm, Width: 200mm, Height: 180mm<br />
*Layer resolution: 90-400 microns<br />
*Minimal wall thickness: 400 microns / optimal-800 microns<br />
*Nozzle diameter: 0.4 mm (0.016 in)<br />
<br />
===M200 Plus===<br />
*Build volume: 200 x 200 x 180 mm (7.9 x 7.9 x 7.1 in)<br />
*Material diameter: 1.75 mm (0.069 in)<br />
*Layer Resolution: 90 – 400 microns<br />
*Minimal Wall Thickness: 400 microns<br />
*Nozzle diameter: 0.3 mm (0.012 in), 0.4 mm (0.016 in), 0.6 mm (0.024 in)<br />
<br />
==Health & Safety==<br />
Emissions testing from polymer filament desktop 3D printers found that some plastic filament materials, when heated, were found to release chemicals “known to be hazardous to health”, such as styrene and isocyanates. These printers emit many particles that can potentially enter the airways and lungs and should only be operated when enclosed by a hood with a filtered ventilation system to reduce particle emission rates by 97%.<br />
<br />
[[File:Zortrax materials.png| frame |Zortrax materials]]<br />
=MATERIALS=<br />
==Zortrax Materials==<br />
<br />
Layer Plastic Deposition is a technology in which printer is melting thermoplastic material (filament) in the extruder and apply it precisely on heated platform layer after layer. Zortrax M200 dedicated printing materials are: Z-ABS, Z-ULTRAT, Z-GLASS, Z-HIPS, Z-PCABS, Z-PETG, Z-ESD, Z-ASA Pro, Z-PLA Pro, Zortrax M300: Z-HIPS, Z-PETG, Z-GLASS, Z-ESD, Z-ASA Pro, Z-PLA Pro and Zortrax Inventure - Z-PLA, Z-PETG, Z-SUPPORT.<br />
<br />
*'''Z-ULTRAT''': Z-ULTRAT is a versatile materials that lets you prototype models with features of products manufactured using injection moulding technology, all in-house. The strong, stable, and time-resistant material is available in a wide range of colours. Applications: functional prototypes end-use parts casing prototypes for testing end-use casing parts for low volume production prototypes of consumer products mechanical parts simulating properties of elements made in injection moulding elements required to be durable and stable over time <br />
<br />
*'''Z-HIPS''': Use Z-HIPS to significantly reduce warping and visibly shorten the time you’re spending on post-processing. The material has a unique mat structure that absorbs light and reduces the visibility of minor flaws. It’s great for printing bigger part, housing or architectural prototypes. Applications: models with large, flat surfaces architecture mockups casing elements for testing end-use casing parts for low volume production prototypes of consumer products prototypes of mechanical parts <br />
<br />
*'''Z-GLASS''': Translucent structures. Its light-transmitting surface makes it applicable in automotive, industrial design, and architecture projects. Applications: concept models that are to imitate glass or translucent plastic functional prototypes of translucent objects translucent decorative elements parts required to be resistant to salts, acids, alkalis, and solvents <br />
<br />
*'''Z-PETG''': Durable material. It’s highly resistant to salts, acids, and alkalis. The models will have a glossy surface that is also resistant to impact, time, and UV light. Applications: parts required being resistant to salts, acids, alkalis, and solvents machine components elements requiring resistance to greases and oils packaging prototypes prototypes of mechanical parts <br />
<br />
*'''Z-PCABS''': Z-PCABS emerged from combining two durable materials. Therefore it’s durable and impact resistant, suited for producing casings. It’s also resistant to temperatures, UV lights, and chemicals. The resistance made it a great material for automotive. Applications: consumer electronics casings automotive parts parts required to be resistant to temperature structural components <br />
<br />
*'''Z-ABS''': For printing concept models, mockups, gadgets, or figurines. Choose from a wide range of colours to catch the attention to your project. Applications: concept models gadgets and figurines display models models with moderate functional and testing properties<br />
<br />
==External Materials==<br />
*'''PLA''': Polylactic acid is the quintessential material for 3d printing, thanks to its ease of use through deposition. It is recommended to begin in this type of manufacturing technology with this material. A great variety of colours exist and complex geometries can be achieved without great difficulty. The finish is slightly glossy or semi-matte. <br />
Printing is carried out at temperatures ranging between 195º and 220° C, depending on the supplier of the material and printing speed. A layer fan is required to build overhangs. It easily attaches to the glass, and if you work at a hotbed temperature ranging 45º C-55º C, no product is required to ensure this adherence. <br />
The mechanical properties are average, but presents a certain fragility in parts requiring deformation, from a temperature of about 50 °, the parts can present it. It is dissolved in caustic soda.<br />
<br />
*'''ABS''': Acrylonitrile Butadiene Styrene is one of the most widely used materials in 3d printing, and makes up for some of the weaknesses of the PLA. Printing with ABS is more complex and requires some attention. ABS is not recommended for inexperienced users. The variety of colours is also very high and the finish is semi-matte or matte. <br />
The ABS is printed at temperatures between 210º C and 240º C depending on the supplier of the material and printing speed. The ABS performs better with overhangs, and needs less air into the fan layer (excess air can be harmful). Adherence to the platform is weaker than with the PLA, due to material shrinkage on cooling, and often requires adhesive coating despite working with a hotbed temperature of 70 ° C. If the geometry of the piece to be printed has a too large base, is further promotes adherence problem due to the large lift effect that occurs at the opposite ends of the workpiece (known as warping). <br />
<br />
*'''Filaflex''': Filaflex is a flexible material that comes in different colors. <br />
Requires the use of a 0.6 mm nozzle.<br />
Speed 10mm/s<br />
Temperature 235ºC<br />
Hodbed 40ºC<br />
<br />
=WORKFLOW=<br />
==STL File Preparation==<br />
<br />
<br />
<br />
==Z-SUITE Software Manual==<br />
<br />
Zortrax Z-SUITE software is created specifically for Zortrax machines. Z-SUITE allows opening a .stl, .obj or .dxf file and set printing preferences. It is the only 3D printing software in which users are able to convert 2D files into 3D models and cut models directly in Z-SUITE software. It is dedicated for both Windows and Mac users. Zortrax developed an application for storing and downloading 3D models - the Zortrax Library. It is available in both Z-SUITE and online. Before starting, download the Z-SUITE here: http://support.zortrax.com/downloads/<br />
<br />
# Printer Selection: On Z-Suite start screen, select the model of the printer you are going to use.<br />
# Adding a Model: Use + icon or use drag and drop option to upload a model. You may do so with models saved in an .stl or an .obj format. Select a model and click OPEN.<br />
# Editing a Model: There are several options to manipulate or edit your model in Z-suite including Splitting, Rotating, Resizing, Moving, or Duplicating a model, all of which can be found on the left-hand side of the window.<br />
# Preparing to Print: If your model is ready to be printed, click “Print.” Set printing options: PROFILE/LAYER THICKNESS/SPEED/INFILL which are explained below.<br />
# Print Settings:<br />
<br />
===Normal Settings===<br />
'''Layer thickness:''' choose the height of one layer: 0,09mm/0,14mm/0,19mm/0,29mm/0,39mm (depending on the material). Finer layers provide better surface quality but make printing more time- and material-consuming.<br />
<br />
'''Quality (previously Speed):''' HIGH/NORMAL. High quality gives better looking prints but increases the printing time.<br />
<br />
'''Infill:''' Choose the model infill: MAXIMUM/HIGH/MEDIUM/LOW. All four types of infill are presented in the picture on the right. MAXIMUM infill allows printing with the highest strength level. But the larger infill, the more time and material is needed for such a print.<br />
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'''SUPPORT:''' Select the angle at which the support structure is generated. 20° is the default option. It means that for all hanging parts of the model the support structure is generated at a 20° angle.<br />
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'''SUPPORT LITE:''' Choose this option to generate the support structure without the outer perimeter. Support lite consumes less material and it is easier to remove.<br />
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'''PRINT COOLING:''' You can choose the fan speed which cools down the model that is being printed. Cooling is not useful for big prints without any thin parts, whereas high cooling is better for small and thin prints. We recommend leaving the default option – AUTO. The printer will adjust the fan speed accordingly.<br />
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===Advanced Settings===<br />
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'''SEAM:''' It allows you to choose the starting point of every new layer (normal or random)<br />
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'''SURFACE LAYERS:''' If you aim at achieving a thicker finishing of the model, use this function. It helps you to choose the amount of layers at the top and at the bottom<br />
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'''OFFSET:''' this option helps to correct the internal and external dimensions of a model (in millimeters). It is possible to modify outer contours and holes dimension, however, only in the X and Y axis.<br />
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'''INFILL Advanced:'''<br />
MESH – Prints the model with 0% infill with horizontal surfaces (top and bottom) and the walls<br />
SHELL – Prints the model with 0% infill and no top and bottom surface layers. This option allows to choose the amount of the model wall. If you want the bottom layer to be printed, check the BOTTOM surface layer box while choosing SHELL infill.<br />
There is a SPIRAL MODE available with SHELL option. If you choose this option, your model will be printed with no seam.<br />
[[File:Type of infill.png| frame |Type of infill]]<br />
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'''LARGE PRINTS'''<br />
The problem of warping is frequent with large prints. Bigger models often shrink and that’s why they do not stick to the platform while printing. <br />
Additionally, it is better to choose low density of infill (medium or light) or, if low density is problematic, choose mesh option. For large prints with no precise details the optimum layer thickness is 0,19mm or 0,29mm. <br />
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'''PRINTING SMALL OBJECTS'''<br />
Very small objects require some additional options such as the appropriate FAN SPEED and LAYER THICKNESS.<br />
Set the lowest possible layer thickness and the additional FAN SPEED to 80-100%. <br />
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'''PRINTING MOVEBLE PARTS''' <br />
While printing movable parts, it is important to keep proper spaces between particular parts.<br />
The minimum space requirement is 0.4mm for these kinds of prints. <br />
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=='''MACHINE SETTINGS'''==<br />
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How to print step by step <br />
*1- Save your model on the Zortrax SD CARD<br />
*2- Insert the SD CARD on the machine<br />
*3- (Load the material – Use this option to change the material)<br />
*4- Select the model.<br />
*5- Print the model.<br />
*6- When it’s done, heat the platform.<br />
*7- Detach the model with the spatula.<br />
*8- Detach the raft by hand.<br />
*9- Use pliers and scalpel to remove the support structure from your model. <br />
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Models >Name of the model > Print<br />
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Maintenance > Heat the platform <br />
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Material > Load the material<br />
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==Maintenance==<br />
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*[https://support.zortrax.com/m200-maintenance-guide/ Maintenance Guide]<br />
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==Downloads==<br />
*[https://mettcom.com/mecanizados-precision mecanizado de precision]<br />
*[https://drive.google.com/open?id=1SuuijgHmuPoGpxzg-1sGc_XCI84PFc5T | 10 Basic Repair Functions]</div>Lanaaaaaa