makerspace.tulane.edu - User contributions [en]

LulzBot TAZ 5 Print Configurations

2015-10-08T18:23:56Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[LulzBot TAZ 5]]. For preparing any print for this printer, make sure that you select "Lulzbot Taz 5 (0.5 Nozzle)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[LulzBot TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

The recommended settings are below. Our printers are TAZ5 and the nozzle diameter is 0.50mm. These affect the recommended nozzle temperature, bed temperature, and slice thickness.

[[File:TAZ_settings.jpg|LulzBot TAZ 5 Print Configurations]]

[https://www.lulzbot.com/support/taz-cura-profiles Source page (LulzBot Support)]

LulzBot TAZ 5 Print Configurations

2015-10-08T18:23:41Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[LulzBot TAZ 5]]. For preparing any print for this printer, make sure that you select "Lulzbot Taz 5 (0.5 Nozzle)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[LulzBot TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

The recommended settings are below. Our printers are TAZ5 and the nozzle diameter is 0.50mm. These affect the recommended nozzle temperature, bed temperature, and slice thickness.

[[File:TAZ_settings.jpg|LulzBot TAZ 5 Print Configurations]]

[[https://www.lulzbot.com/support/taz-cura-profiles Source page (LulzBot Support)]]

LulzBot TAZ 5 Print Configurations

2015-10-08T18:22:17Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[LulzBot TAZ 5]]. For preparing any print for this printer, make sure that you select "Lulzbot Taz 5 (0.5 Nozzle)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[LulzBot TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

The recommended settings are below. Our printers are TAZ5 and the nozzle diameter is 0.50mm. These affect the recommended nozzle temperature, bed temperature, and slice thickness.

[[File:TAZ_settings.jpg|LulzBot TAZ 5 Print Configurations]]

[[https://www.lulzbot.com/support/taz-cura-profiles|Source]]

LulzBot TAZ 5 Print Configurations

2015-10-08T18:20:46Z

Clayton.ford:

LulzBot TAZ 5

2015-10-08T18:20:27Z

Clayton.ford: /* Recommended Print Configurations */

[[File:TAZ5.PNG|250px|thumb|right|Example Image of the Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster [[3d printing]], a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for [[PLA]] and [[ABS]] printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[LulzBot TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

AutoDesk Fusion 360

2015-09-30T03:43:59Z

Clayton.ford:

[[File:Fusion360Screenshot.PNG|250px|thumb|right|Example screenshot of a part designed in AutoDesk Fusion 360's modeling environment]]
Fusion 360 is an integrated 3d design, validation, and manufacturing package that provides 3d sketching and modeling along with assembly, finite-element analysis, animation, rendering, and [[CAM]] capabilities, all within a single environment. It is one of [http://www.autodesk.com/education/free-software/all many different software packages] created by AutoDesk for use in different design projects. Fusion 360 is a newer, cloud-based piece of software, that is being continuously updated with new functionality by AutoDesk. Fusion 360's 3d modeling capabilities are roughly on-par with those of [[Solidworks]], but also include functionality that Solidworks lacks, such as simultaneous part and assembly editing. Solidworks also lacks much of the functionality available in Fusion 360 beyond 3d part design, most notably [[CAM]].

==Availability==
AutoDesk Fusion 360 is free to use for all Tulane students, faculty, and staff. It requires an account and maintains all data on cloud storage.

To install Fusion 360 on your computer, simply download the free trial and register with your "@tulane.edu" email address.

Install Link: http://www.appstreaming.autodesk.com/install/app/73e72ada57b7480280f7a6f4a289729f/

==Getting Started==
The recommended method for learning Fusion 360 is to simply work through the Tutorials provided with the software.

==Other Resources==
http://www.autodesk.com/products/fusion-360/overview?src=OMSE&mktvar002=638405&gclid=CObY77i6sMUCFQkuaQodQ6QARQ

AutoDesk Fusion 360

2015-09-30T03:34:39Z

Clayton.ford:

[[File:Fusion360Screenshot.PNG|250px|thumb|right|Example screenshot of a part designed in AutoDesk Fusion 360's modeling environment]]
Fusion 360 is an integrated 3d design, validation, and manufacturing package that provides 3d sketching and modeling along with assembly, animation, rendering, and [[CAM]] capabilities. It is one of [http://www.autodesk.com/education/free-software/all many different software packages] created by AutoDesk for use in different design projects. Fusion 360 is a newer, cloud-based piece of software, that is being continuously updated with new functionality by AutoDesk. Fusion 360's 3d modeling capabilities are roughly on-par with those of [[Solidworks]].

==Availability==
AutoDesk Fusion 360 is free to use for all Tulane students, faculty, and staff. It requires an account and maintains all data on cloud storage.

To install Fusion 360 on your computer, simply download the free trial and register with your "@tulane.edu" email address.

Install Link: http://www.appstreaming.autodesk.com/install/app/73e72ada57b7480280f7a6f4a289729f/

==Getting Started==
The recommended method for learning Fusion 360 is to simply work through the Tutorials provided with the software.

==Other Resources==
http://www.autodesk.com/products/fusion-360/overview?src=OMSE&mktvar002=638405&gclid=CObY77i6sMUCFQkuaQodQ6QARQ

File:Fusion360Screenshot.PNG

2015-09-30T03:17:36Z

Clayton.ford: Clayton.ford uploaded a new version of File:Fusion360Screenshot.PNG

Screenshot of AutoDesk Fusion 360 modeling environment, with model of the Tulane "Angry Wave". Own work.

File:Fusion360Screenshot.PNG

2015-09-30T03:16:21Z

Clayton.ford: Screenshot of AutoDesk Fusion 360 modeling environment, with model of the Tulane "Angry Wave". Own work.

Screenshot of AutoDesk Fusion 360 modeling environment, with model of the Tulane "Angry Wave". Own work.

AutoDesk Fusion 360

2015-09-30T03:14:40Z

Clayton.ford:

[[File:Fusion360Screenshot.PNG|250px|thumb|right|Example screenshot of part designed in AutoDesk Fusion 360]]
Fusion 360 is a design package that provides 3d sketching and modeling along with assembly and animation options. It is part of a larger [http://www.autodesk.com/education/free-software/all package of programs] created by AutoDesk for use in different design projects.

==Availability==
AutoDesk Fusion 360 is free to use for all Tulane students, faculty, and staff. It requires an account and maintains all data on cloud storage.

To install Fusion 360 on your computer, simply download the free trial and register with your "@tulane.edu" email address.

Install Link: http://www.appstreaming.autodesk.com/install/app/73e72ada57b7480280f7a6f4a289729f/

==Getting Started==
The recommended method for learning Fusion 360 is to simply work through the Tutorials provided with the software.

==Other Resources==
http://www.autodesk.com/products/fusion-360/overview?src=OMSE&mktvar002=638405&gclid=CObY77i6sMUCFQkuaQodQ6QARQ

FlexyDually Extruder TAZ 5 Print Configurations

2015-09-30T02:58:27Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[FlexyDually Extruder TAZ 5]]. For preparing any print for this printer, make sure that you select "TAZ 5 (Flexydually V1)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[FlexyDually Extruder TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

==PLA with PVA Support Material==
===Cura Instructions===
*Select the "Expert" top drop-down menu, and click/make sure your current settings panel is "Switch to quickprint..."
*On the left, under "Material:" click the drop-down menu and select "PLA & PVA"
*Check the box for "Print support structure"
*Select the "Expert" top drop-down menu, and change your current settings panel to "Switch to full settings..."
*On the left, under "Speed and Temperature", change "Printing temperature (C)" to be 205, "2nd nozzle temperature (C)" to be 190, and "Bed temperature (C)" to 60
*Plate your print and export your [[g-code]]
===Settings Summary===
*Extruder 1 temperature: 205C
*Extruder 2 temperature: 190C
*Bed temperature: 60C
*Print speed: 30mm/s
*Support type: Everywhere
*Platform adhesion type: None
*Enabled wipe & prime tower and ooze shield

FlexyDually Extruder TAZ 5

2015-09-30T01:49:29Z

Clayton.ford:

[[File:LulzBot-FlexyDually-Mounted.JPG|250px|thumb|right|Example Image of FlexyDually Dual Extruder]]
The LulzBot TAZ 5 with the FlexyDually extruder has the advantage that it is able to print two filaments at once: one being a standard, hard plastic filament, for example [[ABS]] or [[PLA]], and the other a flexible filament, such as a dissolvable support material, like [[PVA]], or a rubber-like flexible material, like [[NinjaFlex]].

Printing with this printer should be considered more advanced, and for most prints, the additional features are likely unnecessary. Additional configuration is necessary in [[Cura]] in order to properly use this printer.

Note that [[g-code]] prepared for the single-extruder [[LulzBot TAZ 5]] will NOT behave the same on this printer. Prints will have to either be re-plated in [[Cura]] using the correct machine profile, or the [[g-code]] will have to be manually edited. Also note that the extruders on this printer have a maximum temperature of 240C, lower than the 300C maximum of the [[LulzBot TAZ 5]].

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Modified LulzBot TAZ 4 or 5" and click next.
*Select "PEI" and click next.
*Select "v1 (Budaschnozzle)" and click next.
*Select "FlexyDually v1" and click next.
*Click "Skip upgrade" and "Yes" on the warning that pops up.
*Click "Finish".

== Recommended Print Configurations ==
[[FlexyDually Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle (both extruders)
*240C maximum extruder temperature (both extruders)
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure is the same as on the [[Hexagon Extruder TAZ 5]], with the exception that the leveling pattern has to be run for both extruders, and that different g-code files are required.

*Extruder 1 leveling pattern [[g-code]]: [[file:FlexyDuallyE1BedLevel.gcode]]
*Extruder 2 leveling pattern [[g-code]]: [[file:FlexyDuallyE2BedLevel.gcode]]
== Miscellaneous Notes ==

LulzBot TAZ 5 Print Configurations

2015-09-30T01:43:05Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[LulzBot TAZ 5]]. For preparing any print for this printer, make sure that you select "Lulzbot Taz 5 (0.5 Nozzle)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[LulzBot TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

==PLA==
The stock preheat options availible on the printer work perfectly for PLA. No preparations need to be made to the PEI print bed for PLA to stick.

==ABS==

File:LulzBotCuraScreenshot.PNG

2015-09-30T01:39:01Z

Clayton.ford: Example of plated part in LulzBot Cura Version 17.10. Own Work.

Example of plated part in LulzBot Cura Version 17.10. Own Work.

Cura

2015-09-30T01:38:21Z

Clayton.ford:

[[File:LulzBotCuraScreenshot.PNG|250px|thumb|right|Example of a 3D print plated for the [[LulzBot TAZ 5]] in the LulzBot version of Cura]]
Cura is a [[slicing software]] that sets the options for a [[3d printer]] to follow and then creates detailed instructions for the printer by creating a [[g-code]] file. This file can be saved to an [[SD card]] and transferred to the printer.

Cura allows you to arrange, orient, and re-size your design file before printing. It also has option to automatically calculate things such as the top- and bottom-layer thickness and how much in-fill your printed object needs.

Note that Cura is not software that can be used to design a model, it is basically a program that takes a final design and translates it into the printer's language.

==Availability==
Cura is [[open source]] software. Anyone can download and install it for free on their personal computer. We recommend the version produced by Lulzbot, maker of the TAZ 3d printer. It works with both the TAZ 5's and our Ultimaker 2, and is available for Windows, Mac, and Linux.

Install Link: https://www.lulzbot.com/cura

==Getting Started==
For more information on Cura, please see this downloadable pdf from Lulzbot [http://devel.lulzbot.com/mini/software/cura/documentation/Manual.pdf]

For information regarding setting up Cura for each of the 3D printers in the MakerSpace, refer to the pages for each of the printers:
*[[Ultimaker 2]]
*[[LulzBot TAZ 5]]
*[[FlexyDually TAZ 5]]

==Other Resources==
https://ultimaker.com/en/support

Cura

2015-09-30T01:36:04Z

Clayton.ford:

[[File:LulzBotCuraScreenshot.JPG|250px|thumb|right|Example of a 3D print plated for the [[LulzBot TAZ 5]] in the LulzBot version of Cura]]
Cura is a [[slicing software]] that sets the options for a [[3d printer]] to follow and then creates detailed instructions for the printer by creating a [[g-code]] file. This file can be saved to an [[SD card]] and transferred to the printer.

Cura allows you to arrange, orient, and re-size your design file before printing. It also has option to automatically calculate things such as the top- and bottom-layer thickness and how much in-fill your printed object needs.

Note that Cura is not software that can be used to design a model, it is basically a program that takes a final design and translates it into the printer's language.

==Availability==
Cura is [[open source]] software. Anyone can download and install it for free on their personal computer. We recommend the version produced by Lulzbot, maker of the TAZ 3d printer. It works with both the TAZ 5's and our Ultimaker 2, and is available for Windows, Mac, and Linux.

Install Link: https://www.lulzbot.com/cura

==Getting Started==
For more information on Cura, please see this downloadable pdf from Lulzbot [http://devel.lulzbot.com/mini/software/cura/documentation/Manual.pdf]

For information regarding setting up Cura for each of the 3D printers in the MakerSpace, refer to the pages for each of the printers:
*[[Ultimaker 2]]
*[[LulzBot TAZ 5]]
*[[FlexyDually TAZ 5]]

==Other Resources==
https://ultimaker.com/en/support

3D Printing

2015-09-30T01:27:17Z

Clayton.ford:

[[File:3dprintexample.JPG|250px|thumb|right|Example of a 3D print on the [[LulzBot TAZ 5]], immediately after completion]]
3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a thin molten filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

While ABS and PLA are the most commonly used filaments, many other products exist with special qualities (flexible) or appearance (wood, ceramic). There is a good summary and comparison at [https://www.matterhackers.com/3d-printer-filament-compare MatterHackers]. MakerSpace users wishing to try out these filaments should procure them and work with a ninja to load them onto the printer.

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[LulzBot TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[LulzBot TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]

File:3dprintexample.JPG

2015-09-30T01:25:32Z

Clayton.ford: Example of a completed 3D print on the LulzBot TAZ 5, immediately after print completion, of the Tulane "Angry Wave". Own work.

Example of a completed 3D print on the LulzBot TAZ 5, immediately after print completion, of the Tulane "Angry Wave". Own work.

3D Printing

2015-09-30T01:23:01Z

Clayton.ford:

[[File:3dprintexample.JPG|250px|thumb|right|Example of a 3D print on the [[LulzBot TAZ 5]], immediately after completion]]
3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a very thin molten filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

While ABS and PLA are the most commonly used filaments, many other products exist with special qualities (flexible) or appearance (wood, ceramic). There is a good summary and comparison at [https://www.matterhackers.com/3d-printer-filament-compare MatterHackers]. MakerSpace users wishing to try out these filaments should procure them and work with a ninja to load them onto the printer.

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[LulzBot TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[LulzBot TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]

3D Printing

2015-09-30T01:18:49Z

Clayton.ford:

3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a very thin molten filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

While ABS and PLA are the most commonly used filaments, many other products exist with special qualities (flexible) or appearance (wood, ceramic). There is a good summary and comparison at [https://www.matterhackers.com/3d-printer-filament-compare MatterHackers]. MakerSpace users wishing to try out these filaments should procure them and work with a ninja to load them onto the printer.

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[LulzBot TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[LulzBot TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]

3D Printing

2015-09-30T01:18:20Z

Clayton.ford:

3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a very thin molten filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

While ABS and PLA are the most commonly used filaments, many other products exist with special qualities (flexible) or appearance (wood, ceramic). There is a good summary and comparison at [https://www.matterhackers.com/3d-printer-filament-compare MatterHackers] MakerSpace users wishing to try out these filaments should procure them and work with a ninja to load them onto the printer.

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[LulzBot TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[LulzBot TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]

3D Printing

2015-09-30T01:18:04Z

Clayton.ford:

3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a very thin molten filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

While ABS and PLA are the most commonly used filaments, many other products exist with special qualities (flexible) or appearance (wood, ceramic). There is a good summary and comparison at [https://www.matterhackers.com/3d-printer-filament-compare|MatterHackers] MakerSpace users wishing to try out these filaments should procure them and work with a ninja to load them onto the printer.

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[LulzBot TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[LulzBot TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]

FlexyDually Extruder TAZ 5 Print Configurations

2015-09-30T01:12:16Z

Clayton.ford:

FlexyDually Extruder TAZ 5 Print Configurations

2015-09-29T20:44:48Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[FlexyDually Extruder TAZ 5]]. For preparing any print for this printer, make sure that you select "TAZ 5 (Flexydually V1)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[FlexyDually Extruder TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

==PLA with PVA Support Material==
===Cura Instructions===
*Select the "Expert" top drop-down menu, and click/make sure your current settings panel is "Switch to quickprint..."
*On the left, under "Material:" click the drop-down menu and select "PLA & PVA"
*Check the box for "Print support structure"
*Select the "Expert" top drop-down menu, and change your current settings panel to "Switch to full settings..."
*On the left, under "Speed and Temperature", change "Print speed (mm/s)" to 50, "Printing temperature (C)" to be 200, "2nd nozzle temperature (C)" to be 180, and "Bed temperature (C)" to 60
*On the left, Under "Dual extrusion", uncheck "Wipe&prime tower" and "Ooze shield".
*Plate your print and export your [[g-code]]
===Settings Summary===
*Extruder 1 temperature: 200C
*Extruder 2 temperature: 180C
*Bed temperature: 60C
*Print speed: 50mm/s
*Support type: Everywhere
*Platform adhesion type: None

LulzBot TAZ 5

2015-09-29T20:32:24Z

Clayton.ford:

FlexyDually Extruder TAZ 5

2015-09-29T14:43:02Z

Clayton.ford:

[[File:LulzBot-FlexyDually-Mounted.JPG|250px|thumb|right|Example Image of FlexyDually Dual Extruder]]
The LulzBot TAZ 5 with the FlexyDually extruder has the advantage that it is able to print two filaments at once: one being a standard, hard plastic filament, for example [[ABS]] or [[PLA]], and the other a flexible filament, such as a dissolvable support material, like [[PVA]], or a rubber-like flexible material, like [[NinjaFlex]].

Printing with this printer should be considered more advanced, and for most prints, the additional features are likely unnecessary. Additional configuration is necessary in [[Cura]] in order to properly use this printer.

Note that [[g-code]] prepared for the [[Hexagon Extruder TAZ 5]] will NOT behave the same on this printer. Prints will have to either be re-plated in [[Cura]] using the correct machine profile, or the [[g-code]] will have to be manually edited. Also note that the extruders on this printer have a maximum temperature of 240C, lower than the 300C maximum of the [[Hexagon Extruder TAZ 5]].

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Modified LulzBot TAZ 4 or 5" and click next.
*Select "PEI" and click next.
*Select "v1 (Budaschnozzle)" and click next.
*Select "FlexyDually v1" and click next.
*Click "Skip upgrade" and "Yes" on the warning that pops up.
*Click "Finish".

== Recommended Print Configurations ==
[[FlexyDually Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle (both extruders)
*240C maximum extruder temperature (both extruders)
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure is the same as on the [[Hexagon Extruder TAZ 5]], with the exception that the leveling pattern has to be run for both extruders, and that different g-code files are required.

*Extruder 1 leveling pattern [[g-code]]: [[file:FlexyDuallyE1BedLevel.gcode]]
*Extruder 2 leveling pattern [[g-code]]: [[file:FlexyDuallyE2BedLevel.gcode]]
== Miscellaneous Notes ==

FlexyDually Extruder TAZ 5

2015-09-29T14:42:40Z

Clayton.ford:

[[File:LulzBot-FlexyDually-Mounted.JPG|250px|thumb|right|Example Image of FlexyDually Dual Extruder]]
The LulzBot TAZ 5 with the FlexyDually extruder has the advantage that it is able to print two filaments at once: one being a standard, hard plastic filament, for example [[ABS]] or [[PLA]], and the other a flexible filament, such as a dissolvable support material, like [[PVA]], or a rubber-like flexible material, like [[NinjaFlex]].

Printing with this printer should be considered more advanced, and for most prints, the additional features are likely unnecessary. Additional configuration is necessary in [[Cura]] in order to properly use this printer.

Note that [[g-code]] prepared for the [[Hexagon Extruder TAZ 5]] will NOT behave the same on this printer. Prints will have to either be re-plated in [[Cura]] using the correct machine profile, or the [[g-code]] will have to be manually edited. Also note that the extruders on this printer have a maximum temperature of 240C, lower than the 300C maximum of the [[Hexagon Extruder TAZ 5]].

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Modified LulzBot TAZ 4 or 5" and click next.
*Select "PEI" and click next.
*Select "v1 (Budaschnozzle)" and click next.
*Select "FlexyDually v1" and click next.
*Click "Skip upgrade" and "Yes" on the warning that pops up.
*Click "Finish".

== Recommended Print Configurations ==
[[FlexyDually Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle (both extruders)
*240C maximum extruder temperature (both extruders)
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure is the same as on the [[Hexagon Extruder TAZ 5]], with the exception that the leveling pattern has to be run for both extruders, and that different g-code files are required.

*Extruder 1 leveling pattern [[g-code]]: [[FlexyDuallyE1BedLevel.gcode]]
*Extruder 2 leveling pattern [[g-code]]: [[FlexyDuallyE2BedLevel.gcode]]
== Miscellaneous Notes ==

FlexyDually Extruder TAZ 5

2015-09-29T14:42:24Z

Clayton.ford:

[[File:LulzBot-FlexyDually-Mounted.JPG|250px|thumb|right|Example Image of FlexyDually Dual Extruder]]
The LulzBot TAZ 5 with the FlexyDually extruder has the advantage that it is able to print two filaments at once: one being a standard, hard plastic filament, for example [[ABS]] or [[PLA]], and the other a flexible filament, such as a dissolvable support material, like [[PVA]], or a rubber-like flexible material, like [[NinjaFlex]].

Printing with this printer should be considered more advanced, and for most prints, the additional features are likely unnecessary. Additional configuration is necessary in [[Cura]] in order to properly use this printer.

Note that [[g-code]] prepared for the [[Hexagon Extruder TAZ 5]] will NOT behave the same on this printer. Prints will have to either be re-plated in [[Cura]] using the correct machine profile, or the [[g-code]] will have to be manually edited. Also note that the extruders on this printer have a maximum temperature of 240C, lower than the 300C maximum of the [[Hexagon Extruder TAZ 5]].

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Modified LulzBot TAZ 4 or 5" and click next.
*Select "PEI" and click next.
*Select "v1 (Budaschnozzle)" and click next.
*Select "FlexyDually v1" and click next.
*Click "Skip upgrade" and "Yes" on the warning that pops up.
*Click "Finish".

== Recommended Print Configurations ==
[[FlexyDually Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle (both extruders)
*240C maximum extruder temperature (both extruders)
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure is the same as on the [[Hexagon Extruder TAZ 5]], with the exception that the leveling pattern has to be run for both extruders, and that different g-code files are required.

*Extruder 1 leveling pattern [[g-code]]: [FlexyDuallyE1BedLevel.gcode]
*Extruder 2 leveling pattern [[g-code]]: [FlexyDuallyE2BedLevel.gcode]
== Miscellaneous Notes ==

LulzBot TAZ 5

2015-09-29T14:39:45Z

Clayton.ford:

[[File:TAZ5.PNG|250px|thumb|right|Example Image of the Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster [[3d printing]], a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for [[PLA]] and [[ABS]] printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Hexagon Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

Ultimaker 2 Print Configurations

2015-09-29T14:37:38Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[Ultimaker 2]]. For preparing any print for this printer, make sure that you select "Ultimaker2" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[Ultimaker 2#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

==PLA==
The default PLA material settings work, with one modification: after selecting the loaded material, go to the "Material" settings page, and then "Customize", and change the filament diameter setting to 3mm.

Apply glue stick to the print bed to facilitate PLA bed adhesion.

==ABS==
Because of contraction due to cooling, ABS tends to lift away from the glass build plate. This is worse for square corners; round objects rarely lift. In Cura, specify a ''raft'' around your object. This way, the raft will (possibly) lift but your object may stay flat. When the build-plate is still cool, paint a thin layer of ABS paint (glass jar) onto the clean glass build plate. The dried ABS paint will further anchor your object to the build plate. Recommended settings are ......

==HIPS==

LulzBot TAZ 5 Print Configurations

2015-09-29T14:33:38Z

Clayton.ford:

LulzBot TAZ 5 Print Configurations

2015-09-29T14:33:20Z

Clayton.ford:

LulzBot TAZ 5 Print Configurations

2015-09-29T14:33:02Z

Clayton.ford: Created page with "This page contains 3d printing configuration information specific to the Hexagon Extruder TAZ 5. For preparing any print for this printer, make sure that you select "L..."

This page contains [[3d printing]] configuration information specific to the [[Hexagon Extruder TAZ 5]]. For preparing any print for this printer, make sure that you select "Lulzbot Taz 5 (0.5 Nozzle)" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[Hexagon Extruder TAZ 5#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

==PLA==

==ABS==

==HIPS==

Hexagon Extruder TAZ 5 Print Configurations

2015-09-29T14:32:56Z

Clayton.ford: Redirected page to LulzBot TAZ 5 Print Configurations

#REDIRECT [[LulzBot TAZ 5 Print Configurations]]

3D Printing

2015-09-29T14:32:07Z

Clayton.ford:

3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[LulzBot TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[LulzBot TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]

LulzBot TAZ 5

2015-09-29T14:31:14Z

Clayton.ford: Created page with "Example Image of the Lulzbot TAZ 5 The LulzBot TAZ 5 has a number of advantages over the Ultimaker 2. These include a larger extruder n..."

[[File:TAZ5.PNG|250px|thumb|right|Example Image of the Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster [[3d printing]], a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for PLA and ABS printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Hexagon Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

Hexagon Extruder TAZ 5

2015-09-29T14:31:07Z

Clayton.ford: Redirected page to LulzBot TAZ 5

#REDIRECT [[LulzBot TAZ 5]]

Hexagon Extruder TAZ 5 Print Configurations

2015-09-29T14:30:06Z

Hexagon Extruder TAZ 5

2015-09-29T14:27:44Z

Clayton.ford:

[[File:TAZ5.PNG|250px|thumb|right|Example Image of the Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster [[3d printing]], a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for PLA and ABS printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Hexagon Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

Hexagon Extruder TAZ 5

2015-09-29T14:27:11Z

Clayton.ford:

[[File:TAZ5.PNG|250px|thumb|right|Example Image of the Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster printing, a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for PLA and ABS printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Hexagon Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

Hexagon Extruder TAZ 5

2015-09-29T14:26:55Z

Clayton.ford:

[[File:TAZ5.PNG|250px|thumb|right|Example Image of Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster printing, a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for PLA and ABS printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Hexagon Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

File:TAZ5.PNG

2015-09-29T14:26:07Z

Clayton.ford: Lulzbot TAZ 5 image from https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer

Lulzbot TAZ 5 image from https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer

Hexagon Extruder TAZ 5

2015-09-29T14:24:40Z

Clayton.ford: Created page with "Example Image of Lulzbot TAZ 5 The LulzBot TAZ 5 has a number of advantages over the Ultimaker 2. These include a larger extruder nozzl..."

[[File:TAZ5.JPG|250px|thumb|right|Example Image of Lulzbot TAZ 5]]
The LulzBot TAZ 5 has a number of advantages over the [[Ultimaker 2]]. These include a larger extruder nozzle, allowing for faster printing, a larger build volume, an extruder with the ability to use a wide range of filaments, and generally better print quality and a more robust design. The PEI print surface makes bed preparations, such as glue stick, unnecessary for PLA and ABS printing.

== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "LulzBot TAZ 4 or 5" and click next.
*Select "Stock TAZ 5 (PEI & v2)" and click next.
*Select "0.5 mm" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Hexagon Extruder TAZ 5 Print Configurations]]

== Technical Details ==
*0.5mm nozzle
*300C maximum extruder temperature
*120C maximum bed temperature
*PEI print bed
*Print Area: 298mm x 275mm x 250mm
*Top Print Speed: 200mm/sec

== Bed Leveling ==
The bed leveling procedure...
== Miscellaneous Notes ==

Ultimaker 2 Print Configurations

2015-09-29T14:11:51Z

Clayton.ford:

This page contains [[3d printing]] configuration information specific to the [[Ultimaker 2]]. For preparing any print for this printer, make sure that you select "Ultimaker2" under "Machine" in [[Cura]]. If that option is not present, you may need to follow the [[Ultimaker 2#Cura Configuration|Cura configuration instructions]] for this printer, or may need to install the latest LulzBot version of [[Cura]].

==PLA==

==ABS==
Because of contraction due to cooling, ABS tends to lift away from the glass build plate. This is worse for square corners; round objects rarely lift. In Cura, specify a ''raft'' around your object. This way, the raft will (possibly) lift but your object may stay flat. When the build-plate is still cool, paint a thin layer of ABS paint (glass jar) onto the clean glass build plate. The dried ABS paint will further anchor your object to the build plate. Recommended settings are ......

==HIPS==

3d printer

2015-09-29T14:08:23Z

Clayton.ford: Redirected page to 3D Printing

#REDIRECT [[3D Printing]]

Cura

2015-09-29T14:08:06Z

Clayton.ford:

Cura is a [[slicing software]] that sets the options for a [[3d printer]] to follow and then creates detailed instructions for the printer by creating a [[g-code]] file. This file can be saved to an [[SD card]] and transferred to the printer.

Cura allows you to arrange, orient, and re-size your design file before printing. It also has option to automatically calculate things such as the top- and bottom-layer thickness and how much in-fill your printed object needs.

Note that Cura is not software that can be used to design a model, it is basically a program that takes a final design and translates it into the printer's language.

==Availability==
Cura is [[open source]] software. Anyone can download and install it for free on their personal computer. We recommend the version distributed by Lulzbot, maker of the Taz 3-d printer. It works with both the Taz and our Ultimaker 2, and is available in Windows, Mac, and Linux.

Install Link: https://www.lulzbot.com/cura

==Getting Started==
For more information on Cura, please see this downloadable pdf from Lulzbot [http://devel.lulzbot.com/mini/software/cura/documentation/Manual.pdf]

==Other Resources==
https://ultimaker.com/en/support

Ultimaker 2

2015-09-29T14:04:31Z

Clayton.ford:

[[File:Ultimaker2.JPG|250px|thumb|right|Example Image of an Ultimaker 2]]
The Ultimaker 2 is the simplest of the [[3d printers]] in the MakerSpace, and so is likely the easiest for beginners to 3d printing to get started with.
== Cura Configuration ==
Open the LulzBot version of [[Cura]] and follow the following steps:

*Click the "Machine" drop-down menu and select "Add New Machine".
*Select "Other Printers" and click next.
*Select "Ultimaker 2" and click next.
*Click "Finish".

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]

== Technical Details ==
*0.4mm nozzle
*260C maximum extruder temperature
*100C maximum bed temperature
*Glass print bed
*Print Area: 223 x 223 x 205 mm
*Top Print Speed: 300mm/sec

== Bed Leveling ==
The bed leveling procedure is a menu option on the Ultimaker 2. Select it and follow the on-screen instructions in order to level the bed.
== Miscellaneous Notes ==

File:Ultimaker2.JPG

2015-09-29T14:03:24Z

Clayton.ford: Ultimaker 2 stock image from https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2

Ultimaker 2 stock image from https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2

Laser cutting

2015-09-29T14:00:20Z

Clayton.ford: Redirected page to Laser Cutting

#REDIRECT [[Laser Cutting]]

3D Printing

2015-09-29T13:58:45Z

Clayton.ford:

3D printing is a modern rapid prototyping technique in which a solid object is created through a layered deposition process. 3D printing is referred to as an "additive manufacturing" technique, as instead of taking material away from a stock piece in order to create a desired object, such as in milling or turning manufacturing techniques, the material for the object is added by the printing process. 3D printing techniques make it very simple to quickly create both complex and simple objects.

The 3D printers available in the MakerSpace are all Fused Filament Fabrication (FFF) printers, meaning that to create the desired part, molten polymer (melted plastic) is "extruded" into a filament, which is deposited in the desired shape. The hot plastic fuses with previously deposited layers, creating the desired part. Due to the nature of molten plastic, FFF 3d printed parts have a degree of "slop" that is difficult to eliminate, so a different manufacturing technique, such as [[laser cutting]] or [[CNC milling]], is likely necessary for parts that require very high degrees of accuracy.

The Tulane MakerSpace contains [https://ultimaker.com/en/products/ultimaker-2-family/ultimaker-2 Ultimaker 2] and [https://www.lulzbot.com/products/lulzbot-taz-5-3d-printer LulzBot TAZ 5] 3d printers with heated beds to allow for both [[ABS]] and [[PLA]] printer [[filament]]. ABS filament allows for better finishing effects (such as [[smoothing]]), but PLA provides a more rigid part and has has much better adherence to the print bed. There are other advantages and disadvantages to both. Cost is the same (currently ~$18 per kg).

The standard [[slicing software]] favored for these printers is [[Cura]], which allows you to arrange and size your model and set options for the printer to follow. The LulzBot version of Cura is recommended, as it contains more features, and works with both the TAZ 5's and the Ultimaker 2: https://www.lulzbot.com/cura

== Available 3D Printers ==
[[Ultimaker 2]]
 
[[Hexagon Extruder TAZ 5]]
 
[[FlexyDually Extruder TAZ 5]]

== Recommended Print Configurations ==
[[Ultimaker 2 Print Configurations]]
 
[[Hexagon Extruder TAZ 5 Print Configurations]]
 
[[FlexyDually Extruder TAZ 5 Print Configurations]]