View allAll Photos Tagged CreativeTools
The MakerBot Digitizer 3D-scanned Laser Cat model was used in this test of different layer thicknesses. The cat was scaled down to 50 mm in height and then 3D printed at the following layer heights:
- 0.40 mm (400 microns)
- 0.30 mm (300 microns)
- 0.20 mm (200 microns)
- 0.10 mm (100 microns) - Average width of a strand of human hair
- 0.05 mm (50 microns)
- 0.02 mm (20 microns)
All six cats where 3D printed on a MakerBot Replicator 2 with TRUE BLUE PLA plastic at 230 degrees C.
All layers where 3D printed with MakerWare's standard values as follows:
(400 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(300 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(200 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(100 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(50 microns) - 15% infill - perimeters 2 - speed 60 mm/s
(20 microns) - 15% infill - perimeters 2 - speed 40 mm/s
---
The 3D scanner: bit.ly/1a7y8hG
The 3D printer: makerbot.creativetools.se
The 3D model: www.thingiverse.com/thing:146265
The MakerBot Digitizer 3D-scanned Laser Cat model was used in this test of different layer thicknesses. The cat was scaled down to 50 mm in height and then 3D printed at the following layer heights:
- 0.40 mm (400 microns)
- 0.30 mm (300 microns)
- 0.20 mm (200 microns)
- 0.10 mm (100 microns) - Average width of a strand of human hair
- 0.05 mm (50 microns)
- 0.02 mm (20 microns)
All six cats where 3D printed on a MakerBot Replicator 2 with TRUE BLUE PLA plastic at 230 degrees C.
All layers where 3D printed with MakerWare's standard values as follows:
(400 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(300 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(200 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(100 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(50 microns) - 15% infill - perimeters 2 - speed 60 mm/s
(20 microns) - 15% infill - perimeters 2 - speed 40 mm/s
---
The 3D scanner: bit.ly/1a7y8hG
The 3D printer: makerbot.creativetools.se
The 3D model: www.thingiverse.com/thing:146265
This handle makes it easy to reach deeply into the 3D printer while calibrating and levelling the build platform. It is designed to hold a standard Post-it sticky paper on it's tip.
In most cases the optimal gap between a 3D printer's platform and the extruder's hot-end tip, is 0,1 mm. A common practice is to use a simple sheet of paper and place it on top of the build platform just under the extruder's tip.
The platform is then adjusted to only just let the paper slide freely. The adjustment must be made on all corners and the centre of the build plate until it is perfectly level.
• Download the STL file
• 3D-print it
• Grab a Post-it sticky of your preferred colour
• Stick it on the flat front end of the 3D-printed handle
• Set-up you 3D-printer for levelling the platform
• Place the paper between the the platform and the extruder tip
• Adjust the build plate's screws and move the handle slightly to make the paper slide under the extruder tip
• When you feel a slight friction stop adjusting the screw
• Repeat this process on all corners and centre of the platform until you can feel the same friction on all spots
Make sure that you only use one sheet of Post-it paper and if unsure control-measure it with a calliper to verify 0.1 mm thickness.
After calibrating your Replicator's platform it should remain level for a long time. Until you need to calibrate it next time you can use this Post-it handle for other purposes as follows:
• A very gentle fly-swat (PETA-certified ;)
• A small sign holder you can use to communicate short messages to your office mates
You can download the 3D file for this handle from:
www.thingiverse.com/thing:69656
It was printed on a makerbot.creativetools.se
Toy crossbow replacement sight for popular suction cup arrow toy crossbow.
This is a spare part for a popular toy crossbow where the front sight often get lost. The model is easily 3D-printable with built-in break-away support structures.
It should fit most variations of this toy weapon. The source CAD file is also provided so that changes can easily be made.
• Download the STL file
• 3D print it
• Remove the support structure with wire cutters or a sharp knife. (don't cut yourself!)
• Place it on the front of your crossbow
• Start shooting strait :)
Download the 3D file from: www.thingiverse.com/thing:71846
3D-printed on a makerbot.creativetools.se
This handle makes it easy to reach deeply into the 3D printer while calibrating and levelling the build platform. It is designed to hold a standard Post-it sticky paper on it's tip.
In most cases the optimal gap between a 3D printer's platform and the extruder's hot-end tip, is 0,1 mm. A common practice is to use a simple sheet of paper and place it on top of the build platform just under the extruder's tip.
The platform is then adjusted to only just let the paper slide freely. The adjustment must be made on all corners and the centre of the build plate until it is perfectly level.
• Download the STL file
• 3D-print it
• Grab a Post-it sticky of your preferred colour
• Stick it on the flat front end of the 3D-printed handle
• Set-up you 3D-printer for levelling the platform
• Place the paper between the the platform and the extruder tip
• Adjust the build plate's screws and move the handle slightly to make the paper slide under the extruder tip
• When you feel a slight friction stop adjusting the screw
• Repeat this process on all corners and centre of the platform until you can feel the same friction on all spots
Make sure that you only use one sheet of Post-it paper and if unsure control-measure it with a calliper to verify 0.1 mm thickness.
After calibrating your Replicator's platform it should remain level for a long time. Until you need to calibrate it next time you can use this Post-it handle for other purposes as follows:
• A very gentle fly-swat (PETA-certified ;)
• A small sign holder you can use to communicate short messages to your office mates
You can download the 3D file for this handle from:
www.thingiverse.com/thing:69656
It was printed on a makerbot.creativetools.se
SVENSKA:
Den personliga fabbster 3D-skrivare från Sintermask.
Läs mer på: fabbster.creativetools.se
ENGLISH:
The personal 3D printer fabbster from Sintermask
The Wanhao Duplicator 5S Desktop 3D Printer. A large format high quality FFF (Fused Filament Fabrication) type 3D printer.
Get your thimble 3D model here:
The sturdy Flashforge Dreamer FFF type 3D printer with dual print heads.
For more information please visit flashforge.creativetools.se
This handle makes it easy to reach deeply into the 3D printer while calibrating and levelling the build platform. It is designed to hold a standard Post-it sticky paper on it's tip.
In most cases the optimal gap between a 3D printer's platform and the extruder's hot-end tip, is 0,1 mm. A common practice is to use a simple sheet of paper and place it on top of the build platform just under the extruder's tip.
The platform is then adjusted to only just let the paper slide freely. The adjustment must be made on all corners and the centre of the build plate until it is perfectly level.
• Download the STL file
• 3D-print it
• Grab a Post-it sticky of your preferred colour
• Stick it on the flat front end of the 3D-printed handle
• Set-up you 3D-printer for levelling the platform
• Place the paper between the the platform and the extruder tip
• Adjust the build plate's screws and move the handle slightly to make the paper slide under the extruder tip
• When you feel a slight friction stop adjusting the screw
• Repeat this process on all corners and centre of the platform until you can feel the same friction on all spots
Make sure that you only use one sheet of Post-it paper and if unsure control-measure it with a calliper to verify 0.1 mm thickness.
After calibrating your Replicator's platform it should remain level for a long time. Until you need to calibrate it next time you can use this Post-it handle for other purposes as follows:
• A very gentle fly-swat (PETA-certified ;)
• A small sign holder you can use to communicate short messages to your office mates
You can download the 3D file for this handle from:
www.thingiverse.com/thing:69656
It was printed on a makerbot.creativetools.se
English
Image of a heart-shaped chocolate box taken with a PackshotCreator photo studio by Creative Tools AB.
Swedish
Produktbild av hjärtformad chokladask tagen med en PackshotCreator fotostudio av Creative Tools AB.
English
Image of minature snowmen taken with a PackshotCreator photo studio by Creative Tools AB.
Swedish
Produktbild av små snögubbar tagen med en PackshotCreator fotostudio av Creative Tools AB.
A comparison of four different common 3D-print layer heights.
• 0.34 mm/layer - Low (340 microns)
• 0.27 mm/layer - Medium (270 microns)
• 0.1 mm/layer - High (100 microns)
• 0.05 mm/layer - Super fine (50 microns)
These models where 3D printed with blue 1.75 mm PLA plastic filament on a MakerBot Replicator 2 3D printer.
The sample 3D model for this print is MorenaP's popular tree frog: www.thingiverse.com/derivative:34468
3D-printer: makerbot.creativetools.se
Laser-cut plate: www.thingiverse.com/thing:69351
The MakerBot Digitizer 3D-scanned Laser Cat model was used in this test of different layer thicknesses. The cat was scaled down to 50 mm in height and then 3D printed at the following layer heights:
- 0.40 mm (400 microns)
- 0.30 mm (300 microns)
- 0.20 mm (200 microns)
- 0.10 mm (100 microns) - Average width of a strand of human hair
- 0.05 mm (50 microns)
- 0.02 mm (20 microns)
All six cats where 3D printed on a MakerBot Replicator 2 with TRUE BLUE PLA plastic at 230 degrees C.
All layers where 3D printed with MakerWare's standard values as follows:
(400 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(300 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(200 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(100 microns) - 15% infill - perimeters 2 - speed 90 mm/s
(50 microns) - 15% infill - perimeters 2 - speed 60 mm/s
(20 microns) - 15% infill - perimeters 2 - speed 40 mm/s
---
The 3D scanner: bit.ly/1a7y8hG
The 3D printer: makerbot.creativetools.se
The 3D model: www.thingiverse.com/thing:146265
This handle makes it easy to reach deeply into the 3D printer while calibrating and levelling the build platform. It is designed to hold a standard Post-it sticky paper on it's tip.
In most cases the optimal gap between a 3D printer's platform and the extruder's hot-end tip, is 0,1 mm. A common practice is to use a simple sheet of paper and place it on top of the build platform just under the extruder's tip.
The platform is then adjusted to only just let the paper slide freely. The adjustment must be made on all corners and the centre of the build plate until it is perfectly level.
• Download the STL file
• 3D-print it
• Grab a Post-it sticky of your preferred colour
• Stick it on the flat front end of the 3D-printed handle
• Set-up you 3D-printer for levelling the platform
• Place the paper between the the platform and the extruder tip
• Adjust the build plate's screws and move the handle slightly to make the paper slide under the extruder tip
• When you feel a slight friction stop adjusting the screw
• Repeat this process on all corners and centre of the platform until you can feel the same friction on all spots
Make sure that you only use one sheet of Post-it paper and if unsure control-measure it with a calliper to verify 0.1 mm thickness.
After calibrating your Replicator's platform it should remain level for a long time. Until you need to calibrate it next time you can use this Post-it handle for other purposes as follows:
• A very gentle fly-swat (PETA-certified ;)
• A small sign holder you can use to communicate short messages to your office mates
You can download the 3D file for this handle from:
www.thingiverse.com/thing:69656
It was printed on a makerbot.creativetools.se
A 3D printed handle for securing a needle or thin wire while unclogging a jammed printhead nozzle.
The 3D printer: makerbot.creativetools.se
The 3D file: www.thingiverse.com/thing:99969
This video shows the bee of the BEEVERYCREATIVE logotype 3D-printed as several individual parts in four different colours. These where then assembled together.
For the majority of commonly 3D printed items this has the following advantages compared to dual and triple-nozzle 3D printers.
- The results yield better quality
- No oozing and colour-smearing problems
- One can use unlimited number of colours (not only two or three)
- A single-nozzle 3D printer always uses the full range of the maximum build volume
- An interrupted 3D print only affects a small portion of the total print time
- No considerable extra 3D modelling overtime needed since multi-nozzle 3D prints also require individual STL files for each colour
For more information on this 3D print and the BEETHEFIRST 3D printer, visit beeverycreative.creativetools.se and youtu.be/vKgeOvcRBpc
The 3D model of this bee was made into several parts in Rhino 3D for Mac OS X. Each part was saved to an STL file and 3D printed a different colour. The where designed to snap-fit to each other.
The jolly music for this video borrowed from:
SVENSKA
Dessa bilder visar hur ett plastmynt med vår logotyp skapades med hjälp av en ZPrinter 3D-skrivare från Z Corporation. Först skapades myntet och gjutformen i Rhino 3D. Därefter printade 3D-printern en gjutform i gips som härdades med Epoxylim. Efter det kunde flera mynt i plast formsprutas i den 3D-utskrivna formen!
ENGLISH
These images show how a plastic coin with our logo was made with the help of a ZPrinter 3D-printer form Z Corporation. First the model and the mold was made in Rhino 3D. Then we 3D-printed the mold with our ZPrinter 650 and hardened it with Epoxy. After that we could produce several plastic coins with our desktop injection molding machine.
English
3D model of a window bracket 3D printed on a ZPrinter. Image is taken with a PackshotCreator photo studio by Creative Tools AB.
Swedish
3D-modell av et fönsterbeslag 3D-utskrivet på en ZPrinter. Bilden är fotograferad med en PackshotCreator fotostudio av Creative Tools AB.
English
3D model of a red Utah teapot 3D printed on a ZPrinter. Image is taken with a PackshotCreator photo studio by Creative Tools AB.
Download the 3D model from:
www.thingiverse.com/thing:5346
Swedish
3D-modell av en röd Utah-tekanna 3D-utskriven på en ZPrinter. Bilden är fotograferad med en PackshotCreator fotostudio av Creative Tools AB.
Whatch the video on Youtube:
The 3D printer: makerbot.creativetools.se
Original 3D model: www.thingiverse.com/thing:9456
Derived 3D model: www.thingiverse.com/thing:147050
English
3D model of a monster 3D printed on a ZPrinter. Image is taken with a PackshotCreator photo studio by Creative Tools AB.
Swedish
3D-modell av ett monster utskriven på en ZPrinter. Bilden är fotograferad med en PackshotCreator fotostudio av Creative Tools AB.
ENGLISH
These images show the unboxing and setup of the MakerBot Replicator 2 personal 3D printer.
SVENSKA
Dessa bilder visar uppackningen och igångsättning av MakerBot Replicator 3D-skrivare.
English
3D model of a Christmas tree 3D printed on a ZPrinter. Image is taken with a PackshotCreator photo studio by Creative Tools AB.
Download the 3D model from:
www.thingiverse.com/thing:5341
Swedish
3D-modell av en Julgran 3D-utskriven på en ZPrinter. Bilden är fotograferad med en PackshotCreator fotostudio av Creative Tools AB.
Whatch the video on Youtube:
The sturdy Flashforge Guider FFF type 3D printer, large build volume (250 x 250 x 250 mm) single PLA extruder. The 3.5" LCD screen makes you its master. Connect it using USB cable, Wi-Fi and USB memory stick. See more on
Miniature model of a 3D printed gnome and MakerBot Digitizer desktop 3D scanner.
The model was 3D printed on a MakerBot Replicator 2 desktop 3D printer with PLA plastic filament.
This 3D-file is the result of a project in which a 1000-year-old Viking belt buckle was laser scanned and 3D printed to achieve a copy of the unique archaeological artifact.
You can read the full article about this project via the URL below.
www.creativetools.se/3d-utskrifter-3d-skrivare/11182-3d-s...
Feel free to share this 3D object and the contents of the article under the Creative Commons Attribution-Share Alike 3.0 Unported license.