Oct 27, 2018

How to cut 6mm plywood with your DIY 3D printer

Tech2C is cutting 6mm Plywood, to make a motor bracket,  with a Dremel style rotary tool attached to his HyperCube 3D Printer. It's a powerfull little mill that can be done on most DIY printers.


Sep 15, 2018

DIY PCB Milling on HyperCube 3D Printer




Using your 3D printer as small CNC mill for making PCB is a great extension for your machine. This video by Tech2C will show you how to use the HyperCube DIY 3D printer to make electronic boards with DIY mill attachment.

Tutorial on how to hide secrets inside .stl files by Angus



Angus from Maker's Muse shows how to hide a printable geometry or entire objects inside a .stl file.

When you need an extra pair of hands ...



Source:

https://www.youbionic.com/

Complex 3D Printed 5 Axis Rack System



Source: Henry Segerman

Aug 2, 2018

NASA 3D Printed Mars Habitat Competition Projects

NASA announced the projects to enter the third phase of their 3D printed Mars habitat competition. Here you can see some amazing technological concepts. Hopefully I'll see some of them being used on Mars sometime in the future.


Team Zopherus






AI SpaceFactory MARSHA






Kahn-Yates Construction






SEArch+/Apis Cor






Northwestern University





NASA page with more details:

https://www.nasa.gov/directorates/spacetech/centennial_challenges/3DPHab/five-teams-win-a-share-of-100000-in-virtual-modeling-stage

Dexter High Precision DIY Robot

Dexter is a high precision 3d printable robot that can be trained by the human operator.

Hackaday summary video:




Detailed videos showcasing the robot's features:




Hackaday project homepage:

https://hackaday.io/project/158779-dexter


Project description:

Dexter is an open source, 5+ axis robotic arm. It is built from 3D printed parts and held together with carbon fiber strakes for reinforcement. Dexter uses five NEMA-17 stepper motors with three harmonic drives in conjunction with optical encoders to get extreme precision, with a 2.5 micron stepping distance and 50 micron repeatablity. 
Dexter is also trainable, meaning that you can manually control it and have playback of the exact path it took. This makes it easily programmable for applications.
Dexter can also be controlled with our software, Dexter Development Environment (DDE). DDE utilizes a modified version of JavaScript that allows for a more traditional approach to programming while still being friendly to those who are newer to code. It also contains a simulator that will show playback of Dexter's movements using a pane in the development environment.
Dexter even has a Unity library that one of the members of the Dexter community put together, complete with haptic feedback. This could potentially be used for video games or even real world applications where a Dexter must be remotely controlled

Ivan takes his 3D printed tank for a ride

It's not a full sized tank, but still a great project :-)





Ivan has a great YT channel and documents his project build process in detailed way:

https://www.youtube.com/channel/UCF3cDM_hQMtIEJvEW1BZugg

Jun 9, 2018

Cytosurge Improve their FluidFM µ3Dprinter with Pinpoint Accuracy Tech

I wrote about Cytosurge technology before. They developed a 3D printer that can print metal on the micro-scale. A true technological wonder. Just imagine small robots floating in your bloodstream to repair your body or extremely complex and fine electronic parts like micro-antenna arrays. Star Trek stuff. This is a technology that makes a large step towards that future. 
The company has now improved their machine with ability to print directly and precisely on complex surfaces like existing electronic component boards or microchips. 































Tech description:

The new pinpoint metal additive manufacturing process is made possible by two high resolution state-of-the-art cameras integrated into the FluidFM µ3Dprinter. The cameras enable automated loading of the print tips (FluidFM iontips), printer setup, calibration and computer-assisted alignment to print on already existing structures as well as the visualization of the finished structures. The bottom view camera is mainly used for internal system processes, like controlling the automated gripping of the FluidFM iontip. The top view camera images the object or surface to print on. With the high-resolution live video, the exact position of the object or surface to be printed on can be manually chosen and set as starting point for the printing process.
This procedure allows the user to print metallic objects on contact pads that are pre-defined on the surface of an integrated circuit, on micro-electromechanical-systems (MEMS) or on other components.
This unique capability of the FluidFM μ3Dprinter to add 3D printed structures directly onto existing objects or surfaces with pinpoint accuracy opens the door to a new world of additive manufacturing of complex metal objects.


You can learn more about this amazing tech at: http://cytosurge.com/