Digital fabrication tools have revolutionized the way designers, engineers, and artisans express their creativity. With the right resources, you can learn to use these powerful instruments in no time! Whether it’s 3D printing or laser cutting that interests you, these articles will provide useful tutorials and inspiration for makers of all levels. Discover how digital fabrication can open up new possibilities so that your craftsmanship is truly extraordinary!
In this periodic series of “Letters,” Shawn Wallace, member of AS220, the Providence, RI community arts and technology space, shares his experiences with the Fab Academy, a distributed learning collaborative, built on the infrastructure of the Fab Lab network. — Gareth Interfacing microcontrollers and applications By Shawn Wallace The Fluxamaphonic, a physical interface to a […]
MakerBot has provided CupCake CNC chassis DXFs on Thingiverse and their own site for some time now, allowing you to cut out your own chassis if you have access to a laser cutter. You can even order the parts from Ponoko if you don’t. What I want to know is, what have people done with […]
So the bragging rights I mentioned in Monday’s post about the newly-discovered single shape that tiles the plane aperiodically go to mathematician and artist Edmund Harriss, aka Gelada, who produced these beautiful renderings of the Socolar-Taylor tile in Blender and uploaded printable 3D models to Thingiverse. There’s more info and images on Harriss’s blog, Maxwell’s Demon. [Thanks, Edmund!]
Mobile Manufacturing Unit — This corporate factory tours the country, setting up in cities for a few months at a time. As the population welcomes a new source of goods, jobs and manufacturing techniques, it is celebrated as an event. Self Replicating Street Stall — The street Genie can print any product you might think […]
Thingiverse user Webca’s Dremel attachment is output on a 3D printer in three parts and then screwed together. Plus, it’s strong enough to hold the actual Dremel instead of requiring the use of a flex-shaft.
The problem of tiling a plane has fascinated builders and mathematicians alike since time immemorial. At first glance, the task is straightforward: squares, triangles, hexagons all do the trick producing well known periodic structures. Ditto any number of irregular shapes and combinations of them.
A much trickier question is to ask which shapes can tile a plane in a pattern that does not repeat. In 1962, the mathematician Robert Berger discovered the first set of tiles that did the trick. This set consisted of 20,426 shapes: not an easy set to tile your bathroom with.
With a warm regard for home improvers, Berger later reduced the set to 104 shapes and others have since reduced the number further. Today, the most famous are the Penrose aperiodic tiles, discovered in the early 1970s, which can cover a plane using only two shapes: kites and darts.
The problem of finding a single tile that can do the job is called the einstein problem; nothing to do with the great man but from the German for one– “ein”–and for tile–“stein”. But the search for an einstein has proven fruitless. Until now.
Mark Fuller sent us this video demoing his 3D-printed, humane mousetrap. Love this simple gravity-powered design. Mark says he made the trap with the help of the rapid prototyping class at Pennsylvania College of Technology (www.pct.edu). The device was printed on the Dimension uPrint, in little a under six hours. Tilt-N-Trap (Mouse Trap) on Thingiverse […]
