For 8 years now South Korea is the number 1 of the OECD nations – concerning the suicide rate. Alone 1090 suicides were committed by jumping off the Mapo Bridge in Seoul.
The company Cheil wanted to put a stop to all those deaths and came up with a concept: “Our idea was to light up the railing by installing lights that react to a persons movement.” Using LED lights and ultrasonic sensors messages like “Where have you been?” or “What is troubling you?” as well as pictures of happy people appear and follow the person along his or her way on the bridge, keeping company – and as it seems also effectively keeping people from jumping off the bridge. After the opening of the installation in September 2012 the average suicide rate fell by 77%.
The Bridge of Death has become the Bridge of Life.
Ever needed to print out that one document very urgently but a printer was nowhere near to be seen? No more hectically running around to find the closest copy shop because here it is: a tiny mobile print robot! Yay! Finally.
Unsurprisingly it is not (yet) as fast as your average giant home printer and the resolution of 96 x 192 dpi has still room for improvement but this is a promising start.
To use it, you simply place it on a sheet of paper with the tip pointing at the spot where it should start the printing process. It will then roll over the paper by the help of a wheel system.
Even without mobile use I’d be happy to call that little printer my own – who wants those big and ugly printers anymore, filling up our rooms, constantly getting clogged with dust far too quickly and going haywire way too soon and too often? And those cables!
“Make everyone an inventor” was littleBits mission, when they started their project in 2011. For far too long have only large companies, programmers and engineers been able to use technology in a creative way and whereas 3D printing and software development have made a big step forward in the last years, tools to build complex electronics weren’t as quick to come by. For two years littleBits worked on their attempt to “democratize electronics” and enable makers, artists, students and designers to build their own gadgets easily.
So far they have developed several, colorful modular kits to tinker with; let yourself get inspired by the project ideas on their website. They created for example the Synth Kit, an analog synthesizer with different modules that you can simply stick together like Legos.
This week they announced the release of the Cloud Module for later this year which will be, as they say, “the easiest and fastest way to create internet-connected devices” and also to connect them amongst each other (keyword here is of course the Internet of Things) without any soldering or programming. Sounds yummi, right?
Our Fab-Run 100 just came back from our Berlin based manufacturer. It looks so awesome that we are really tempted to keep all the great PCBs for ourselves. Sorry guys, we can’t send them out and all of you will get refunded
No, as scheduled, we will send your orders out, tomorrow. If you have any feedback, please let us know. Thank you for flying with Fritzing Fab and we hope to see you soon back on Fritzing Fab!
I’ve been lead programmer for the Fritzing application for 5 1/2 years and sole programmer for most of the last four. In that time I’ve closed more than a thousand issues; composed a couple thousand forum replies; pushed nearly 5000 commits; and cranked out more than 50 releases.
One can only run full-tilt for so long; it’s time for me to take a sabbatical. Before I go, I’d like to thank Reto and André for originating the project; Reto (and the government of Brandenburg) for the grants that gave the project such a strong start; and my past and present colleagues for putting so much of themselves into the work–the list is too long to display them all.
Finally, I’d like to thank the everyone in the Fritzing community for your enthusiastic (and early) adoption of our continual work-in-progress, and for your great patience with what has effectively been a distributed QA software releasing methodology. If I could, I’d buy you all a beer.
We just released Fritzing 0.8.6. Aside from some bug fixes and a few new features, it mostly addresses schematic view. To display the changes, here are two images of the stepper motor example. The first is from 0.8.5 and the second is from 0.8.6. They are both zoomed to 100%.
The most obvious change is that the grid size has gone from 7.5 mm to 0.1 inches. This will save some trees when you print. It also means we are using the same grid across all three views. But more important than the particular grid size is that all parts that ship with Fritzing now conform to it. This means that schematic diagrams will look much neater. In the past, there were a couple of competing standards (plus a few oddballs), so schematic diagrams tended to be pretty ragged.
In addition we have revised a number of schematic part images to bring them more in line with general usage.
So what happens if you load an existing sketch into 0.8.6? If you didn’t draw any wires in schematic view, Fritzing assumes you are not particularly invested in the current state of that view, and will use the new standard. But if there are schematic wires, Fritzing will give you a choice: open the sketch read-only and see the original schematic, or convert to the new standard.
The conversion process will change parts, but beyond some adjustment for the new part sizes, the wires will not be rerouted. So you will probably have some straightening out to do. Custom schematic images are not converted. I would suggest you use the Parts Editor to give the custom part a new schematic image. To assist you with this, if you switch to schematic view in the Parts Editor, under the File menu there is a Convert schematic to 0.1 grid option. This option will generate a standard rectangle-form schematic based on the existing part.
The HPSTR Pyramid is an attempt to create an alternative — but native to digital world — interface, to conventional knobs and slide controls. It’s an approach to have the same basic and generic functionality a knob has but to achieve it with a more natural interaction.
The HPSTR Pyramid has no visible interface but is the interface itself. The tetrahedron is played by pressing or tapping its sides and by altering the spatial orientation.
For somebody who does not know what the instrument does and how it is operated it is nearly impossible to find out by only looking at it. But once the pyramid is played or seen in action the functionality becomes very obvious.
You can recreate the Pyramid electronics with the data on our Website.
The HPSTR pyramid was developed by Flavio Gortana within the scope of the “Musical Interfaces” class 2012/13 at FH Potsdam.