Use Your Brain to Set Fire to This Brain

This 15 foot-tall steel brain sculpture can be controlled by your brain waves. It is called Mens Amplio (that means “mind expanding” in Latin). The interactive brain and head has been embedded with LEDs in the branching structures that represent neurons. Those are made from clear light-diffusing acrylic. The built-in LEDs show a sequence of light displays, which are controlled by an EEG reader placed on your head.

amplio
Raspberry Pi and Arduino processors are used to translate your brain waves into light patterns in real time. The huge brain also has flames on the outside, triggered only when the participant can successfully meditate.

It will show up at Burning Man this year, and then they want to take the giant head to schools in California to demonstrate it to kids and get them excited about science. technology and fabrication. The video below shows a 3D rendering of what you the finished sculpture will look like (without the flames.)

The Mens Amplio project is seeking additional funds on Indiegogo, if you want to take part.

[via Boing Boing via Damn Geeky]

BLEduino Arduino-compatible Board with Bluetooth 4.0: Low Cost, High Potential

Bluetooth low energy (BLE) technology may lead to better mobile gadgets and perhaps even the rise of new kinds of devices, thanks to its low power consumption and cost. But like NFC – another technology with huge potential – as of now only a handful of consumer devices support this technology. But thanks to a small company, tinkerers can incorporate BLE to their projects. All they need is the BLEduino.

bleduino arduino compatible bluetooth 4 board

Made by Kytelabs, the tiny BLEduino board is based on the Arduino Leonardo. That means it will work with Arduino shields and code. Watch the video below to see examples of devices that can be made using BLEduino.

Imagine that. You can make your own Bluetooth controller! Pledge at least $34 (USD) on Kickstarter to get a BLEduino as a reward. In case you want to make sure that your BLEduino will work with all of your shields, the higher reward tiers also come with Shield-Shield, an attachment that was also invented by Kytelabs. Shield-Shield makes the BLEduino compatible with both the old and new pin layout of Arduino shields.

Tactilu Sensor Bracelet: Touch People from a Distance

You can touch people from all over the world with kindness, but now you can use something called the Tactilu to literally touch people, even when you’re miles apart.

The Tactilu is a wrist device that lets its wearers communicate and “touch” each other, but only on the wrist for obvious reasons. Its described by its maker as a bracelet for remote tactile communication.

Sensor bracelet

The Tactilu is powered by an Arduino Pro mini microcontroller and a custom circuit board with a Bluetooth module. It connects and communicates to another device via Bluetooth or through the Internet to deliver the other person’s “touch” using actuators mounted on the inside of the bracelet.

tactilu inside

It’s still a work in progress, so expect to see more changes to its shape and form before the final version’s eventual release.

The Tactilu was made by Poland-based design studio panGenerator together with the Polish bureau of Cheil for ITAKA Foundation.

[via Creative Applications Network via Dvice]

Rapiro Robot Kit

The Rapiro Robot Kit lets you have a little assistant follow you around the home.

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Homebrew 8-bit computer packs in 16 cores, multitasks like a champ

DNP 16core homebrew computer built out of ATMegas, multitasks beautifully

It looks like Jake Eisenmann has done it again. A couple of years after the hobbyist hacker built his first 8-bit computer, he’s cobbled together yet another one, but this time with a whopping 16 cores. Appropriately dubbed the DUO Mega, the multicore wonder is made with 16 ATMega328p microcontrollers, each connected to an 8-bit data bus and designed to interpret a custom bytecode that runs the software. Compiled inside a nondescript plastic bin, the machine is also comprised of 16MHz crystal oscillators attached to each of the aforementioned cores, three Arduino UNO boards, 32kb of SRAM, 512kb of flash memory, eight breadboards, an Ethernet shield, a VGA out port and a multitude of components that combine to look like that mess of wires seen above. Because of all that processing power, this relatively primitive machine multitasks beautifully and can perform complicated calculations at an impressive clip. To get a demo of what this marvelous feat of DIY computing can do, have a peek at Eisenmann’s video, complete with an 8-bit soundtrack, after the break.

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Via: Hackaday

Source: DUO Mega

EMW kick-starts JuiceBox, a $99 Level 2 DIY charging station

EMW kickstarts JuiceBox, a $99 Level 2 DIY charging station

Electric vehicle charging stations aren’t cheap: one of the most affordable Level 2 (240V) units sells for $450 and only supplies 16A. Electric Motor Works (EMW) — which is best known for its electric conversion kits — wants to change this with JuiceBox, a 15kW Level 2 EV charger that costs just $99 in kit form (plus $10 shipping). The device, which is launching on Kickstarter today, supplies up to 62A and operates on both 120V and 240V. It’s built around an Arduino microcontroller and EMW is making both the hardware and software open source.

But wait, there’s more! The company is also crowdfunding a Premium Edition of JuiceBox ($199 in kit form) which adds time-of-day charging, a color LCD, ground-fault plus output protection (for outdoor use) and a unique enclosure (hopefully as funky as the one in the picture above). While the DIY kits only require basic assembly and soldering skills, you’ll be able to buy fully assembled versions for $100 more. At $329 (shipped), a ready-to-use JuiceBox Premium Edition undercuts other similar charging stations by several hundred dollars. The catch? You’ll have to supply your own cables (or buy them separately from EMW), including one with a standard J1772 EV connector. Hit the source link below to check out the campaign, and take a look at the PR after the break.

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Source: EMW (Kickstarter)

Custom-built Katamari controller is made from yoga ball, DualShock 2 pad, power of the cosmos (video)

Custombuilt Katamari controller is made from a yoga ball, DualShock 2 controller, power of the cosmos video

Conventional wisdom would suggest that making a for-real Katamari Damacy ball would be tricky, but that didn’t stop Chris McInnis, Ron LeBlanc and Tom Gwozdz from taking up the challenge. As part of the Nuit Blanche festival in London, Canada (which also included some building-projected gaming), they were able to fashion their very own Katamari ball from a yoga ball, some stickers, wood, an Arduino microcontroller, several optical mice and a dissected DualShock 2 controller. See how it steers after the break.

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Via: UbercoolStuffldnont (YouTube)

HackEDA hits Kickstarter, makes Arduino board design a drag-and-drop affair (video)

HackEDA hits Kickstarter

Writing code for an Arduino-friendly board is relatively easy; creating the board is the hard part, unless you live and breathe electrical engineering. If HackEDA has its way, however, the design process could be almost as easy as window shopping. Its new Kickstarter-backed project lets tinkerers choose from a list of parts and get a made-to-order board without knowing a lick about PCB assembly — algorithms sort out the finer details. While the initial effort includes just 36 combos based around an Atmega328 processor, contributors who want tangible hardware can pay anything from $30 for a bare board through to $10,000 for the first stages of mass production. The truly committed will have to wait until December for the finished goods, but those willing to try HackEDA can use its existing web tool for free.

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Source: Kickstarter, HackEDA

Adafruit smart helmet guides bike riders with Arduino-based light shows (video)

Adafruit smart helmet guides bike riders

Bike sharing systems like New York’s Citi Bike may be taking off, but it’s doubtful that many participants can find every station without checking a map. Thankfully, Adafruit has unveiled a smart helmet project that could help at least a few of those riders get to their destinations while keeping their eyes on the road. The DIY effort feeds locations to an Arduino-based Flora board and its positioning add-ons, which in turn use a string of NeoPixel LEDs on the helmet as turn indicators. Commuters just have to watch for blinking lights to know where to go next. While the system isn’t easy to set up when cyclists have to manually enter coordinates, it is flexible: the open-source code lets it adapt to most any bike sharing system or headpiece. As long as you can get over looking like a Christmas tree on wheels while you navigate, you can build a smart helmet of your own using the instructions at the source link.

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Source: Adafruit

SunnyBot Is A Solar-Powered Robot That Tracks The Sun To Reflect Sunlight Wherever You Want It

sunnybot

Here’s a neat greentech idea currently seeking crowdfunding on Kickstarter. SunnyBot is a microcomputer-powered robot that continually tracks the position of the sun, angling its on-board mirror so that it keeps reflecting the sun’s rays onto a fixed point of your choice. The basic idea being to harness solar energy for use as an indoor light-source when rooms might otherwise be in shade, or to target the sun’s heat where it’s needed — for warming a room or heating a swimming pool or nurturing indoor plants, and so on.

SunnyBot’s creators — an Italian startup called Solenica — say the bot can also be used to improve solar charging performance by concentrating the sun’s energy. A single SunnyBot redirects 7,000 lumens to the location of your choice (equivalent to a single 500W halogen lamp). The reflective range of the device is up to 200 meteres away, with an accuracy error margin of as little as 0.1 meter over 30 meters.

Obviously, the SunnyBot needs to be able to see sun in the sky to work — so residents of Iceland in December are going to find it brings them very little light relief. But amplifying the effects of sunlight in countries when sunshine is not so plentiful is one application its creators envisage for the device. In countries where sunshine is plentiful, the bot’s use-case is better targeting of the sun’s natural energy to improve the human environment.

Inside the sun-tracking mirror-wielding bot, itself powered by a row of solar cells, is a dual-axis, integrated microcomputer with an optical feedback system. The current SunnyBot design is a prototype, so its technical specifications will be tweaked as the startup moves to industrial production, with additional elements intended to be added to the design to improve durability, such as a custom enclosure for the mirror to support and contain it, and also the use of injection moulding for high quality body and mechanical parts.

Solenica is also planning to offer an open source version of the SunnyBot — called SunnyDuino – that, for a small price premium, will come with an additional Arduino-compatible controller and SDK so bot owners can hack in to the device to develop their own functionalities for its targeted beam of light and heat.

Solenica is aiming to raise £200,000 ($312,000) via Kickstarter to step up to industrial manufacturing so it can bring the device market. It also plans to spend some of the money on marketing SunnyBot, as it ramps up to license it to global manufacturers. It says it believes it can ship the first production run of the bot in time for the 2013 holiday season.

SunnyBot will be assembled in Italy, with macro components produced in different locations, including the electronic boards in Cambridge, U.K.; microcontrollers in Arizona, U.S.; and mechanical parts in Modena, Italy. The consumer cost per bot looks likely to be several hundred pounds. There are a limited number of Kickstarter pledges costing £199 ($310) which include one device. Solenica’s Diva Tommei adds: “We are hoping, after the project is over, to decrease costs of production and therefore the price of the robot. We want SunnyBot to be a household object that anyone can afford.”