The Incredible Judges Of The Hackaday Prize

The last challenge of The Hackaday Prize has just ended. Over the past few months, we’ve gotten a sneak peek at over a thousand amazing projects, from Open Hardware to Human Computer Interfaces. This is a contest, though, and to decide the winner, we’re tapping some of the greats in the hardware world to judge these astonishing projects.

Below are just a preview of the judges in this year’s Hackaday Prize. In the next few weeks, we’ll be sending the judging sheets out to them, tallying the results, and in just under a month we’ll be announcing the winners of the Hackaday Prize at the Hackaday Superconference in Pasadena. This is not an event to be missed — not only are we going to hear some fantastic technical talks from the hardware greats, but we’re also going to see who will walk away with the Grand Prize of $50,000.


Kipp Bradford

Kipp Bradford is a biomedical engineer and Research Scientist at the MIT Media Lab. His work focuses on reinventing cool. He is a leader in the maker movement and has founded a variety of start-ups. He was a presenter at the Hackaday Superconference last year where he talked about the importance of building boring projects. It’s a great talk about Devices for Controlling Climates, or quite simply, an HVAC system. This isn’t a flashy project by any means — refrigeration has been around for a hundred years, and air conditioning has been common for fifty. Still, there’s a lot to learn about building infrastructure, and given the ubitquity of climate control systems, small efficiency gains can add up to a huge impact.

Madison Maxey

Madison Maxey is a internationally renowned technologist and multidisciplinary creative. Maxey has pioneered work in bringing flexible, robust circuitry to scale as Founder of LOOMIA, a technology that implants coats and jackets with soft, flexible circuitry that can heat, light, sense and track data. If you’re looking for wearable technology that isn’t made of copper and Kapton, look no further. LOOMIA has been featured by Business Insider, Forbes, and Huffington Post. This little bit of hardware can serve as a heater, keeping you warm, or as lighting to illuminate the headliner of a car or keep you visible at night. Maddy is a member of Forbes 30 under 30, a Thiel Fellow, and a Lord and Taylor Rose Award recipient.

Mark Rober

Mark Rober is a former NASA engineer, an inventor, and current YouTuber with nearly three million subscribers, all of them interested in science and engineering. He’s been featured on Hackaday numerous times for engineering the perfect throw for skipping a rock across a lake, filling a hot tub with sand, then swimming in it, building a dart board that always catches your dart for the perfect bullseye, and building the world’s largest Super Soaker (yes, it’s the classic, original Super Soaker). His work has been featured in dozens of publications around the Internet. Mark is full of awesome ideas and through his YouTube channel is able to explain science and engineering clearly to millions of people around the globe.

Colin Furze

Colin Furze is a mad Englishman in a shed who was formerly a plumber and now creates amazing inventions and incredible vehicles. His YouTube channel has over five million subscribers and his videos have been viewed over six hundred million times. He’s built a real hoverbike which must someday be taken to the forest moon of Endor, the world’s fastest bumper car that is also remarkably unsafe to actually use as a bumper car, and a knife that toasts bread as you slice it. But of course his most impressive achievement is gigantic pulse jet that was heard across the English Channel. And all of this without scorching his safety tie.

These are just four of the amazingly accomplished judges we have lined up to determine the winner of this year’s Hackaday Prize. The winner will be announced on November 3rd at the Hackaday Superconference. There are still tickets available, and you really want to be there if you can make it. Still, we’re going to be live streaming everything, including the prize ceremony, where one team will walk away with the grand prize of $50,000. It’s not an event to miss.

Towards Open Biomedical Imaging

We live in a world where anyone can build a CT machine. Yes, anyone. It’s made of laser-cut plywood and it looks like a Stargate. Anyone can build an MRI machine. Of course, these machines aren’t really good enough for medical diagnosis, or good enough to image anything that’s alive for that matter. This project for the Hackaday Prize is something else, though. It’s biomedical imaging put into a package that is just good enough to image your lungs while they’re still in your body.

The idea behind Spectra is to attach two electrodes to the body (a chest cavity, your gut, or a simulator that’s basically a towel wrapped around the inside of a beaker). One of these electrodes emits an AC signal, and the second electrode measures the impedance and phase. Next, move the electrodes and measure again. Do this a few times, and you’ll be able to perform a tomographic reconstruction of the inside of a chest cavity (or beaker simulator).

Hardware-wise, Spectra uses more than two electrodes, thirty-two on the biggest version built so far. All of these electrodes are hooked up to a PCB that’s just under 2″ square, and everything is measured with 16-bit resolution at a 160 kSPS sample rate. To image something, each electrode sends out an AC current. Different tissues have different resistances, and the path taken through the body will have different outputs. After doing this through many electrodes, you can use the usual tomographic techniques to ‘see’ inside the body.

This is a remarkably inexpensive way to image the interior of the human body. No, it doesn’t have the same resolution as an MRI, but then again you don’t need superconducting electromagnets either. We’re really excited to see where this project will go, and we’re looking forward to the inevitable project updates.

Challenge Your Perception Of Reality With Emotional Sunglasses

The Peril-Sensitive sunglasses of Hitchhiker’s Guide fame directly affect the user’s response to a stimulus, turning completely opaque in response to danger. That’s a great idea, but what if sunglasses could affect your emotions? That’s what the EmotiGlass project in this year’s Hackaday Prize is doing. It’s a concept that allows a computer to change the user’s emotional perception of reality.

The key idea behind the EmotiGlass comes from a paper published by a researcher at the University of London just this year. Apparently, your emotional reaction to an image can be controlled depending on the point in time during your heartbeat cycle the image is presented. For example, researchers found the perception of pain depended on the point in the cardiac cycle the stimulus was delivered.

In an effort to test out this hypothesis with some Open Source hardware, [David Prutchi] and [Jason Meyers] created a pair of sunglasses with liquid crystal lenses that can either be clear or opaque. With the addition of ECG sensors to detect the cardiac cycle and a microcontroller to tie everything together, you get a device that is the emotional equivalent of Peril-Sensitive sunglass.

This is a great project that won $1000 for making it to the finals of the Hackaday Prize, and we’re proud to have this project in the running for the Grand Prize of $50,000 USD.

This Is Your Last Chance To Enter The Hackaday Prize

For the last seven months, we’ve been running the world’s greatest hardware competition. The Hackaday Prize is the Academy Awards of Open Hardware, and a competition where thousands of hardware hackers compete to build a better future. The results have already been phenomenal, but all good things must come to an end: we’re wrapping up the last challenge in the Hackaday Prize, after which the finalists of the five rounds will move on, with the ultimate winner being announced next month at the Hackaday Superconference.

We’re in the final hours of the Musical Instrument Challenge, where we’re asking everyone to build the next evolution of modern music instrumentation. We’re looking for the next electric guitar, theremin, synthesizer, violin, or an MPC. What we’ve seen so far is, quite simply, amazing. One of the finalists from the five challenges in this year’s Hackaday Prize will win $50,000 USD, but twenty projects from the Musical Instrument Challenge will each win $1000. We’ll be figuring out those winners on Monday, where they’ll move onto the final round, refereed by our fantastic judges.

It’s still not too late to get in on the action in this year’s Musical Instrument Challenge. We’re looking for the best musical projects out there, but time is of the essence. This round closes on October 8th at 07:00 PDT. There’s still time, though, so start your entry now.

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SENSEation Shows The Importance Of Good Physical Design

Sensor network projects often focus primarily on electronic design elements, such as architecture and wireless transmission methods for sensors and gateways. Equally important, however, are physical and practical design elements such as installation, usability, and maintainability. The SENSEation project by [Mario Frei] is a sensor network intended for use indoors in a variety of buildings, and it showcases the deep importance of physical design elements in order to create hardware that is easy to install, easy to maintain, and effective. The project logs have an excellent overview of past versions and an analysis of what worked well, and where they fell short.

One example is the power supply for the sensor nodes. Past designs used wall adapters to provide constant and reliable power, but there are practical considerations around doing so. Not only do power adapters mean each sensor requires some amount of cable management, but one never really knows what one will find when installing a node somewhere in a building; a power outlet may not be nearby, or it may not have any unoccupied sockets. [Mario] found that installations could take up to 45 minutes per node as a result of these issues. The solution was to move to battery power for the sensor nodes. With careful power management, a node can operate for almost a year before needing a recharge, and removing any cable management or power adapter meant that installation time dropped to an average of only seven minutes.

That’s just one example of the practical issues discovered in the deployment of a sensor network in a real-world situation, and the positive impact of some thoughtful design changes in response. The GitHub repository for SENSEation has all the details needed to reproduce the modular design, so check it out.

The Magic Flute Of Rat Mind Control Aims To Mix Magic And Science

Well this is unusual. Behold the Magic Flute of Rat Mind Control, and as a project it is all about altering the response to the instrument, rather than being about hacking the musical instrument itself. It’s [Kurt White]’s entry to the Musical Instrument Challenge portion of The Hackaday Prize, and it’s as intriguing as it is different.

The Raspberry-Pi controlled, IoT Skinner box for rats, named Nicodemus.

[Kurt] has created a portable, internet-connected, automated food dispenser with a live streaming video feed and the ability to play recorded sounds. That device (named Nicodemus) is used as a Skinner Box to train rats — anywhere rats may be found — using operant conditioning to make them expect food when they hear a few bars of Black Sabbath’s Iron Man played on a small recorder (which is a type of flute.)

In short, the flute would allow one to summon hordes of rats as if by magic, because they have been trained by Nicodemus to associate Iron Man with food.

Many of the system’s elements are informed by the results of research into sound preference in rats, as well as their ability to discriminate between different melodies, so long as the right frequencies are present. The summoning part is all about science, but what about how to protect oneself from the hordes of hungry rodents who arrive with sharp teeth and high expectations of being fed? According to [Kurt], that’s where the magic comes in. He seems very certain that a ritual to convert a wooden recorder into a magic flute is all the protection one would need.

Embedded below is something I’m comfortable calling the strangest use case video we’ve ever seen. Well, we think it’s a dramatized use case. Perhaps it’s more correctly a mood piece or motivational assist. Outsider Art? You decide.

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An Unmanned Ground Vehicle, Compatable With An Arduino

Building your own robot is something everyone should do, and [Ahmed] has already built a few robots designed to be driven around indoors. An indoor robot is easy, though: you have flat surfaces to roll around on, and the worst-case scenario you have a staircase to worry about. An outdoor robot is something else entirely, which makes this project so spectacular. It’s the M1 Rover, an unmanned ground vehicle, built around the Arduino platform.

The design goal of the M1 Rover isn’t just to be a remote-controlled car that can be driven around indoors. This robot is meant for rough terrain, and is a robot that can be programmed, can also be driven around by a computer, a video game controller, or custom joysticks.

To this end, the M1 rover is designed around high-quality laser cut plywood, powered by a few DC motors controlled through a dual H-bridge, and loaded up with sensors, including a front-mounted ultrasonic sensor. All the electronics are tucked away in the chassis, and the software is just fantastic. In fact, with the addition of a smartphone skillfully mounted to the top of the chassis, this little robot can became an autonomous rover, complete with a webcam. It’s one of the better robotic rover projects we’ve seen, and amazing addition to this year’s Hackaday Prize.