The Internet loves animals, and it loves photoshop. Worth1000.com decided to harness that double love and start a Photoshop contest to see who could create the coolest robotic animals on the web. Artists took pictures of real animals and filled them with images of gears, wires, and electronic gizmos. The results look pretty amazing. There are cybernetic reptiles, android mammals, and even a robot chicken. Take a good look at some of these cool robot-animal pics below; we’ve got tons and there are many more on the Worth1000 website.
It may not make sense to your binary minds, robots, but humans talk with their hands. Thankfully, engineers at the Personal Robotics Group at MIT Media Lab have developed MeBot, the first telepresence robot with a head and arms that move. Operators sit in front of a camera and a special sensor tracks their head orientation. A screen on the robot shows the person’s face and moves on a “neck” to mimic his or her pose. MeBot’s arms are moved using a controller that resembles the bot’s actual limbs. It’s a pretty cool setup, and it makes a difference. Psych experiments performed by the developers showed that humans responded better to a telerobot with a dynamically moving body. That makes sense, and MeBot’s simple innovation of adding body language could help make telepresence an accepted way to cooperate with colleagues over long distances. Check out the robot in action in the clip from MIT below. That little bot is adorable! How could you not want to work with it?

The BeBionic hand comes close to the real thing. It has four different kinds of grips and a silicone skin.
Judging by the latest promo videos, the BeBionic hand is out to kick more butt than…well, an artificial foot. Full of heavy rock licks, the BeBionic demo shows off the four grips (key, pinch, finger, and power) of its newest prosthetic hand and wrist. The system senses muscle signals on the skin of your residual limb to control its movements, a technique known in the field as myo-electric sensing. To match that life-like motion with a life-like appearance BeBionic also comes with a silicone covering in one of 19 possible shades of human skin and with customized finger nails. Produced by RSL Steeper, the BeBionic hand and wrist are set to debut (with pricing and availability details) in May at the Orthopadie Technik in Leipzig, Germany. You can check them out now in the videos below. Where’s the “rock-on” gesture grip when you need it?

Lawrence Livermore is preparing the electronics for Argus III, the third phase in creating a retinal prosthesis.
Restoring vision to the blind is one of the epic promises of technology, sort of like flying cars, ray guns, and a lovable robot side kick. Yet artificial sight isn’t a far off dream, it’s getting much closer to reality with the Argus project. Funded by the US Department of Energy and lead by Lawrence Livermore National Labs, Argus seeks to create an epiretinal prosthesis, a device that will take the image from a camera and send it to your brain via your optic nerve. The first two phases of Argus (which we call Argus I and Argus II) have had extraordinary success with implants in more than 30 patients. Now, LLNL is getting ready to launch Argus III – the third phase that will expand the number of patients, the quality of vision provided, and ease in which the device is implanted. The Argus project has already restored sight to a few blind people, but given enough time, it could change the lives of millions.
Single sided deafness affects around 200 out of every million people the world over. The loss of stereo hearing can prove dangerous when crossing the street, or other mobile environments. Sonitus Medical has developed a new device, SoundBite, that uses the natural conduction of teeth and bone to transmit sound to the inner ear even after the outer and middle ear are damaged.

SoundBite sends audio by mildly vibrating the teeth and jaw bone. Once it is in the mouth, the hearing aid is almost imperceptible.
SoundBite detects noise using a microphone placed in the ear connected to a transmitter in a behind-the-ear (BTE) device. The BTE transmits to an in-the-mouth (ITM) device that sends small sound waves through the jaw to the cochlea. There is no surgery needed, and both the BTE and ITM are easily removed to be charged inductively. Sonitus Medical is still preparing the SoundBite for eventual FDA trials for single sided, and (eventually) other forms of deafness. Check out more photos after the break.

This knee exoskeleton weighs just 5kg (including battery backpack) and increases muscle effiency by 30% when walking/jogging.
The steps towards really cool technology are often less than amazing. Exoskeletons, mechanical devices you wear to enhance the body’s strength are some of the most sought-after and eagerly awaited gadgets you can name. The robotic knee recently debuted by Tsukuba University…not so much. While the knee has some impressive stats: it only weighs 5 kg (~11 lbs) including the battery and backpack, but can increase running efficiency by 30%. And in trials it allowed users to jog at 7.5 km/h (~4.7 mph). According to Nikkei News, developers even believe they can commercialize it in the next three years (no small feat). They say the device is meant for healthy people who want to move more efficiently. I’m left wondering, who wants to buy such a device? Most walkers/joggers are pursuing better health and should be doing all the muscle work themselves. Hopefully this robotic knee is just a step towards developing a better, more efficient, and lighter weight full body exoskeleton that anyone can use.
This is a guest post written by entrepreneur, Singularity University alumnus and teaching fellow Rod Furlan. He is an independent researcher in the fields of artificial intelligence, quantitative finance and high-performance computing. Passionate about technology and a serial autodidact, Rod has been to many high-tech industries always in search of the next big challenge. He is currently working on funding solutions for risky and highly-disruptive R&D projects with the intent of accelerating the singularity timeline.
I have just returned from a X PRIZE Foundation workshop on brain-computer interfaces (BCI) at MIT. The workshop brought together over 50 leading experts, students and enthusiasts with the objective of brainstorming ideas for an X PRIZE competition to accelerate the development of BCI solutions. During the course of this fantastic two-day event we had the opportunity to explore the many possibilities and difficulties of designing and implementing devices capable of communicating directly with the human brain.
Someday soon, amputees will have more powerful limbs than those with their natural bodies. iWalk, a prosthetics company formed in 2006, is gearing up to provide the world’s first actively powered foot and ankle this year. Called the PowerFoot One, the prosthetic limb uses springs and a half pound lithium ion battery to provide human-like power. It gives the same push off the ground as a human foot, and can adjust to slopes, walking up and down steps, or hanging casually when you lounge in a chair. The PowerFoot One can even be adjusted using a Bluetooth enabled phone and (according to an interview in Forbes) will soon have an associated iPhone App. Along with lower limb prosthetics from other companies, the PowerFoot One is set to give amputees an ease of movement that’s nearly natural. Give iWalk enough time, and they’re likely to make it better than human.

Kobayashi Lab displayed the latest versions of its exoskeleton at iREX 2009.
The cool developments out of IREX 2009 keep coming. At the recent conference, Kobayashi Lab at Tokyo University of Science displayed its Muscle Suit, a light weight cybernetic exoskeleton that augments users’ strength for lifting. There are two versions of the suit, one for upper body and back support and the other simply for lower back support. Each version can increase the lifting power of humans considerably. Kobalab demonstrated lifts of 50 kg (110 lbs) for the upper body suit and 15 kg (33 lbs) for the lower back suit. Weighing 8 kg or less, Muscle Suit is designed to be easily worn by nurses to help them move the sick or elderly, and it may see use in industrial settings for human workers that have to bend over to lift objects many times a day. While Kobalab hopes to have Muscle Suit available in the early part of 2010, it is still lagging behind more fully fledged cyborgs like Cyberdyne’s HAL. Catch two video reviews of Muscle Suit after the break.
In some ways, comparing Muscle Suit to HAL is a bit unfair. They do attempt to accomplish much the same function, but with significantly different means. HAL uses nerve signals on the surface of the skin (myo-electric) to control a sophisticated electric servo system. Muscle Suit uses hand controls (seen in the first few seconds of the IDG News video) and pneumatically driven artificial muscles. These cylinders (made of rubber and nylon) expand and contract to move the carbon composite frame of the suit. It’s a significantly less complicated system, but it also weighs about half as much as HAL. There’s no real way to know if either exoskeleton will be successful in the global market, but I do get the feeling that they may appeal to different demographics. Those wanting a fully functional cybernetic experience are likely to go with HAL. Those who simply need a way to help their workers avoid back strain may go with Muscle Suit. Determining which is the better exoskeleton is likely to be somewhat subjective. In my mind the winner between the two will be the first company who ships me a version I can play with study extensively. Cyberdyne, Kobalab…I’m waiting.

A palatometer reads mouth movements and helps the new artificial larynx avoid monotone.
You may have a family member or friend who had throat cancer. Maybe you’ve seen a TV show where a heavy smoker needs an artificial larynx pressed to their neck to speak. Either way, you know the voice that they have to use: robotic, monotone, raspy. It works, but it can leave users unable to express themselves well. Researchers at the University of Witwatersrand in South Africa have developed a new system that measures mouth movement to produce a more “human-like” voice. Their work was on display at the recent International Conference on Biomedical and Pharmaceutical Engineering. By placing a device called a palatometer under the tongue, users can try to speak as normal and have their words synthesized on a speaker. The South African artificial larynx can provide inflection, ending the dreaded monotone and providing the means to indicate you are asking a question. With proper calibration, researchers claim greater than 94% accuracy. That’s good news to those who want to regain a normal speaking voice.
The palatometer, which measures tongue/mouth movements with 118+ pressure sensors, is an older device developed at BYU and produced by Complete Speech. It is most often used by speech therapists in instructing their patients and retails for around $200-$300. You can see a brief presentation of the palatometer after the break. University of Witwatersrand’s innovation comes in developing a selective way of using the mouth movement data to generate toned speech. After cataloging tongue motions, and using predictive-analysis, the team has taught their system to recognize around 50 words with high accuracy. About 18% of the time, however, the new artificial larynx has to skip words it can’t recognize. It also has a 0.3 second delay, leaving users appearing something like a poorly dubbed Godzilla movie. Still, because the palatometer is not an implant (users simply place it in the mouth), it can be easily upgraded as needed. Future versions are likely to improve the accuracy, the vocabulary, and the speed. Perhaps one day a similar sort of device could be used by the unimpaired to provide a means to talk on the phone soundlessly. That would help me sort between crazy people talking to themselves on the street and those with phone headsets. Not that the difference is that big anyway…

Touch Bionics is moving forward with its prosthetic fingers. They have much of the same capability as the i-Limb, but customized to each amputee's unique physiology.
In the world of prosthetics, there’s really no such thing as “one size fits all.” Back when we discussed the i-Limb from Touch Bionics, we mentioned that the Scottish company’s next big development would be bionic fingers. Well they’ve arrived. Pro-Digits are powered mechanical fingers which can be controlled by measuring electric signals from nerves using pads on the skin. Touch Bionics has fitted more than thirty patients with Pro-Digits devices, each uniquely built to correspond to differing levels of amputation. As with the i-Limb, the bionic fingers can detect objects as they close to prevent crushing something delicate and can be installed in different grips to help with tasks such as typing. Check out the Pro-Digits in action in the video below.
There’s been a ton of really exciting news about prosthetics this year. Besides i-Limb, we’ve seen artificial hands and arms from Deka, DARPA’s Prosthetics Revolution Program, and Smart Hand. Artificial intelligence in lower limb prostheses is also advancing at a wonderful pace. While each device has its own merits, Touch Bionics has geared i-Limb and Pro-Digits to be market ready and user friendly as soon as possible. There are already more than 600 users of i-Limb and it looks like Touch Bionics is trying to get Pro-Digits to enjoy the same popularity.

Pierpaolo Petruzziello uses his thoughts to control the Life Hand prosthetic which is directly wired to his nerves.
Scientists are becoming increasingly adept at creating machines that can successfully attach to your neurons. In the realm of prosthetics, the ultimate artificial hand is one that can accept commands directly from the user’s brain and transmit sensation back. At the Universita Campus Bio Medico in Rome, surgeons connected wires from the nerves of an amputee named Pierpaolo Petruzziello to an artificial limb called Life Hand. Over a month, Petruzziello was able to move the mechanic limb in gestures more complex than any previous device has accomplished. Researchers report that the Life Hand obeyed about 95% of the commands mentally sent by Petruzziello. This remarkable success was possible even though the hand itself was never implanted onto the patient. Check out the videos from the Associated Press and Discovery News after the break.
If the specifics of Life Hand are giving you a mild sense of deja vu, you’re not alone. In late October I reported on Smart Hand, a similar device tested in Sweden on a different young man – Robin af Ekenstam. The two projects are actually related. Both were part of a larger EU task force working on artificial limbs. If the Life Hand and Smart Hand look nearly identical, that shouldn’t be surprising either, considering that both were constructed at the Scuola Superiore di Sant’Anna in Italy. The largest difference between the two devices (besides the name) is that the Smart Hand is taking steps towards implantation, while the Life Hand is focusing on the complexity of gestures and reliability of signals to/from the device.








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