Definitely looks like we're heading into some serious improvements in terms of the dexterity and flexibility of robotic hand movements. All good for those tasks that require precision and fluidity of movement. I'm stuck on the discussion about the "fingers" breaking, however. As these robots are built and marketed to be more human-like, those human-like descriptions become interchangeable and in cases like this, is can be jarring!
Ann, you talk about cost of most robotic hands being $10K and this one being $800. I wonder, what is the difference? Are those hands fully autonomous, or is it something else? Don't get me wrong, this is a very interesting and seemingly useful development. It is always interesting to know what was done differently to get this much cost advantage.
Lou, it looks to me like the key means of driving down costs were making an effort to do so. Since these are aimed at the military, costs had to be low, and there was a concerted effort to reach that goal. As we state in the article, this was the effort in partnership with the consulting firm LUNAR to "select motors, research skin-simulating materials, perform cost-of-goods and cost reduction analyses, and research design-for-manufacturing considerations." What I'm curious about is the opposite: if this can be done by a concerted effort, why the heck have they been so expensive before? My guess is that earlier robotic hands were developed either for fundamental research, or for very high-end low-volume uses.
Ann, Great article! I see variety of applications for which the Sandia Hand can be used in addition to bomb detonation. One application I see this hand being quite useful is in working with hazardous chemicals. A scientist will not need the protective gear when handling hazardous chemicals, the Sandia Hand could be used. The scientist can work remotely and manipulate the chemicals using the gloves to control the handling process. Also, the International Space station can make outside repairs with these flexible hands as well.
mrdon, I think those are interesting apps you mention. Of course, the materials would have to be designed specifically for use in those specialized environments: with hazardous chemicals and for the vacuum of space. Interestingly, the GM Robo-Glove my colleague Chuck Murray wrote about earlier this year http://www.designnews.com/document.asp?doc_id=240915 was derived from NASA's humanoid space robot Robonaut 2, which is up in the space station and one of whose tasks will be conducting EVA (extra-vehicular activity) dangerous operations.
Holy cow, this is impressive! From the detachable fingers, to the amazing dexterity, this is a great development. I was impressed right up to the key pick-up, after that I was amazed.
The key pickup does hightlight one aspect that will require some more effort - feedback. Trying to pick up something without having the force feedback creates a sense of separation and isolation. Getting pressure feedback from the fingers to the operator's glove interface is the next big challenge.
This is a pretty neat development. What a clever approach to a robotic hand design. Interesting that this came out of Darpa - it seems that all the financing for robotic development is coming out of the government these days.
From what I can see in the video, weight is an issue for this hand. The receiver of the princess phone was picked up but not the base. Even the case, which seemed heavy, was almost dragged by the handle. The ability to carry heavier weight may be a key difference for price.
Magnetic attachments for the fingers are a great example of design thinking. I wonder how they'll solve the problem of the fingers flipping back (very noticeable in the video).
Nadine, I agree about the weight issue, especially since the fingers are attached magnetically. The fingers' ability to fall off instead of break means--that they can fall off. OTOH, how much weight they will be dealing with when performing delicate IED disarming tasks may be a moot point. Their design seems to be aimed more at delicately picking up small objects, like the key, than at dealing with weight.
Truchard will be presented the award at the 2014 Golden Mousetrap Awards ceremony during the co-located events Pacific Design & Manufacturing, MD&M West, WestPack, PLASTEC West, Electronics West, ATX West, and AeroCon.
In a bid to boost the viability of lithium-based electric car batteries, a team at Lawrence Berkeley National Laboratory has developed a chemistry that could possibly double an EV’s driving range while cutting its battery cost in half.
For industrial control applications, or even a simple assembly line, that machine can go almost 24/7 without a break. But what happens when the task is a little more complex? That’s where the “smart” machine would come in. The smart machine is one that has some simple (or complex in some cases) processing capability to be able to adapt to changing conditions. Such machines are suited for a host of applications, including automotive, aerospace, defense, medical, computers and electronics, telecommunications, consumer goods, and so on. This discussion will examine what’s possible with smart machines, and what tradeoffs need to be made to implement such a solution.