Japanese Robots: Honda’s High-Access Survey Robot Goes to Work in Fukushima. Finally Some Action for (parts of) ASIMO!

Honda's ASIMO-based Fukushima-bot

The first signs of trouble at Fukushima were quickly followed by expectations of an action-ready ASIMO leaping to the rescue. Honda’s humanoid remains far from able, but their new High-Access Survey Robot is on the job, and of some consolation: it’s got ASIMO parts.

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After more than two years of research and development, in collaboration with Japan’s National Institute of Advanced Industrial Science and Technology (AIST) and with input and direction from the Tokyo Electric Power Company (TEPCO), Honda has finally made good on its commitment to assist with recovery and repair at the damaged Fukushima Daiichi Nuclear Power Plant.


High-Access Survey Robot is as High-Access Survey Robot Does
High-Access Survey” isn’t super creative in the naming department, but it really does nail what this technically two-piece robot is all about: 1. movement via tracked chassis with a variable-height platform allowing operators to peer into hard to see, difficult to access places up to 23ft/7m high (that’s AIST’s tech); 2. providing a comprehensive visual survey from the camera-equipped arm and automatic 3D mapping of the robot’s immediate location (thanks, ASIMO!); 3. a new control system that increases dexterity by allowing operators to manipulate several robotic joints at once (more ASIMO-tech); and 4. shock-resistant arms, e.g., within a reasonable range, the robot’s arms will remain steady and on-task even when other parts or the entire machine gets jostled around (that’s the big present from ASIMO, detailed below).

The robot’s advancements and benefits are pretty clear:
AIST’s sturdy, low center of gravity, tracked base keeps things moving over potentially rough terrain, and when the arm platform is fully extended it’s probably the tallest stand-alone robot out there (at least among robots that actually like, you know, do stuff).

The first two gifts from ASIMO are visually subtle, but operationally quite significant. Performing extremely important jobs through a single camera lens is the status quo drudgery for current recovery & repair robotics, so this system’s 3D view of the robot’s surroundings combined with increased dexterity are welcome enhancements (presumably, a number of different tools could make their way onto the business end of Honda’s arm). The last gift from ASIMO, the gift of stability, well there’s a bit of history to all that, and we’ll get to it below – first, here’s how the job will be done:


So there you go – it’s certainly an achievement, and along with several other machines already at work or heading to Fukushima (see: Japan’s Robot Renaissance: Fukushima’s Silver Lining), Honda’s new robot is a unique and valuable contribution to the recovery & repair effort. Okay – great, happy day!

But wait…
So, Honda’s very highly accomplished robotics division (our coverage: Honda Robots for the HomeHonda Robots You Wear) has spent two years at this? Even casual tech observers know that we’ve had durable, effective crawler robots with cameras and nimble, powerful arms for well over a decade (see: iRobot), and those with a slightly higher level of robo-geekery know Honda’s been working on bipedal humanoid robots for almost 30 years.

Honda’s résumé reasonably amplifies everyone’s expectations; as such, both when things went bad at Fukushima, and even NOW, it’s not unreasonable to wonder why they’ve reinvented the tracked robot wheel, so to speak, and why there are still no practical, deployable results from all the time, money, and brains put into ASIMO. Can’t that robot at least do… something!?

Presents from ASIMO: the Humanoid has Indeed Contributed
ASIMO is often billed as the world’s most advanced humanoid robot (that’s recently become debatable), and it does have some autonomous capabilities, but what’s brought to the public eye is largely choreographed to a specific environment. The very robo-dorky among us knew it was entirely unreasonable to expect anything of ASIMO as a stand alone robot, but we did know that ASIMO is and has always been a research platform with wild potential. Honda, openly apologetic and conciliatory of its inability to immediately assist with Fukushima recovery & repair, got straight to work:


(see the derived-from-ASIMO self-steadying arm/leg tech in action, jump to 14:50 in this NHK documentary)

The self-steadying, self-balancing arm Honda engineers created, obviously, is the predecessor to the limb mounted on the new High-Access Survey Robot. So the work kinda paid off. The prototype provided design cues, inspiration, and data – and then was put away in Honda’s warehouse of lost robotic toys or whatever.

Or was it? Now, speculation is at best speculative, but what if maybe, maybe that arm isn’t on a shelf somewhere? What if, big if, but what if there’s also a body… and it’s not ASIMO?

Because Fool Honda Once, Shame on You…
Naively, but with hope inspired by Honda’s technological achievements, the world called for ASIMO to help at Fukushima, but Honda could do nothing. Now, pressure is building from the very exciting, fueled by international competition for prizes and prestige, Fukushima-inspired DARPA Robotics Challenge (our coverage). And, looming off in the future is the possibility that Japan’s best robots might once again get upstaged by something from the U.S., or Korea, Poland, Germany, etc. That’s a lot of pressure, but it’s also a ton of motivation.

Honda engineers extracted a polished, self-steadying/balancing arm from ASIMO’s leg in 8 months. In the 18 since, would they really have only managed to attach some eyes and bolt it to a crawler with a really long neck?

Akihabara News’ robotics coverage will keep you hip to developments – and you’ll wanna stay tuned in – because unless Honda’s hoping to get fooled again, it’s both safe to assume they’ve remained busy, and safe to assume that the image below is more than just a rendering; it might be something awesome.


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Reno J. Tibke is the founder and operator of Anthrobotic.com and a contributor at the non-profit Robohub.org.

VIA: IT Media (Japanese/日本語); Honda Robotics (Japanese/日本語)
Images: Honda Robotics; NHK

Dr. Kanako Miura Made Robots Walk Like Humans. She Will be Missed.

Robotics - Kanako Miura

While riding her bike on Sunday, May 19th, at approximately 3:30pm, highly accomplished and well-regarded robotics researcher Dr. Kanako Miura was struck by a large truck near Charlesgate Park in the Fenway-Kenmore neighborhood of Boston, Massachusetts. Dr. Miura, 36, died at the scene. Official reports conclude that it was simply a terrible accident on a busy road.

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A guest of the Massachusetts Institute of Technology (MIT), Dr. Miura arrived last October for what was planned to be year of research at the world-class MIT Computer Science and Artificial Intelligence Laboratory (CSAIL). She had been invited to share her pioneering work on improving the understanding of human bipedal locomotion and applying that practical knowledge to advanced humanoids, i.e., Dr. Miura made robots that walk like us.

“She was really part of the fabric of our group. She was not just a visitor in our group, she became a close friend and a member of our family. The energy she brought to her work was contagious, and her enthusiasm was easy to see. She loved giving tours, and showing off the lab, and she had an unfailing optimism in the future and importance of humanoid robots.”

-Professor Russ Tedrake, Director; Center for Robotics, CSAIL

Dr. Miura held a B.E. in Aerospace Engineering and an M.E. and Ph.D. in Information Science from prestigious Tohoku University. She also earned an additional Ph.D. in Electronics and Automation from equally renowned Université Louis-Pasteur in 2004. Such certifications alone evidence a formidable intellect; factoring in the linguistic challenges between Japanese, French, and English – well, that pushes the dial up a bit further.

The considerable expertise Dr. Miura brought to MIT arose from post-doctoral research at Tohoku University, a subsequent research position with communications giant NTT Docomo, and her eventual ascent to senior researcher at Japan’s National Institute of Advanced Industrial Science and Technology (AIST) in the Intelligent Systems Research Institute’s Humanoid Robotics Department.

While at AIST, Dr. Miura worked on the world-famous HRP-4C Future Dream robot (nicknamed “Miim,” from the Japanese). You might not know the name, but chances are you’ve seen photos or video of the agile and strikingly human robot:

HRP-4C has also “met” with the highest levels of foreign government:

With the above robot as the platform and Dr. Miura as the lead researcher, the AIST team made several valuable and distinct contributions to mobility and agility in humanoid robotics. The video below, for example, demonstrates the “slip turn” motion. “Slip turn” is very human-like movement that allows a biped to rapidly change direction with minimal change in body orientation. How is this an advancement? Well, think about the baby steps a robot like ASIMO has to take when changing direction, as opposed to this:

Another project led by Dr. Miura was the development of a more human-like gait for bipedal robots. When we walk, movement in the pelvis precipitates and works in conjunction with movement in the knees. A natural human step ends with the back foot balancing and pushing off the toe, and this leads to the standard leg-swing motion of the human stride. Here’s that recreated in robot form – and again, sorry ASIMO, but your flat-footed shuffling must yield:

Dr. Miura also led a project that would allow a robot to mimic human movement based on motion capture technology.

After contributing so much to her field, in addition to eventually being courted for the year of study and collaboration at MIT, she was also recognized here at home with the 2010 AIST President Award:

Such is the noble reality of robotics research. No single person can crank out a perfect human facsimile, and there are no Tony Starks – there are researchers like Dr. Miura, diligently working through small but profound iterations and laying the foundation for generations of robotics research to follow.

Unfortunately, no one at Akihabara News or Anthrobotic.com knew or had ever met Dr. Miura. However, through the words of Professor Tedrake and other public and private discussions, it is easy to appreciate that she was not only a brilliant and motivated scholar, but also a warm and engaging person. How we wish to have had the pleasure of interacting with such a comprehensive intellect.

Though something small, we hope it a fitting memorial to share her work here. That awareness of her contributions might inspire others toward learning about robotics, engineering, or science of any kind, is a fitting legacy.

Seems safe to assume she’d agree.

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Reno J. Tibke is the founder and operator of Anthrobotic.com and a contributor at the non-profit Robohub.org.

Sources: Boston Police Twitter; Boston Police Department; Universal Hub; Boston.com; MIT News; CSAIL Computer Science and AI Laboratory News; IsolateCyclist Blog; Fenway-Kenmore Patch; Worldjournal.com (Chinese); IT Media (Japanese/日本語)

Photos: LinkedIn; AIST; The White House

 

AIST – Light-controlling sheet switches between mirror and transparent states

There is another really amazing new technology captured on video by Don Kennedy and Ryo Osuga of DigInfo.TV.
I think there are a lot of implications for building eco-friendly buildings and cars and having more flexibility with components in the future.
From DigInfo.TV:
AIST has developed a light-controlling sheet that can switch between mirror and transparent states. Using this sheet on window glass saves energy by effectively shutting out sunlight, greatly reducing the load on …

Brain Computer Interface used to control the movement and actions of an android robot

Researchers at the CRNS-AIST Joint Robotics Laboratory, are working on ways to control robots via thought alone.
“Basically we would like to create devices which would allow people to feel embodied, in the body of a humanoid robot. To do so we are trying to develop techniques from Brain Computer Interfaces (BCI) so that we can read the peoples thoughts and then try to see how far we can go from interpreting brain waves signals, to transform them into actions to be done by the …

Researchers measure 3D objects using just a camera and projector, can tell if you’ve ironed your shirt (video)

Researchers measure objects using just a camera and projector, can tell if you've ironed your shirt video

For years the projector and camera have served us well, performing their respective tasks. Now, researchers at Japan’s Advanced Industrial Science and Technology institute are using them together to measure 3D objects. By projecting a special pattern onto the subject and then using the camera to “read” the amount of distortion in the image, a three-dimensional model can be constructed. This thing is accurate, too, with precision down to 1 – 2mm which means it can measure wrinkles in clothes, or even details in hands. The technology can even be scaled to work with microscopes. The creators say that it could be used in video games (much like Kinect), and even for tracking athletes’ movements thanks to its ability to capture fast-moving images — something existing systems can struggle with. Jump past the break to see the tech in action.

Continue reading Researchers measure 3D objects using just a camera and projector, can tell if you’ve ironed your shirt (video)

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L’androïde Mahoro automatise le travail de laboratoire risqué

Mahoro, co-développé par AIST et Yaskawa, est un androïde universel utilisé pour l’automatisation de certaines tâches de laboratoire qui devaient auparavant être effectuées manuellement.
Le robot peut effectuer ces tâches, telles que la distribution et la culture, plus vite et plus précisément que les humains. Il peut donc effectuer des tests cliniques et travailler en condition de risque biologique efficacement.
Quand la précision, lors de tests d’amplification de gènes, de Mahoro …

Mahoro lab android automates dangerous lab work

Mahoro, co-developed by AIST and Yaskawa, is a general-purpose android for automating lab work that previously had to be done manually.
The robot can do tasks, such as dispensing and culturing, faster and more precisely than people. So, it can do clinical tests and work with biohazards efficiently.
“For example, to develop influenza drugs, we do infection trials every day, using virulent strains of influenza. This work is very hazardous, so it should be done by robots. We also have to do …