This Microsoft robotics test developer built this remote controlled robot to play with his dog while he was at work.
Related: Remote Presence Robot – Swarmanoid: Cooperative Robot Networks – Automatic Dog Washing Machine
This Microsoft robotics test developer built this remote controlled robot to play with his dog while he was at work.
Related: Remote Presence Robot – Swarmanoid: Cooperative Robot Networks – Automatic Dog Washing Machine
If you have a child, niece, nephew, grandchild… who you haven’t been able to convince about the wonders of science maybe the starts on this promo (Justin Timberlake, Snoop Dogg, Justin Bieber…) can help convince them. If you want to convince your grandparents science is cool, then maybe they will like the cameos by Steven Tyler and Bono 😛 This is an effort being pushed by will.i.am (Black Eyed Peas) and Dean Kamen (US First Founder) to promote science and engineering. Since most politicians don’t seem interested in promoting and supporting science anymore maybe musicians can help turn things around.
I have written about US First, it is a great program. It engages children in learning by taping their curiosity and desire to create. I think learning this way is much more natural and fun and affective than what we have too often in schools today. I know I was bored quite often but was told the adults knew best. Well know I am an adult and I think I was right back then: our education system can, and should be greatly improved. Until then, US First, and similar, programs give kids a good environment for learning that keeps their desire to learn intact.
The video spot was created to promote a TV show commemorating the 20th annual US FIRST Robotics competition. Watch the TV show:
Related: Lunacy, FIRST Robotics Challenge 2009 – For Inspiration and Recognition of Science and Technology (FIRST), 2005 post – Test it Out, Experiment by They Might Be Giants – Botball 2009 Finals
This is a very cool engineering solution. Wheeled locomotion is very efficient on the right terrain. This transformation lets the robot switch to climb stairs and handle rough terrain very nicely. A team of mechanical engineers at National Taiwan University built this energy-efficient leg-wheel hybrid mobile robot. From their description:
Based on this observation, shifting the hip joint out of the center of the circular rim and changing the continuous rotation motion to other motion patterns implies the locomotion switches from wheeled mode to legged mode. This motivated us to design a mechanism that directly controls the relative position of the circular rim with respect to the hip joint so it can generate both wheeled and legged motions. Because the circular rim is a 2-dimensional object, the most straightforward method to achieve this goal is to add a second degree of freedom (DOF) that can adjust the relative position of the hip joint to the center of the circular rim along the radial direction. The motions of the two DOFs are also orthogonal to each other. In addition, the same set of actuation power can be efficiently used in both wheeled and legged modes.
Related: Big Dog, The Robotic Dog (2008) – Robots That Start as Babies Master Walking Faster Than Those That Start as Adults – Self Re-assembling Robots – Soft Morphing Robot (soft tissue)
Anybots allow remote presence today. They can be rented for just $600 a month. You can purchase your own for just $15,000.
The newest version, just unveiled at a CES has a much bigger screen (which seems very wise to me).
This is another example of robots making it into real use. While I am sure few workplaces are ready for this jump today, 10 or 20 years from now a telepresence robot (that can do much more) is likely I think to be significantly used. Not only will functionality increase, prices will drop dramatically: as the wonderful combination so often happens with technology. There is a great deal of effort going into making commercial viable “personal” robots. I think these efforts will make significant inroads in the next 10-20 years.
My old office wouldn’t have been willing to pay $15,000 but one of our developers looked into creating his own (after he moved and was working remotely). He hasn’t quite gotten it done yet, but may at some point.
Related: Managing By Rolling Around (I like how the robot owner used the robot to have his mother attend his wedding (and dressed up the robot) – Robot Finds Lost Shoppers and Provides Directions – New Yorkers Help Robot Find Its Way in the Big City – Toyota Partner Robots

Robotic prison wardens to patrol South Korean prison
The country’s Ministry of Knowledge Economy said in January that it had spent the equivalent of £415m on research in the sector between 2002 and 2010. It said the aim was to compete with other countries, such as Japan, which are also exploring the industry’s potential.
In October the ministry said the Korean robot market had recorded 75% growth over the past two years and was now worth about £1 billion…
The potential market for robotics is huge. Smart countries are investing in becoming the centers for excellence in that area. Japan and South Korea may well be in the lead. The USA, Germany and China also have strong communities.
Related: Robot Finds Lost Shoppers and Provides Directions – The Robotic Dog (2008 post) – Soft Morphing Robot Future – Honda’s Robolegs Help People Walk – Roachbot: Cockroach Controlled Robot
Dennis Hong is the U.S. star in humanoid robotics
Korean fathers of that era were strict and remote. Hong’s father was engaged and intellectually indulgent. He installed a work bench in Dennis’s room when he was 4, complete with a hammer and saw. He led the children in chemistry experiments and brought home model airplanes from America.
Dennis Hong built things with scraps of wood and metal and bits of plastic. He disassembled toys and stored the parts in a chest beneath his bed.
“We spent a lot of time building things and breaking things,” said Julie Hong, Hong’s older sister. “He was the one who broke things the most and built things the most.”
…
Hong traveled to America to complete his university study, following his father’s credo, “Big fish must swim in the big sea.” He earned a bachelor’s in mechanical engineering at the University of Wisconsin and a master’s and doctorate at Purdue.
Dennis’ success illustrates several themes repeated in posts on this blog: the USA attracting talent from overseas, kids curiosity and exposure to science and engineering leading to great things, the value of strong science and engineering programs and professors. Robotics continue to progress very quickly. The economic impact of robotics is large already (largely in manufacturing) and will continue to grow dramatically. Likely robots will find their way into much more diverse areas over the next 2 decades. The Robotics and Mechanisms Laboratory, lead by Dennis Hong, seems poised to play a big role in that future.
Related: Robocup 2010, Robot Football – Soft Morphing Robot Future – Evolution of Altruism in Robots – Toyota Develops Thought-controlled Wheelchair
Very cool cooperation between robots. It seems more and more research is going on in cooperative robotics. It would seem this would let us have specialized robots for various tasks instead of having to have robots that can do everything (which is very complex and difficult). Plus cooperating robots are just cool. See the Swarmanoid project web site and the overarching Swarmbot site. I look forward to what these scientists and engineers can create for us.
Related: Robots Working Together to Share Talents (2006) – Autonomous Helicopters Teach Themselves to Fly – Underwater Robots Collaborate
Curiosity is the name of the new rover from NASA. It will be launched to continue the exploration of Mars so successfully done by Spirit and Opportunity (2 previous Mars rovers that did some amazing work and laster years longer than expected). The rover is NASA’s Mars Science Laboratory, a mobile robot for investigating Mars’ past or present ability to sustain microbial life.

Once on the surface, the rover will be able to roll over obstacles up to 75 centimeters (29 inches) high and travel up to 90 meters per hour. On average, the rover is expected to travel about 30 meters per hour, based on power levels, slippage, steepness of the terrain, visibility, and other variables.
The rover is about the size of a small SUV — 10 feet long (not including the arm), 9 feet wide and 7 feet tall. It weighs 900 kilograms (2,000 pounds)
The rover will carry a radioisotope power system that generates electricity from the heat of plutonium’s radioactive decay. This power source gives the mission an operating lifespan on Mars’ surface of a full martian year (687 Earth days) or more, while also providing significantly greater mobility and operational flexibility, enhanced science payload capability, and exploration of a much larger range of latitudes and altitudes than was possible on previous missions to Mars.
Related: Mars Rover Continues Exploration – Mars Rovers Getting Ready for Another Adventure (2007) – Sunset on Mars
The webcast explores robots evolving cooperative behavior. A Quantitative Test of Hamilton’s Rule for the Evolution of Altruism (open access paper)
By conducting experimental evolution over hundreds of generations of selection in populations with different costs and benefits of altruistic behavior, we show that kin selection theory always accurately predicts the minimum relatedness necessary for altruism to evolve. This high accuracy is remarkable given the presence of pleiotropic and epistatic effects, as well as mutations with strong effects on behavior and fitness. In addition to providing a quantitative test of kin selection theory in a system with a complex mapping between genotype and phenotype, this study reveals that a fundamental principle of natural selection also applies to synthetic organisms when these have heritable properties.
Related: Robots That Start as Babies Master Walking Faster Than Those That Start as Adults – Friday Fun: Robocup 2010, Robot Football – Toyota Develops Thought-controlled Wheelchair
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In a first-of-its-kind experiment, Bongard created both simulated and actual robots that, like tadpoles becoming frogs, change their body forms while learning how to walk. And, over generations, his simulated robots also evolved, spending less time in “infant” tadpole-like forms and more time in “adult” four-legged forms.
These evolving populations of robots were able to learn to walk more rapidly than ones with fixed body forms. And, in their final form, the changing robots had developed a more robust gait — better able to deal with, say, being knocked with a stick — than the ones that had learned to walk using upright legs from the beginning.
Bongard’s research, supported by the National Science Foundation, is part of a wider venture called evolutionary robotics. “We have an engineering goal,” he says “to produce robots as quickly and consistently as possible.” In this experimental case: upright four-legged robots that can move themselves to a light source without falling over.
Using a sophisticated computer simulation, Bongard unleashed a series of synthetic beasts that move about in a 3-dimensional space. “It looks like a modern video game,” he says. Each creature — or, rather, generations of the creatures — then run a software routine, called a genetic algorithm, that experiments with various motions until it develops a slither, shuffle, or walking gait — based on its body plan — that can get it to the light source without tipping over.