25 teams compete on a disaster-simulated course, and one winning robot will take home $2 million. CuriosityStream will bring you top of the line coverage of the event. Get up close with the robots, meet the brains behind the technology - and explore the past, present, and future of robots with our new lineup of Science/Technology programming. Join CuriosityStream and DARPA as we discover which robot will save the day!
From Lyndsey Gilpin for TechRepublic: The DARPA Finals will be held in Pomona, California from June 5-6, and the robots that come out of it could make some big impacts (or take over the world). Here's a summary of what you should know. 1. It began with the desire to improve humanitarian assistance and disaster relief The Fukushima disaster in Japan in 2011 was an inspiration for the competition, according to Dr. Gill Pratt, the DRC program manager. The team realized we never know what the next disaster will be, but we need technology to help us better address these types of disasters with better tools and techniques. And robots have massive potential. "The particular part that we've chosen to focus on, here, is technology for responding during the emergency part of the disaster during the first day or two," Pratt said in a media briefing several weeks before the competition. "So this is not about, for instance, robotics for doing the restoration of the environment many, many weeks, years after the disaster, but rather the emergency response at the beginning." Cont'd..
By David Szondy for Gizmag: One of the biggest events at the recent 2015 IEEE International Conference on Robotics and Automation (ICRA) in Seattle was the first Amazon Picking Challenge, in which 31 teams from around the world competed for US$26,000 in prizes. The challenge set entrants with the real-world task of building a robot that can do the same job as an Amazon stock picker.According to Amazon Chief Technology Officer Peter Wurman, who initiated the challenge, the task of picking items off the shelf may seem simple, but it involves all domains of robotics. The robot has to capable of object and pose recognition. It must be able to plan its grasps, adjust manipulations, plan how to move, and be able to execute tasks while noticing and correcting any errors. This might suggest that the robots would need to be of a new, specialized design, but for the Picking Challenge, Amazon made no such requirement. According to one participant we talked to, the more important factors were sensors and computer modelling, so ICRA 2015 saw all sorts of robots competing, such as the general purpose Baxter and PR2, industrial arms of various sizes, and even special-built frames that move up, down, left or right to position the arm. Even the manipulators used by the various teams ranged from hooks, to hand-like graspers, and vacuum pickups. Continue reading for competition results:
Qualcomm Announces 10 Companies Selected to Participate in the Qualcomm Robotics Accelerator, Powered by Techstars
Qualcomm is Jumpstarting the Next Wave of Innovation in Robotics with its Accelerator program
Clearpath Robotics announced the newest member of its robot fleet: an omnidirectional development platform called Ridgeback. The mobile robot is designed to carry heavy payloads and easily integrate with a variety of manipulators and sensors. Ridgeback was unveiled as a mobile base for Rethink Robotics' Baxter research platform at ICRA 2015 in Seattle, Washington. "Many of our customers have approached us looking for a way to use Baxter for mobile manipulation research - these customers inspired the concept of Ridgeback. The platform is designed so that Baxter can plug into Ridgeback and go," said Julian Ware, General Manager for Research Products at Clearpath Robotics. "Ridgeback includes all the ROS, visualization and simulation support needed to start doing interesting research right out of the box." Ridgeback's rugged drivetrain and chassis is designed to move manipulators and other heavy payloads with ease. Omnidirectional wheels provide precision control for forward, lateral or twisting movements in constrained environments. Following suit of other Clearpath robots, Ridgeback is ROS-ready and designed for rapid integration of sensors and payloads; specific consideration has been made for the integration of the Baxter research platform.
Money is flowing to robotics-related startup companies. Q1 saw 19 equity deals totaling $317 million, and 3 acquisitions of undetermined amounts, but money also flowed in April.
A man paralyzed by gunshot more than a decade ago can shake hands, drink beer and play "rock, paper, scissors" by controlling a robotic arm with his thoughts, researchers reported. Two years ago, doctors in California implanted a pair of tiny chips into the brain of Erik Sorto that decoded his thoughts to move the free-standing robotic arm. The 34-year-old has been working with researchers and occupational therapists to practice and fine-tune his movements. It's the latest attempt at creating mind-controlled prosthetics to help disabled people gain more independence. In the last decade, several people outfitted with brain implants have used their minds to control a computer cursor or steer prosthetic limbs. Full Article:
If your robotics research depends on accurate models, you may want to consider looking at MapleSim® 2015 - a high performance physical modeling and simulation tool developed by Maplesoft™.
ABB, a leading power and automation group, announced it acquired Gomtec GmbH to expand its offering in the field of collaborative robots. The parties agreed not to disclose financial terms of the transaction. Gomtec, based near Munich, Germany, is a privately held company that develops mechatronic systems combining mechanical, electrical, telecommunications, control and computer engineering for customers in diverse industries. It has 25 employees. Gomtec's technology platform will strengthen ABB's development of a new generation of "safe-by-design" collaborative robots that can be operated outside of cages or protective fencing, expanding opportunities to deploy them in new applications.
By David Szondy for Gizmag: On June 5 and 6, the 2015 DARPA Robotic Challenge (DRC) Finals will take place at Fairplex in Pomona, California. Open to the public, it will see 25 international teams compete for US$3.5 million in prizes as part of an effort to develop robots for disaster relief. Here's what to expect. This year's challenge will see 25 teams competing. Half of the teams are from the United States, five are from Japan, three from Korea, two from Germany, one from Italy, one from Hong Kong, and one from the People’s Republic of China. They will be vying for a US$3.5 million total of prizes; including a $2 million first prize, a $1 million second prize, and a $500,000 third prize. The robots will be of a wide variety with some humanoid, some four-legged, and some tracked, but all will need to operate free of external power, mechanical support, and limited communications with their controllers. The basic idea behind DRC 2015 is to make things much harder for the robots than previously.
By Sharon Gaudin for ComputerWorld: Worried that one day we'll have robot overlords? You're in good company. Reknowned physicist, cosmologist and author of A Brief History of Time, Stephen Hawking said this week that robots, powered by artificial intelligence (A.I.), could overtake humans in the next 100 years. Speaking at the Zeitgeist conference in London, Hawking said: "Computers will overtake humans with AI at some within the next 100 years. When that happens, we need to make sure the computers have goals aligned with ours," according to a report in Geek. This isn't the first time Hawking has spoken about the threat that comes along with machine learning, A.I. and robotics. In December, Hawking said, "the development of full artificial intelligence could spell the end of the human race."
This cell is divided into 4 stations: A manual loading/unloading station and three process stations where tank openings are cut and numerous components welded on.
RoboUniverse, robotics’ annual meeting of the minds, is rolling out in New York City this week—and in the keynote address today, we learned where the best robotics work in the world is happening. In it, he shared a list of world cities that are pretty much killing it in the robotics sphere. The innovation centers are, in no particular order: 1. Boston 2. Pittsburgh 3. San Jose/San Francisco (Silicon Valley) 4. Tokyo 5. Osaka 6. Seoul 7. Munich What determined this list? Kara said that robot innovation centers all share proximity to “excellent universities,” and regularly contribute to robotics R&D. It’s also hard to deny each location’s contributions to robotics so far: Silicon Valley and Tokyo are gimmes, but not everyone might be aware of the others.
The 2015 Prize for Contributions in Soft Robotics rewards academic researchers for sharing their work and advancing the field. The competitions include $10,000 in prizes!
Fanuc claims that it is the first robot manufacturer to produce a heavy-duty robot designed to work safely alongside humans. Its CR-35iA robot can perform tasks involving payloads of up to 35kg without needing the protective guards and fences that have previously been needed for robots with similar lifting capacities. Although there are already several other collaborative robots on the market, most are designed for much lower payloads. The new robot will stop automatically if it touches a human operator. A soft covering material also reduces the force of any impacts and prevents human operators from being pinched by the mechanism. And if the robot comes too close to an operator, they can simply push it away. The covering has a green colour to distinguish it from Fanuc’s usual yellow robots. The six-axis robot is designed for duties such as transferring heavy workpieces or assembling parts. By avoiding the need for safety barriers, it is claimed to improve production efficiencies and allow higher levels of automation.
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Industrial Robotics - Featured Product
The ST Robotics Workspace Sentry robot and area safety system are based on a small module that sends an infrared beam across the workspace. If the user puts his hand (or any other object) in the workspace, the robot stops using programmable emergency deceleration. Each module has three beams at different angles and the distance a beam reaches is adjustable. Two or more modules can be daisy chained to watch a wider area. "A robot that is tuned to stop on impact may not be safe. Robots where the trip torque can be set at low thresholds are too slow for any practical industrial application. The best system is where the work area has proximity detectors so the robot stops before impact and that is the approach ST Robotics has taken," states President and CEO of ST Robotics David Sands.