BY HANNAH ROSE MENDOZA for 3DPrint.com: Soft robotics is a relatively new field of research that aims to create flexible robots that are more easily adaptable to human interaction. Often, the forms of these creations and the mechanics of their movement are inspired by a close study of nature in an effort to ‘go organic’ with machines. 3D printing with flexible filament is one way in which this integration of robot and movement is taking on a flexible aspect.
For this particular installation, titled Exo-biote, the National Institute for Research in Computer and Control and the Department of Science and Visual Culture at the Imaginarium worked together, with support from Neuflize Bank, to create a robot organism that embodied the formal typologies and demonstrated the possibilities for movements in soft robots. After all, some of nature’s most amazing machines have nearly entirely soft bodies – think of the octopus, for example, able to lift, carry, walk, swim, shape change, camouflage itself, and fit through a tube no bigger than a quarter! Cont'd...
Richard Waters for FT.com: Toyota has hired the top robotics expert from the US defence department’s research arm and promised $50m in extra funding for artificial intelligence research, as it steps up the race between the world’s biggest carmakers to pioneer new forms of computer-assisted driving.
However, the Japanese carmaker maintained on Friday that completely driverless cars were still years away, and that AI and robotics would have a more complex effect on the relationship between humans and their vehicles than Google’s experiments with “robot cars” suggest.
Gill Pratt, who stepped down recently from the Defense Advanced Research Projects Agency (Darpa), will move to Silicon Valley to head Toyota’s robotics efforts, the company said. Darpa played a key role in stimulating interest in driverless cars with a competition in 2005 — the leader of the winning entry, Sebastian Thrun, who was then a professor at Stanford University, went on to found Google’s driverless car programme. Cont'd...
By Dian Schaffhauser for Campus Technology: A doctoral program at Michigan State University has begun experimenting with the use of robots to pull on-campus and off-campus students closer together in class. The Educational Psychology and Educational Technology (EPET) doctoral program focuses on the study of human learning and development and diverse technologies supporting learning and teaching. During a spring course in 2015 all but one student participated by being present in the form of an Apple iPad affixed to a swivel robot that was stationary; one student was on a robot that could move around the classroom.
As Christine Greenhow, the faculty member who led the seminar course, explained, the experiment was intended to expand beyond traditional Web presence of online students. "When you are using videoconferencing, it's very common to see all these different faces on the screen if you're here in the classroom and not really know where to look. It creates this distance between the speaker who's online and the speakers in the class," she said in a video about the project. "What if we could put online students in the classroom in a robot? How would their presence change?" Cont'd...
Bot-maker Savioke announces an open-source wrapper for Intel's RealSense Camera, adding another low-cost 3D sensing solution to the roboticist's toolkit.
The wrapper will allow developers to make use of the RealSense Camera, which enables robots to sense rich three-dimensional environments. "Intel RealSense Cameras bring great low-cost depth sensing to robotics, in a platform that is widely available and easy to integrate using ROS," says Steve Cousins, CEO of Savioke.
Until recently, bot makers looking to incorporate 3D sensing on the cheap have relied on a sensor made by Israeli company PrimeSense. But in late 2013 PrimeSense was acquired by Apple for $350M, an indication of just how much potential the Cupertino-based giant sees in 3D sensing technology.
Since the acquisition, robot developers have been eager for a flexible and cheap depth sensor. Intel, meanwhile, is making an aggressive move into the world of robotics, and the company was thrilled to offer ROS support for RealSense.
Boston Dynamics have developed the "Atlas" robot a highly mobility, humanoid robot designed to negotiate outdoor, rough terrain. Here is a video showing "Atlas" courtesy euronews.
MIT researchers have designed a human-machine interface that allows an exoskeleton-wearing human operator to control the movements and balance of a bipedal robot.
The technology could allow robots to be deployed to a disaster site, where the robot would explore the area, guided by a human operator from a remote location.
"We'd eventually have someone wearing a full-body suit and goggles, so he can feel and see everything the robot does, and vice versa," said PhD student Joao Ramos of Massachusetts Institute of Technology's Department of Mechanical Engineering.
"We plan to have the robot walk as a quadruped, then stand up on two feet to do difficult manipulation tasks such as open a door or clear an obstacle," Ramos said. Cont'd...
Engineers use the environment to give simple robotic grippers more dexterity.
Engineers at MIT have now hit upon a way to impart more dexterity to simple robotic grippers: using the environment as a helping hand. The team, led by Alberto Rodriguez, an assistant professor of mechanical engineering, and graduate student Nikhil Chavan-Dafle, has developed a model that predicts the force with which a robotic gripper needs to push against various fixtures in the environment in order to adjust its grasp on an object.
By Matt Beane for MIT Technology Review: I think perhaps there’s something else at work here. Beyond building robots to increase productivity and do dangerous, dehumanizing tasks, we have made the technology into a potent symbol of sweeping change in the labor market, increased inequality, and recently the displacement of workers. If we replace the word “robot” with “machine,” this has happened in cycles extending well back through the Industrial Revolution. Holders of capital invest in machinery to increase production because they get a better return, and then many people, including some journalists, academics, and workers cry foul, pointing to the machinery as destroying jobs. Amidst the uproar, eventually there are a few reports of people angrily breaking the machines.
Two years ago, I did an observational study of semiautonomous mobile delivery robots at three different hospitals. I went in looking for how using the robots changed the way work got done, but I found out that beyond increasing productivity through delivery work, the robots were kept around as a symbol of how progressive the hospitals were, and that when people who’d been doing similar delivery jobs at the hospitals quit, their positions weren’t filled. Cont'd...
Mike Murphy for Quartz: 3D printing has been hailed as the future of manufacturing for years now. Consumers and investors were sold on the idea of being able to print anything at any time from a little box in their houses. But that Jetsons-like vision hasn’t come to pass. The 3D printers available to consumers are great for making small prototypes or tchotchkes. But they’re still slow, inaccurate and generally only print one material at a time. And that’s not going to change any time soon.
That reality is setting in for 3D printer makers. Stratasys, which owns MakerBot and is one of the world’s largest manufacturers of commercial and industrial 3D printers, announced its fifth straight quarter of losses today. 3D Systems, which was founded by the man who invented 3D printing—Chuck Hull—isn’t faring much better.
Wall Street’s interest in 3D printing seems to have peaked in the first week of 2014: The stock prices for both Stratasys and 3D Systems were at their highest on January 3 last year. Stratasys had completed the purchase of MakerBot—which has been called the “Apple” of 3D printing—about three months earlier, and it looked as if things were on the up. But a little over a year later, MakerBot laid off a fifth of its staff, closed its stores, and started focusing on selling to schools.
As it stands, it seems that the market is retracting to industrial printers, for companies that benefit from rapidly prototyping objects. 3D printing makes a lot of sense when companies can quickly model and print their ideas—anything from new bike helmets to car doors or sprockets. These are where (relatively) cheap, disposable plastic models thrive, as companies can churn out all the models they need, and then turn to more traditional automated processes, like CNC milling or vacuum forming, to build their final product at scale, using materials that will actually last. Cont'd...
BY BRIAN KRASSENSTEIN for 3DPrint.com: There are several ways one can diversify their holdings within any market. An investor could simply research which firms are out there within a particular industry, like the 3D printing industry, and invest small amounts into each by purchasing shares. The easiest way, however, would be to find a fund that’s going to do all the work for you, managed by someone who likely has more experience in the market than you do. There is currently only one main fund which concentrates their efforts primarily on the 3D printing space, the 3D Printing and Technology Fund (TDPNX), managed by CEO Alan M. Meckler, and his son John M. Meckler.
While the fund is currently down approximately 13% YTD, it has outperformed the two largest pure play 3D printing stocks, 3D Systems (NYSE:DDD) and Stratasys (NASDAQ:SSYS), significantly. 3D Systems is down over 44% on the year, and Stratasys down a staggering 58.5%.
Today the fund is making a major change, one that the Mecklers feel should increase opportunity for investors. Up until this point, the fund allocated at least 80% of their capital to what they defined as ‘3D printing companies’ and ‘technology companies’. Today this changed, along with the fund’s official name. The fund’s new name will now be ‘3D Printing, Robotics and Technology Fund,’ while going forward 80% of their capital will now be allocated to what they define as ‘3D printing companies,’ ‘robotics companies’ and ‘technology companies.’ Cont'd...
Manny Salvacion for YIBADA: Robotics education and its important application in engineering has reportedly taken off in China over the past years, as robots have become increasingly popular among people, the China Daily reported.
Liang Yujun, head of the science education department at Beijing Youth Center, said that there are nearly 300 primary and middle schools in Beijing offering robotics-related curricula and activities now.
Liang is in charge of robotics education in the capital and also the general referee of the national youth robotics activity. According to Liang, only about 20 schools had such curricula and activities in the early 2000s.
The report said that about 3,000 registrants from 160 schools and extracurricular teams participated in the 2014 Beijing Student Robotic Intelligence Competition.
"We have to hold the competition in one of the city's largest sports fields now, which can accommodate the increasing number of players," said Liu Yi, who is charge of running the competition at the Youth Center in Haidian District.
Liu said that the competition, which began in 2012, reflects the dramatic growth of robotics education in the country. Cont'd...
Neil Hopkinson, a professor of mechanical engineering at the University of Sheffield in the United Kingdom, has been developing the new method, called high-speed sintering, for over a decade.
Laser sintering machines build objects by using a single-point laser to melt and fuse thin layers of powdered polymer, one by one. Hopkinson replaced the laser system, which is both expensive and slow, with an infrared lamp and an ink-jet print head. The print head rapidly and precisely delivers patterns of radiation-absorbing material to the powder bed. Subsequently exposing the powder to infrared light melts and fuses the powder into patterns, and the machine creates thin layers, one by one—similar to the way laser sintering works, but much faster.
Hopkinson’s group has already shown that the method works at a relatively small scale. They’ve also calculated that, given a large enough building area, high-speed sintering is “on the order of 100 times faster” than laser sintering certain kinds of parts, and that it can be cost competitive with injection molding for making millions of small, complex parts at a time, says Hopkinson. Now the group will actually build the machine, using funding from the British government and a few industrial partners. Cont'd...
Robots have been doing tough jobs for over half a century, mostly in the automotive sector, but they’ve probably had a bigger impact in Hollywood movies than on factory floors.
That’s about to change.
Today’s robots can see better, think faster, adapt to changing situations, and work with a gentler touch. Some of them are no longer bolted to the factory floor, and they’re moving beyond automotive manufacturing. They’re also getting cheaper.
These improvements are helping to drive demand. In fact, we expect the global industrial robot population to double to about four million by 2020, changing the competitive landscape in dozens of fields — from underground mining to consumer goods and aerospace manufacturing. Robots will allow more manufacturers to produce locally and raise productivity with a knowledge-based workforce. Cont'd...
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