{"id":57109,"date":"2013-08-29T20:40:06","date_gmt":"2013-08-30T00:40:06","guid":{"rendered":"http:\/\/rbachnet.wwwmi3-ss40.a2hosted.com\/index.php\/"},"modified":"2022-08-15T14:34:18","modified_gmt":"2022-08-15T18:34:18","slug":"what-ford-will-learn-about-the-connected-car-from-space-robots","status":"publish","type":"post","link":"https:\/\/rbach.net\/index.php\/what-ford-will-learn-about-the-connected-car-from-space-robots\/","title":{"rendered":"Ford Studies Space Bots for Better Cars"},"content":{"rendered":"

I\"Ford<\/a>n its efforts to build a better, connected car<\/a>,\u00a0Ford<\/a><\/strong> (F<\/a>) is doing research in a rather odd place the International Space Station.<\/strong> Kevin Fitchard<\/a> at GigaOM<\/a><\/em> is reporting<\/a> that the Dearborn, Michigan-based automaker is entering into a three-year project with St. Petersburg Polytechnic University<\/a> to study how space-based research and exploration robots communicate<\/strong> through telematics networks.<\/p>\n

\"Ford<\/a>What do space robots have to do with cars? The article explains that the next generation of space-based robots<\/strong> will be some of the most hyper-connected machines<\/strong> in the universe, relying on multiple radio technologies<\/strong> to communicate with the space station, the astronauts they\u2019re meant to help, and human controllers back on Earth. Though robots will be able to act with some autonomy, they\u2019ll constantly be coordinating with computers and maybe even other robots<\/strong>.<\/p>\n

Ford believes that the future connected car will function much the same way, acting semi-autonomously while coordinating its activities with cloud traffic management systems as well as the highway infrastructure and vehicles around them<\/strong>. Just as robots use multiple radio technologies to keep up those different \u201ctethers\u201d to mission control, future cars will come outfitted with multiple network links, from LTE to dedicated short-range communications<\/a> (DSRC) to Wi-Fi mesh.<\/p>\n

\"RobonautWhat Ford is particularly interested in are the redundancies that St. Petersburg Polytechnic is developing for its robot telematics networks. As you can imagine, having your control link to a robot cut isn\u2019t something any astronaut wants to deal with \u2014 in the hazardous environment of space or in the limited confines of a space station, retrieving your suddenly unresponsive robot is a lot harder than it sounds.<\/p>\n

But that broken control link could then be routed over different networks. They could use a wireless local area network intended for internet access, or a direct radio link to another robot. The guy with the joystick in his hand may have to take a more circuitous route to communicate with his metallic friend, but he\u2019ll still be able to communicate.<\/p>\n

\"DLRThe blog says that the same principle applies to the connected car. As cars become more intelligent<\/strong> and autonomous, they\u2019ll depend on an array of sensors and network connections<\/strong><\/a> to feed them information. Cars will form vast constantly shifting ad hoc networks<\/strong><\/a>, transmitting information to one another about their acceleration, braking, lane changes, and even eventual destinations, which in turn will allow them to coordinate their driving. Vehicles will also communicate with highway infrastructure around them and connect to the internet through cellular connections. According to Ford technical leader in systems analytics Oleg Gusikhin:<\/p>\n

“We are analyzing the data to research which networks are the most robust and reliable for certain types of messages, as well as fallback options if networks were to fail in a particular scenario. In a crash, for example, a vehicle could have the option to communicate an emergency though a DSRC, LTE or a mesh network based on the type of signal, speed and robustness required to reach emergency responders as quickly as possible.\u201d<\/p><\/blockquote>\n

Though Ford\u2019s initial focus is on using telematics redundancy to route emergency communications, GigaOM<\/em> concludes that it is it\u2019s easy to see how these multi-node networks could be used in other scenarios.<\/p>\n

\"Satelite\"<\/a>Mr. Fitchard argues that If the vehicle-to-vehicle radios in your car were to suddenly go down, chances are you\u2019d want to take direct control of the wheel, but that doesn\u2019t mean your car has to go off-grid. Other radios could communicate with the vehicle-to-infrastructure network or even the cloud through a cellular connection, which could then pass on your car\u2019s sensor data to other vehicles around you. Those other vehicles could in turn use the same channels to pass key information back to your car, for instance, warning you of accidents or traffic jams ahead.<\/p>\n

If vehicles were able to securely share their connections<\/strong>, we could always communicate with the internet and critical transportation systems by the most efficient \u2013 and often cheapest \u2014 means possible<\/strong>. So say instead of streaming high-quality audio over an expensive LTE connection, cars could use their vehicular mesh to pass the stream along from a highway access point car to car until it reached your dashboard.<\/p>\n

Ford\u2019s project with St. Petersburg Polytechnic will focus on multiple robots, including the General Motors<\/a> (GM<\/a>) – NASA-designed Robonaut 2<\/a>, which is already aboard the ISS; the European Space Agency<\/a>\u2019s Eurobot Ground Prototype<\/a>, a robotic assistant designed to aid astronauts on a planet\u2019s surface, and Justin<\/a>, a humanoid robot designed by Germany\u2019s DLR for fine-grained manipulation of objects<\/p>\n

rb-<\/em><\/strong><\/p>\n

I covered GM’s Robonaut earlier<\/a> as well as connected cars, here<\/a> and here<\/a>.<\/em><\/p>\n

Related article<\/h6>\n