Brain Controlled Flight Advancing in Europe

© Brainflight
An EU-funded project has flown a drone controlled from the ground using only a person's brainwaves. The technology could one day make it easier to pilot larger aircraft, such as cargo jets, and result in safer airways, say the project's researchers. The BRAINFLIGHT project’s demonstration of a control system to interpret a humans brain signals and convert them into commands took place at a small airport near Lisbon, Portugal in May 2014. An operator wearing a skin-tight head cap that picks up electric signals from brain activity was able to control the drone's path by thinking about the movements he wanted it to take during the live test. The drone was a specially equipped model of a plane about half the length of a human. Essentially, the electricity flowing through a pilot's brain acts as an input to the drone's control system to follow a flight path, says project coordinator Andre Oliveira, of Tekever in Portugal. The demonstration results suggest that the technology could eventually be used to help pilots fly small aeroplanes and even large cargo jets more efficiently – increasing safety in the air. A more developed system, once authorised for use, could allow pilots to concentrate more than is currently possible on evaluating their current flight situation, while another part of their brain focuses simultaneously on controlling the plane. The system, in effect, transforms thoughts into an additional ‘hand’, or way to control flight. The project suggests that larger jets, such as cargo planes, could even be controlled this way without the need for a crew on board. But a fully developed system would take some time before it could become operational “during this century”, says Oliveira. Much more development work is needed, along with testing and regulatory clearance, before it can be put into commercial use. “This is an amazing high-risk and high-payoff project, with a long-term impact that will require a lot more development,” he adds. “We truly believe that BRAINFLIGHT represents the beginning of a tremendous step change in the aviation field, empowering pilots and reducing risks.” From theory to flight An increasing proportion of a pilot’s workload is related to managing flight, which requires checking instruments, verifying aircraft systems, navigating, observing the surroundings, and carrying out a number of pre-defined procedures – all while flying an aircraft. When pilots have to do both types of activities at the same time, such as when landing or flying in poor visibility, they need to divide their attention and cognitive skills between thosedifferent activities and become more prone to making errors, says Oliveira. BRAINFLIGHT based its research on previous studies that revealed how the brain’s neuron activity is capable of providing enough data to enable the control of electronic devices. The researchers adapted high-performance electroencephalogram (EEG) technology so it could issue instructions to software that can guide an aircraft. The project also investigated the best approaches to train pilots to use the technology. Test subjects were trained to use the system over a number of months until they were able to control a circle on a computer screen, moving it up or down using only their thoughts, simulating steering a drone. The subjects then successfully tested the system in a flight simulator for the Diamond DA42, a four-seat, propeller-driven aircraft. The later demonstration in Portugal using a drone controlled by a pilot on the ground marked the project’s conclusion in May 2014. Tekever is continuing to develop the demonstration system. The company says it believes people will eventually be able to “pilot aircraft just like they perform everyday activities like walking or running”. The technology could be adapted in the short term to enable people with physical disabilities to control aircraft, opening the way for them to become pilots, says Oliveira. The pilot is wearing a white cap with myriad attached cables. His gaze is concentrated on the runway ahead of him. All of a sudden the control stick starts to move, as if by magic. The airplane banks and then approaches straight on towards the runway. The position of the plane is corrected time and again until the landing gear gently touches down. DURING Maneuver the Entire Touches Neither the pilot Pedals nor controls. This is not A scene from A Science Fiction Movie, But rather the rendition of A test at the Institute for Flight System Dynamics of the Technische Universität München (TUM). Scientists working for Professor Florian Holzapfel are researching ways in which brain controlled flight might work in the EU-funded project "Brainflight." "A long-term vision of the project is to make flying accessible to more people," explains aerospace engineer Tim Fricke, who heads the project at TUM. "With brain control, flying, in itself, could become easier. This would reduce the work load of pilots and thereby increase safety. In addition, pilots would have more freedom of movement to manage other manual tasks in the cockpit." Another area of application is advanced prosthetics – the technology could enable people with severe physical disabilities to interact with their surroundings more easily. The project results could also be adapted to control other complex systems, like cars, boats and trains, says Oliveira. Contacts and sources: Research and Innovation: European Commission. Source: Article
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World’s most lifelike bionic hand will transform the lives of amputees

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A congenital amputee from London has become the first user in the UK to be fitted with a new prosthetic hand that launches this week and sets a new benchmark in small myoelectric hands.
Developed using Formula 1 technology and specifically in scale for women and teenagers, the bebionic small hand is built around an accurate skeletal structure with miniaturised components designed to provide the most true-to-life movements. The bebionic small hand, developed by prosthetic experts Steeper, will enable fundamental improvements in the lives of thousands of amputees across the world. The hand marks a turning point in the world of prosthetics as it perfectly mimics the functions of a real hand via 14 different precision grips. A bionic extension of the arm that enables the utmost dexterity will enable amputees to engage in a range of activities that would have previously been complex and unmanageable. Nicky Ashwell, 29, born without a right hand, received Steeper's latest innovation at a fitting by London Prosthetics Centre, a private facility providing expert services in cutting-edge prosthetics. Before being fitted with the bebionic small hand, Nicky would use a cosmetic hand without movement; as a result, Nicky learned to carry out tasks with one hand. The bebionic small hand has been a major improvement to Nicky's life, enabling her to do things previously impossible with one hand such as riding a bike, gripping weights with both hands, using cutlery and opening her purse. Nicky, who is a Product Manager at an online fashion forecasting and trend service, said: "When I first tried the  bebionic small hand it was an exciting and strange feeling; it immediately opened up so many more possibilities for me. I realised that I had been making life challenging for myself when I didn't need to. The movements now come easily and look natural; I keep finding myself being surprised by the little things, like being able to carry my purse while holding my boyfriend's hand. I've also been able to do things never before possible like riding a bike and lifting weights."  Bebionic small hand works using sensors triggered by the user's muscle movements that connect to individual motors in each finger and powerful microprocessors. The technology comprises a unique system which tracks and senses each finger through its every move – mimicking the functions of a real hand. Development follows seven years of research and manufacturing, including the use of Formula 1 techniques and military technology along with advanced materials including aerograde aluminium and rare Earth magnets. Ted Varley, Technical Director at Steeper said, "Looking to the future, there's a trend of technology getting more intricate; Steeper has embraced this and created a smaller hand with advanced technology that is suitable for women and teenagers. An accurate skeletal structure was firstly developed, with the complex technology then specifically developed to fit within this in order to maintain anatomical accuracy. In other myoelectric hands the technology is developed first, at the expense of the lifelikeness."Bebionic small hand at a glance: (1) Contains 337 mechanical parts (2) 14 grip patterns and hand positions to allow a range of precision movements (3) Weighs approximately 390g – the same as a large bar of Galaxy chocolate (4) 165mm from base to middle fingertip – the size of an average woman's hand (5) Strong enough to handle up to 45kg – around the same as 25 bricks (6) The only multi-articulated hand with patented finger control system using rare Earth magnets (7) Specifically designed with women, teenagers and smaller-framed men in mind, Source: Article
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