‘Avoid cat’, or ‘torment cat’?
This arcle was originally published at The ConversaTIon. The publicaTIon contribud the arTIcle to Live Science's Expert Voices: Op-Ed & Insights.
James Dyson’s decision to fund a robotics laboratory at Imperial College London may not le to the super advanced robot friends of our dre, but what he has planned could make robotic domestic liances signicantly more realistic.
The Dyson Robotics Laboratory is a £5 llion collaboration between the British-based domestic technology company and one of the UK’s leng computer science departments. Researche at the centre will investigate how to help robots not only sense their surroundings but be able to identify objects within their immediate environment. This, it is hoped, will mean a robot could sort out your dirty washing or clear a table.
It seems everyone is getting in on the robotics act lately. The UK government has highlighted the field among its eight top priorities for science spending and the European Commission has pledged new funding for robotics research.
Google has bought both Boston Dynamics, famous for its animal-like robots, and artificial ligence specialists DeepMind. Amazon, meanwhile, is teasing us with promises of deliveries-by-drone in the future.
Dyson’s comments about creating “machines that see and think in the way that we do” have inevitably to excitement about futuristic robot servants. We should try to contain our excitement on this front as we are likely to be disappointed. It is highly unlikely the Dyson lab or any of the other bold plans announced over the past 12 months will lead to robots capable of learning or acting like humans. Most robots, even the most sophisticated, are still usually only capable of doing one thing. The difficulties of robotic perception, cognition and action in the real world are such that the required general purpose intelligence is still many generations away.
But this new centre is not about general purpose intelligence. It is focusing on 3D sensing, a fairly well understood robotics technology that could realistically produce applications in the near term future.
From 2D to 3D
Most tasks a robot must do, say, grasng objects or driving through crowds, involve measuring. For many years robots could only measure in 2D, typically using sonar or laser. The jump to 3D is essential, and has been made possible by devices such as the Microsoft Kinect and also by monocular visual SLAM, a technique pioneered by Andrew Davidson, the very man who will lead the new Dyson lab.
“Monocular” means this technique uses just one camera, while “visual” means the camera uses normal, visible light, unlike the Kinect, which uses infrared. This is important as normal light captures useful information about the world, such as colour, which is useful for telling objects apart, and shadows that help indicate shape and position, neither of which are visible in other bandwidths.
The “SLAM” part stands for simultaneous localisation and mapping. This is the technique of building a map – a 3D picture of the world – while working out where you are on that map at the same time. When a robot moves around a room, visual SLAM is peormed by finding distinctive parts of an image, then tracking how these parts move as the robot moves.
SLAM is an essential technology in almost all robots that move around, as it allows them to work out where they are. A 3D map can also allow a robot to find objects in its environment, such as your keys, or avoid obstacles, such as your cat. It can also use the map to decide how best to do things, such as hoovering your floor using the shortest route possible.
Cameras are an ideal sensor for a home robot because they can be small, light and cheap. This means future Dyson home robots will be able to map your home in 3D for very little extra cost. Images from cameras can also be used for object and face recognition, which would make robotic home help even more efficient.
The Dyson lab won’t bring us Rosie the Robot Maid any time soon but this investment could open the way for a new generation of single-purpose intelligent domestic appliances. It could bring us the robot vacuum that can clean around your complicated media centre and perhaps even something that can tidy up a child’s bedroom without putting everything in the wrong place. That’s a pretty enticing prospect for most parents.
Nick Hawes researches and teaches robotics at the University of Birmingham. He receives funding from both EPSRC and the European Commission to research robotics technology and its application to a range of domains including security and healthcare.
This article was originally published on The Conversation. Read the original article. The views expressed are those of the author and do not necessarily reflect the views of the publisher. This version of the article was originally published on Live Science.
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