QUT Researchers Develop Smarter, Energy-Efficient Navigation System for Robots

QUT Researchers Develop Smarter, Energy-Efficient Navigation System for Robots
 
QUT Researchers Develop Smarter, Energy-Efficient Robots by Studying Animal Brains
QUT Researchers Develop Smarter, Energy-Efficient Navigation System for Robots

A team of Queensland University of Technology (QUT) academics have uncovered a revolutionary finding that might completely change robot energy consumption and navigation. They have created a smarter, more energy-efficient navigation system for robots by learning how insects and animals move and make judgements.

Under the direction of Somayeh Hussaini, the study team concentrated on deciphering animal brain functions in order to design a system that might operate with robots, especially in settings with limited power, including space missions or disaster relief activities.

This invention depends on something known as Spiking Neural Networks (SNNs). These networks are meant to replicate animal brain information processing. SNNs use short, sharp signals far more energy-efficient than conventional artificial neural networks, instead of continuous signals. This approach lets robots make faster and more effective decisions without wasting their power, much as animals make split-second decisions with less energy.

Promising findings were obtained when the system was effectively tested on a low-powered robot. In tests, the robot—just as an animal would in nature—used the new energy-efficient navigation system to negotiate several challenges. The capacity of this system to accomplish this with a fraction of the energy typically required by conventional robotic systems distinguishes it.

Robots that must function in hostile or far-off locations could find great ramifications from this discovery. Robots employed in space exploration or search-and-rescue operations, for example, frequently have little power and must be able to manoeuvre efficiently free from heavy energy resources. Thanks to this fresh advancement, robots could be able to operate for longer periods in these surroundings, therefore enhancing their value in crucial conditions.

Understanding how animals and insects negotiate their environment has helped Hussaini and her colleagues create not just more sustainable but also smarter robots. Their studies reveal how knowledge of nature could result in more in line technological developments using the resources at hand. Making robots that are not only more capable but also better in terms of energy conservation marks an amazing progress.

This innovative navigation method could revolutionise robotics as technology develops by enabling machines to run longer and smarter with least environmental impact. The team's work is a shining illustration of how observing the natural world could motivate answers to some of the most urgent technological problems we now confront.

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