Researchers have introduced a supercomputer designed to mimic human brain functions.
This cutting-edge neuromorphic system can execute an impressive 228 trillion operations per second, distinguishing itself with its unique design, superior efficiency, and wide range of potential uses.
Researchers at the International Centre for Neuromorphic Systems (ICNS) at Western Sydney University have announced the world’s first supercomputer, DeepSouth, capable of emulating networks on the scale of the human brain.
This supercomputer uses a unique neurmorphic system, working like our brains do. It is swift, carrying out 228 trillion operations per second, about as quickly as the human brain.
ICNS Director Professor Andre van Schaik pointed out that DeepSouth stands out in its design model. Conventional prototypes focus on standard computing and are energy-intensive, while DeepSouth is crafted to resemble brain-like networks, cutting down on power usage and boosting efficiency.
Schaik told the press that progress in understanding how brains work is limited because it is difficult to imitate large neural networks effectively. He noted that the current method of simulating these brain cell networks on standard computers, which involves graphics processing units (GPUs) and powerful processors with multicore central processing units (CPUs), is inefficient and consumes much energy.
DeepSouth, however, overcomes these limitations. “This platform will progress our understanding of the brain and develop brain-scale computing applications in diverse fields, including sensing, biomedical, robotics, space, and large-scale AI applications,” he said.
The development of DeepSouth is a joint project involving the Universities of Sydney and Melbourne in Australia as well as Aachen in Germany. They aim to advance smart device technology significantly, improving mobile phones, industrial and agricultural sensors, and AI applications to be smarter and more energy efficient. It will also provide valuable insights into the functioning of the human brain under normal and pathological conditions.
Image credit: Unsplash+
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