Chip Talk > Harnessing Neuromorphic Technology for a Brain-Like Visual Experience
Published May 14, 2025
In a startling development at RMIT University, research teams have made significant progress in creating devices that operate in various aspects like the human brain. Using the two-dimensional compound semiconductor MoS₂, they have crafted a neuromorphic device that captures hand movement, processes visual information, and stores memory, mimicking human cognition.
RMIT's achievement lays the foundation for next-gen tech like autonomous vehicles and advanced robotics. According to Advanced Materials Technologies, these devices are designed to make real-time decisions with minimal energy consumption.
The device makes use of neuromorphic vision systems, which employ analog processing principles similar to how the human brain operates. This innovation significantly cuts down on energy demands compared to current digital systems.
Atomic-scale defects in MoS₂ are utilized for capturing light and translating these optic signals into electrical signals, allowing the device to instantly sense environmental changes and save memory without extensive data use. This is a substantial edge over current digital technologies, which have been overwhelmed by increased data volume.
The practical uses of this technology are manifold. Walia, the team leader, emphasizes that such systems could enormously improve the response times in autonomous vehicles navigating unpredictable environments, potentially saving lives.
For robotics, especially those working in proximity to humans, this neuromorphic tech could revolutionize interactions by enabling the robotic systems to respond to human behavior with minimal delay, fostering better human-machine collaboration.
A crucial next step is scaling this single-pixel device into a larger pixel array, and existing infrastructure grants like the Linkage Infrastructure Equipment and Facilities fund have been pursued to aid in this venture. That research is expected to delve deeper into more complex vision tasks, aiming for even lower power consumption.
In a cooperative future, hybrid systems that merge analog technology with digital electronics are envisioned. Walia states that neuromorphic technologies will complement rather than replace traditional computing, each excelling in specific tasks.
RMIT’s team also explores other materials, eyeing capabilities in infrared sensing for real-time tracking of gases and environmental contaminants, enlarging the scope of applications beyond the visible spectrum.
Their work signals a significant leap forward in neuromorphic systems, hinting at vast potential across multiple high-stakes fields like robotics and automotive industries. For a deeper insight into RMIT's pioneering research, refer to the detailed research publication in Advanced Materials Technologies.
Join the world's most advanced semiconductor IP marketplace!
It's free, and you'll get all the tools you need to discover IP, meet vendors and manage your IP workflow!
Join the world's most advanced AI-powered semiconductor IP marketplace!
It's free, and you'll get all the tools you need to advertise and discover semiconductor IP, keep up-to-date with the latest semiconductor news and more!
Plus we'll send you our free weekly report on the semiconductor industry and the latest IP launches!