MAEIL BUSINESS NEWSPAPER, 3 October 2025
The competitiveness of Korean researchers in neuromorphic semiconductors is among the top in the world. Korea is the market where we can see the result." Seok Min-koo, a professor of electrical engineering at Columbia University, told the Maeil Business Newspaper that Korea can gain an advantage in the paradigm shift of semiconductor technology as it shows strength in neuromorphic…
POPULAR MECHANICS, 23 September 2025
Here’s what you’ll learn when you read this story: Memristors, or “memory resistors,” are the leading candidate for replacing synapses in a neuromorphic (brain-like) computer. Earlier this year, Korea Advanced Institute of Science and Technology, or KAIST, announced the development of a self-learning memristor that’s even better at replicating the synapses in our brain. This could allow AI computing to occur locally while also being more energy efficient and capable of improving at tasks over time….
King's College London, 16 September 2025
Along with King’s academics from NMES and IoPPN, Professor Bipin Rajendran from the Department of Engineering will lead the King’s team which is part of the UCL-led Neuroware centre. The centre seeks to accelerate the development of next-generation brain-inspired computing technologies and their deployment onto computer chips. This will help underpin new advancements in edge AI,…
EE Times Current, 10 September 2025
Professor Barbara Webb from the University of Edinburgh in Scotland uses physical robots to validate neural mechanisms in crickets, ants, and bees. In this episode of Brains and Machines, she talks to Dr. Sunny Bains of University College London about her work. Discussion follows with Dr. Giulia D’Angelo from the Czech Technical University in Prague and Professor Ralph Etienne-Cummings…
DATAQUEST, 29 August 2025
From Intel's Loihi to breakthroughs in memristors, neuromorphic computing offers potential breakthroughs with more energy-efficient, adaptive, and brain-like data processing capabilities that could change the way we build smarter and more sustainable AI. The first time I witnessed a child stack blocks, I felt like I was watching a miniature computer learn. She didn't plan the tower, she felt for balance…
SAL Silicon Austria Labs, 26 August 2025
Unlike classical computers, which process information in bits, the human brain uses short electrical impulses—known as spikes. What matters is the precise timing of these spikes, which carries the actual information. This timing-based representation allows the brain to transmit more complex information per signal compared to a digital bit, which can only be “0” or “1.” The intervals between…
QUANTUM ZEITGEIST, 21 August 2025
The pursuit of energy-efficient computing inspired by the human brain increasingly focuses on harnessing the movement of magnetic domain walls, tiny boundaries within magnetic materials, as a means of processing information. Jeffrey Brock, Aleksandr Kurenkov, and Aleš Hrabec, at the Laboratory for Mesoscopic Systems at ETH Zurich, alongside Laura Heyderman and colleagues, now demonstrate a significant…
tom's guide, 11 August 2025
For how powerful today’s “smart” devices are, they’re not that good at working smarter rather than working harder. With AI constantly connected to the cloud and the chip constantly processing tasks (even when the device is asleep), this leads to high power consumption, limited privacy, and the constant need for connectivity. Neuromorphic computing offers a radical alternative, but what is it?…
EE Times Current, 8 August 2025
Professor Gert Cauwenberghs has been working toward building brain-scale systems for decades. At the University of California San Diego, he’s now one of the leaders of the Neuromorphic Commons hub, also known as Thor, which will give the wider community access to neuromorphic hardware and simulators. In this episode of Brains and Machines, he talks to Dr. Sunny Bains of University College London about his approach…
A.I News Hub, 7 August 2025
Neuromorphic computing, an innovative AI paradigm mimicking the human brain’s neural architecture, is poised to redefine technology in 2025. With the global AI market projected to reach $4.8 trillion by 2033, neuromorphic systems offer energy-efficient, low-latency solutions critical for edge AI, robotics, and IoT. In China, the New Generation Artificial Intelligence Plan and startups like SynSense are driving…
EE Times, 28 July 2025
Neuromorphic hardware startup SpiNNcloud has sold a supercomputer based on its chips to the University of Leipzig, where it will be used for drug discovery. The 4320-chip system is based on the second generation of SpNNaker brain-inspired hardware, commercialized by SpiNNcloud. The new multi-million-Euro system at the University of Leipzig will simulate protein folding for research into personalized medicine….
IOP Publishing, 24 July 2025
There are two main approaches to what we consider neuromorphic computing. The first involves emulating biological neural processing systems through the physics of computation of computational substrates that have similar properties and constraints as real neural systems, with potential for denser structures and advantages in energy cost. The other simulates neural processing systems on scalable…
EE World Online, 23 July 2025
Neuromorphic computing, which mimics the human brain’s architecture and function, can be leveraged in edge computing to improve power efficiency, speed, and adaptability. By processing data locally and using event-driven computation, neuromorphic chips can optimize resource usage in edge AI applications, reducing reliance on centralized cloud processing….
Ingenia, 12 July 2025
Professor Themis Prodromakis designs neuromorphic AI hardware that takes cues from the brain. Aside from slashing AI’s energy use, it could also make for smarter spacecraft and brain-computer interfaces. AI’s energy costs are skyrocketing. In April 2025, the International Energy Agency (IEA), which monitors the world’s energy use, forecasted that electricity demand from datacentres will double to…
EE Times Current, 10 July 2025
Professor Gordon Cheng builds humanoid robots that can feel their environment using artificial skin. In this episode of Brains and Machines, he talks to Dr. Sunny Bains of University College London about how the skin was designed, how it improves safety, and why neuromorphic engineering will be important for machine autonomy. Discussion follows with Dr. Giulia D’Angelo from the Czech Technical University…
University of Groningen, 2 July 2025
The Neuromorphic Now conference returned for its second edition on 13 June 2025, bringing together 110 researchers, innovators, and policymakers in Delft. Organised by TNO, CWI, TU Delft, and CogniGron, the event aimed to accelerate the neuromorphic computing innovation agenda. Building on the success of the inaugural 2024 meeting (co-organised by IMEC), this year’s edition focused…
EurekAlert!, 1 July 2025
BUFFALO, N.Y. — It’s estimated it can take an AI model over 6,000 joules of energy to generate a single text response. By comparison, your brain needs just 20 joules every second to keep you alive and cognitive. That’s why University at Buffalo researchers are taking inspiration from the human brain to develop computing architecture that can support the growing energy demands of artificial intelligence….
Medium, 23 June 2025
Neuromorphic computing stands at the threshold of what could become one of the most transformative shifts in processing architecture since the birth of personal computing. By emulating the brain’s remarkable efficiency, neuromorphic systems offer a vision of AI processing that consumes vastly less power while unlocking new capabilities in real-time, adaptive decision-making….
THE ENGINEER, 23 June 2025
Developed at Queensland University of Technology (QUT), LENS (Locational Encoding with Neuromorphic Systems) uses brain-inspired computing to set a new, low-energy benchmark for robotic place recognition. The breakthrough is detailed in Science Robotics. The research, conducted by first author neuroscientist Dr Adam Hines along with Professor Michael Milford and Dr Tobias Fischer, all from the QUT Centre of Robotics and the QUT School of Electrical Engineering and Robotics, uses neuromorphic computing…
Medium, 20 June 2025
Neuromorphic computing, a revolutionary approach to designing computer architectures inspired by the human brain’s neural structures, stands on the brink of transforming modern computing as we know it. By mimicking the brain’s massively parallel, event-driven, and energy-efficient processes, neuromorphic systems promise to break the limitations of traditional von Neumann architectures — particularly in an era where Moore’s Law is slowing down and the demand for smarte…