UMD Researchers Explore Astrocytes to Enhance AI Learning and Adaptability
Inspired by Brain’s Hidden Half, UMD-led Project Aims for Smarter AI
Image: University Of Maryland
A new project at the University of Maryland, funded with $7.5 million from the U.S. Army Research Office, aims to improve AI by studying astrocytes, star-shaped brain cells. The initiative seeks to create 'hybrid AI' that mimics human brain functions for better learning and adaptability.
- 01The project is led by UMD faculty including Professor Wolfgang Losert and aims to study astrocytes, which play a crucial role in brain function.
- 02Astrocytes are believed to enhance AI systems by integrating information over longer periods, unlike neurons which operate rapidly.
- 03A new algorithm developed by the team, called 'rhythmic sharing,' has shown to detect environmental changes more effectively than traditional AI methods.
- 04The research builds on previous studies that combined artificial neurons and astrocytes, revealing that networks with both types learn significantly better.
- 05The findings have potential applications across various fields, including health monitoring and communications.
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A University of Maryland-led initiative, backed by $7.5 million from the U.S. Army Research Office, aims to revolutionize artificial intelligence by exploring the role of astrocytes—star-shaped cells in the brain. This project, part of a Multidisciplinary University Research Initiative (MURI), is spearheaded by a team of researchers including physics Professor Wolfgang Losert and chemistry Professor John Fourkas. They are developing a 'hybrid AI' approach that integrates biological computation principles with traditional computing. The research posits that astrocytes, previously viewed as passive, are essential for learning and memory, suggesting that AI systems mimicking these cells could learn faster and adapt more reliably. A key innovation from this research is the 'rhythmic sharing' algorithm, which allows AI to detect changes in its environment more swiftly than conventional methods. Initial tests on simulated data from critical systems, such as water treatment facilities, demonstrated this algorithm's superior performance. The team believes these astrocyte-based AI systems could have far-reaching applications, impacting various sectors where dynamic signals are present.
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The research could lead to advancements in AI technology that are more adaptable and efficient, benefiting industries reliant on real-time data analysis.
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