Beyond Memory: MRAM as the Computing Engine for AI in the Co-Design Era
As AI systems continue to scale, data movement between processors and memory has emerged as a fundamental bottleneck in energy consumption, latency, and system efficiency. This challenge is driving a paradigm shift from conventional von Neumann architectures toward memory-centric computing frameworks, where memory devices actively participate in computation.
Among emerging memory technologies, Magnetoresistive random access memory (MRAM) offers a unique combination of non-volatility, high endurance, ultrafast operation, CMOS compatibility, and intrinsic magnetic dynamics, making it a strong candidate for next-generation AI hardware. Beyond data storage, MRAM can support in-memory computing, neuromorphic functions, and temporal information processing through physics-enabled device behaviors.
This talk will present the evolution of Magnetoresistive Random Access Memory (MRAM) from conventional non-volatile memory toward neuromorphic and compute-in-memory architectures for AI hardware. Recent advances in spintronic devices, including analog switching, synaptic plasticity, leaky-integrate-fire neurons, and SOT-MRAM-based computing primitives, will be highlighted to demonstrate how device physics can directly enable computational functionalities. The presentation will further discuss how cross-layer co-design spanning materials, devices, circuits, and system architectures is transforming MRAM from conventional memory into an active computing platform for energy-efficient AI systems.
Key Technologies Covered
Spintronic Memory Technologies (MRAM)
Spin-Orbit Torque MRAM (SOT-MRAM)
Embedded Non-Volatile Memory for AI Hardware
Compute-in-Memory (CIM) Architectures
Neuromorphic Computing Hardware
Artificial Synapses and Leaky-Integrate-Fire Neurons