Artificial intelligence is rapidly reshaping computing, communications, science, and society, but the growing scale of AI training and inference is also driving unprecedented energy demand. Various IEE researchers are developing the next generation of energy-efficient AI systems, algorithms, and hardware to dramatically reduce the computational and environmental costs of machine learning across the cloud, data center, and edge. This research theme spans the full AI stack, from scalable machine learning algorithms and efficient model architectures to specialized hardware designed for low-power inference and optimization. Faculty researchers are advancing methods in natural language processing, reasoning, probabilistic computing, and large-scale AI systems that improve performance while reducing energy consumption, memory access, and computational overhead. Researchers are also developing benchmarking platforms and systems-level optimization tools that evaluate the energy efficiency of modern AI workflows, including model training, fine-tuning, and inference. These efforts provide practical frameworks for comparing AI models and hardware platforms while helping guide the development of more energy-efficient AI technologies.

At the hardware level, the initiative explores unconventional computing architectures inspired by physics and the human brain, including probabilistic computing, neuromorphic systems, and mixed-signal circuits that leverage stochastic behavior for efficient optimization and machine learning. Novel approaches to sparse and low-complexity AI inference are reducing memory bandwidth demands and minimizing energy-intensive operations in large language models and other advanced AI systems.Together, these efforts aim to enable scalable, high-performance AI technologies that are substantially more energy efficient, supporting the future of intelligent computing while simultaneously reducing its global energy footprint.

 

Lead Faculty

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Kerem Camsari: Assistant Professor, Electrical & Computer Engineering

Professor Kerem Camsari's research involves nanoelectronics, spintronics, emerging technologies for computing, digital and mixed-signal VLSI, neuromorphic and probabilistic computing, quantum computing, hardware acceleration

 

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Xin (Eric) Wang: Assistant Professor, Computer Science

Wang aims to build intelligent multimodal AI agents that can understand the world, collaborate with humans, and perform real-world tasks—from everyday activities to high-stakes missions. His work spans multimodal representation learning, embodied AI for human-agent collaboration, and the ethical design of trustworthy AI systems. Drawing on methodologies from machine learning, computer vision, natural language processing, and robotics—with insights from cognitive science and neuroscience—his research develops generalizable, efficient, and socially responsible agents that perceive, communicate, and act in complex environments.