Artificial Intelligence
Efficient and robust AI, model compression, LLM and multi-agent systems, and practical intelligent computing.
Associate Professor
Department of Computer and Data Sciences
Case Western Reserve University
Artificial Intelligence · Quantum Computing · Theoretical Computer Science
I develop efficient, reliable, and theoretically grounded computational methods, with particular interests in artificial intelligence, quantum algorithms and systems, and the mathematical foundations of computation.

Research spanning artificial intelligence, quantum computing, and theoretical computer science.
Efficient and robust AI, model compression, LLM and multi-agent systems, and practical intelligent computing.
Quantum circuit optimization and cutting, quantum algorithms, hardware-aware compilation, and scalable quantum systems.
Algorithms, coding-based computation, optimization, and mathematical foundations of computing.
Representative work across my three primary research directions. Figures are drawn from the papers themselves.

Efficient structured pruning through flexible group counts and deployment-friendly grouped convolutions.
Paper ↗
A controlled, MAS-demanding benchmark for understanding whether reported efficiency gains are genuinely structural.
arXiv ↗
Algorithm-hardware co-design for scalable cut-based quantum simulation with FPGA acceleration.
Paper ↗
SAT-based hardware-aware synthesis with iterative blockwise optimization for reducing CNOT count and depth.
arXiv ↗
Golden cutting points reduce quantum circuit cutting cost while preserving reconstruction accuracy.
arXiv ↗
Error-correcting codes provide randomized and deterministic algorithms for the Closest Pair and Light Bulb problems.
Paper ↗My research is highly collaborative, bringing together students and colleagues across artificial intelligence, quantum computing, algorithms, and interdisciplinary computing.
