I am a PhD candidate in Electrical & Computer Engineering at the University of California, Santa Barbara (expected Dec 2025).
I work on probabilistic computing with p-bits and extreme-scale distributed architectures, building Ising/Boltzmann machines on CMOS/FPGA platforms and developing hardware–software co-design for scalable multi-chip systems. Applications include combinatorial optimization, energy-based machine learning, AI sampling, and quantum-inspired non-local algorithms.
My recent work scales p-computers across multi-FPGA systems with delay-tolerant communication and balanced partitioning to sustain solution quality at unprecedented sizes.
- Probabilistic computing
- Quantum computing
- Ising/Boltzmann machines
- Distributed chips
- FPGA accelerators
- Energy-based ML
Research Highlights
- Distributed probabilistic computing — Interconnect multi-FPGA / heterogeneous hardware over ultra-low-latency links; ~1M p-bits scaling.
- Probabilistic AI & ML — Ising/Boltzmann samplers for generative AI, Bayesian inference, and scalable energy-based ML.
- Quantum-inspired optimization — Hardware–software co-design blending probabilistic systems with quantum-classical workflows.
Key first-author papers
- Nature Electronics (2022): Massively parallel probabilistic computing with sparse Ising machines.
- Nature Communications (2024): All-to-all reconfigurability with sparse & higher-order Ising machines.
- VLSI Symposium (2023): Accelerating Adaptive Parallel Tempering with FPGA-based p-bits.
- IEDM (2022): Experimental evaluation of simulated quantum annealing with MTJ-augmented p-bits.
- IEDM (2021): Computing with invertible logic: Combinatorial optimization with probabilistic bits.
Recognition
- Misha Mahowald Prize (2025) — Official Announcement · UCSB News · YouTube · Group award with Prof. Kerem Y. Camsari (OPUS Lab).
- Bell Labs Prize (Bronze, 2023) — UCSB News · Bell Labs Blog · Team award with Prof. Kerem Y. Camsari.
- UCSB Graduate Division — PhD Dissertation Fellowship (2025) — Opus Lab News