Building a path to real-time gauge dynamics.

SU2QC is a multi-institution research collaboration developing AI-accelerated methods to study non-Abelian lattice gauge theories on quantum hardware.

Illustration of oriented SU(2) lattice links, a plaquette evolution circuit, and a Gauss-law check.

Physics-first. Hardware-aware.

We connect field-theory structure to practical execution, preserving physical constraints while reducing the cost of simulation.

Gauge dynamics

Real-time non-Abelian dynamics, from confinement and flux tubes to string breaking.

Quantum hardware

Symmetry-preserving encodings and hardware-aware circuits for emerging quantum systems.

AI acceleration

Learning-assisted compilation, circuit optimization, measurement, and error mitigation.

Hybrid computing

Quantum, GPU, tensor-network, and high-performance workflows designed to work together.

One team across physics and computing.

Meet the full team
Portrait of Raza Sabbir Sufian

Raza Sabbir Sufian

Principal Investigator · NMSU

Theoretical and computational nuclear and particle physicist working across lattice QCD and quantum computing.

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Portrait of Paulo F. Bedaque

Paulo F. Bedaque

Co-Principal Investigator · UMD

Theoretical physicist studying the interface of nuclear and particle physics, with emphasis on QCD.

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Portrait of Taku Izubuchi

Taku Izubuchi

Co-Principal Investigator · BNL

High-energy theorist known for lattice QCD, chiral fermions, and precision computational methods.

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Portrait of Kwangmin Yu

Kwangmin Yu

Co-Principal Investigator · BNL

Computational scientist specializing in quantum algorithms, error mitigation, and applied mathematics.

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