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The rapidly growing field of integrated photonic quantum computing has recently seen enormous breakthroughs, with integrated photonic devices capable of generating highly entangled states of photons on-chip. To scale these devices, simulation tools that model realistic sources and manufacturing imperfections are required when designing quantum building blocks that meet fidelity requirements and fault tolerance thresholds. To address this, we introduce a quantum circuit solver capable of calculating the heralded source biphoton wavefunction and corresponding frequency domain response of photonic integrated circuits in the Fock basis, yielding the fidelity of the output state and probability of success for a given measurement outcome.
Sebastian Gitt,Dylan McGuire, andJeff Young
"Simulating quantum photonic processes in realistic photonic integrated circuits: circuit performance analysis using non-classical source-to-detector component parametrization", Proc. SPIE 12446, Quantum Computing, Communication, and Simulation III, 1244608 (8 March 2023); https://doi.org/10.1117/12.2647886
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Sebastian Gitt, Dylan McGuire, Jeff Young, "Simulating quantum photonic processes in realistic photonic integrated circuits: circuit performance analysis using non-classical source-to-detector component parametrization," Proc. SPIE 12446, Quantum Computing, Communication, and Simulation III, 1244608 (8 March 2023); https://doi.org/10.1117/12.2647886