Published in Phys. Rev. Applied, 2026
We present bidirectional nonlinear optical tomography (BNOT), a hardware-compatible metrology that breaks the degeneracy of input and output coupling efficiencies to enable unbiased benchmarking of nonlinear photonic integrated circuits.
Published in arXiv:2605.27607, 2026
We demonstrate a record 18 dB of inferred on-chip vacuum squeezing in an adaptively poled thin-film lithium niobate waveguide using a distributed loss and phase-noise model.
Published in arXiv:2602.22693, 2026
We demonstrate continuous-wave squeezed-light generation in a dual-resonant periodically poled thin-film lithium niobate microresonator, achieving an inferred on-chip squeezing level of 7.5 dB and a squeezing bandwidth exceeding 10 THz.
Published in arXiv:2509.10445, 2025
We report the wafer-scale fabrication, generation, and characterization of two-mode squeezed-vacuum states on a fully CMOS-compatible silicon nitride PIC platform. This work demonstrates excellent uniformity across a 4-inch wafer and establishes a reproducible route for scalable continuous-variable quantum information processing.
Published in arXiv:2504.16119, 2025
This paper introduces the micro-ring perceptron (MiRP) sensor, a physics-inspired AI framework that integrates micro-ring dynamics-based analog processing with a machine-learning-driven digital backend for sub-Nyquist RF sensing.
Published in Quantum Science and Technology, 2023
This paper proposes a dual-receiver radar scheme employing entangled microwave pulses to significantly improve angle-resolving capability compared to classical radar.
Published in Quantum Science and Technology, 2021
We report a continuous-variable (CV) quantum-repeater architecture based on CV quantum teleportation assisted by the Gottesman-Kitaev-Preskill (GKP) code to significantly suppress physical noise in quantum links.
Published in Physical Review A, 2020
This paper demonstrates a broadband coherent optical memory using electromagnetically induced transparency (EIT) in a cold atomic ensemble, achieving a bandwidth-delay product significantly higher than previous EIT-based systems.
Published in Physical Review Research, 2020
This paper proposes a scalable scheme for generating multidimensional continuous-variable (CV) cluster states using a single optical parametric oscillator and time-frequency multiplexing, providing a path toward fault-tolerant quantum computation.
Published in Optics Express, 2016
This work demonstrates a scheme for resonant four-wave mixing that achieves up to 90% energy conversion efficiency using spatially varied control fields.