Research Interests
Research Interests
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- Silicon Quantum Emitters
Silicon has long been the backbone of classical technologies, powering modern electronics through its unmatched scalability, reliability, and mature manufacturing ecosystem. Today, this same material is emerging as a promising platform for quantum technologies, driven by the ability to engineer color centers and atomic-scale point defects that act as stable quantum bits. Leveraging silicon’s industrial compatibility alongside these defect-based quantum states offers a powerful path toward scalable, integrable, and commercially viable quantum devices. In our lab, we synthesize, characterize, and use these silicon-based quantum bits using various conventional and non-conventional techniques.
2. Superconducting nanowire single photon detectors
2. Superconducting nanowire single photon detectors
Superconducting Nanowire Single-Photon Detectors (SNSPDs) are among the most advanced photon detection technologies, offering exceptional sensitivity, ultra-low timing jitter, and near-unity detection efficiency. Their ability to reliably detect individual photons at high speeds makes them essential for quantum communication, quantum computing, and deep-space optical sensing. As quantum technologies scale, SNSPDs play a critical role in enabling high-fidelity readout and secure transmission of quantum information.
3. Superconductivity in Semiconductors
3. Superconductivity in Semiconductors
Superconductivity in semiconductors represents a powerful bridge between conventional electronics and quantum-enabled technologies, as demonstrated by the realization of superconductivity in diamond and silicon through heavy doping with group-III elements such as boron. Introducing boron impurities transforms these wide-bandgap materials into superconducting systems, unlocking new device possibilities that combine mechanical, thermal, and electronic robustness with dissipation-free transport. By using advanced and unconventional incorporation methods such as high-energy laser-assisted implantation under extreme conditions, we enable precise control of dopant profiles and push semiconductor superconductivity into new regimes for next-generation quantum and cryogenic technologies.
4. Spintronic memories
4. Spintronic memories
5. THz sources and detectors
5. THz sources and detectors
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