We are interested in generation of
quantum states of light for their application in nano- and quantum optical
studies.
The
emerging field of quantum optical applications including quantum information,
quantum computation, and quantum metrology is believed to bring a huge impact
on human lives in near future. The successful development of quantum optical
science and technology highly relies on our ability of generating high quality
quantum light sources. Here, in our laboratory, we generate various quantum
states of light:
· Single
photons from single emitters (single molecule, quantum dots, detect centers in
crystal)
· Squeezed,
and entangled photons by utilizing SPDC (spontaneous parametric down
conversion).
With quantum light sources we are
carrying on the following studies:
· Quantum
optical sensing (imaging). This is for overcoming the classical limits in the
sensitivity and the resolution.
- quantum correlated photons : quantum
nonlinear imaging
- diamond NVs : quantum
(nano)-magnetometry
- Heralded single photons : contextual
metrology
· Quantum
computing (photon based).
- Photon cluster state :
measurement-based quantum computing
¨Selected
Papers
· Quantum Plasmonic Sensors, Chem. Rev. 121, 4743 (2021).
· An experimental study on the blinking
suppression mechanism of organic-inorganic formamidinium lead halide perovskite
quantum dots on N-Type semiconductors“, APL Mat. 8, 031102 (2020). selected as
“Editor’s Pick”
· Experimental demonstration of quantum
learning speedup with classical input data“, Phys. Rev. A 99, 012313 (2019).
· Quantum plasmonic sensing using single
photons“, Opt. Express 26, 29272 (2018).
· Organic–Inorganic FAPbBr3 Perovskite
Quantum Dots as a Quantum Light Source: Single-Photon Emission and Blinking
Behaviors“, ACS Photon. 5, 4937 (2018).
· Also see, Lectures on “Single photon
generation with single emitters”
https://www.youtube.com/watch?v=dBhnQmuE0AI&t=88s