Research overview
Research overview
In our group, we harness the advantage of cold atoms and superconducting circuits to study the light-matter interaction. By combining these two platforms, we aim to push the boundaries of quantum science and technology.
In our group, we harness the advantage of cold atoms and superconducting circuits to study the light-matter interaction. By combining these two platforms, we aim to push the boundaries of quantum science and technology.
Cold atom: we cool down the atoms to a temperature very close to absolute zero, below 0.1 mK -- without using a refrigerator, but lasers! And we use a magnetic field to trap the atoms, forming a magneto-optical trap. From there, we study the nonlinear interactions between cold atoms and lasers, which generate single photons that possess quantum behavior.
Cold atom: we cool down the atoms to a temperature very close to absolute zero, below 0.1 mK -- without using a refrigerator, but lasers! And we use a magnetic field to trap the atoms, forming a magneto-optical trap. From there, we study the nonlinear interactions between cold atoms and lasers, which generate single photons that possess quantum behavior.
Superconducting circuit: we study superconducting circuits that contain nonlinear elements and interact with microwave and millimeter wave signals. The superconducting circuit is placed in a dilution refrigerator and cooled down to 10 mK, where its quantum behavior becomes more pronounced. We use these circuits for quantum information processing and quantum sensing in a cryogenic environment.
Superconducting circuit: we study superconducting circuits that contain nonlinear elements and interact with microwave and millimeter wave signals. The superconducting circuit is placed in a dilution refrigerator and cooled down to 10 mK, where its quantum behavior becomes more pronounced. We use these circuits for quantum information processing and quantum sensing in a cryogenic environment.
