Research

Multi-dimensional Optical Microscopy

This division is committed to developing multi-dimensional spectral microscopy, as well as the optical analysis of micro-nano structures and their opto electronic devices. The research fields mainly include near-field spectroscopy and microscopy, micro-opto electronic devices, ultra fast dynamics of low-dimensional materials, and low-temperature photo-physics.

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Team

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Zhichen Zhao

2020 PhD Candidate

Near-field optics and microscopy in low-dimensional materials

Renkang Song

2021 PhD Candidate

Micro-optics in two-dimensional optoelectronic devices

Lei Zhou

2022 PhD Candidate

Nano-optics in two-dimensional materials

Anhang Liu

2022 PhD Candidate

Nonlinear optics in two-dimensional materials

Linyuan Dou

2022 PhD Candidate

On-chip metasurface design and numerical simulation

Xiangkun Zeng

2023 PhD Candidate

Low-temperature ultrafast optics of two-dimensional materials

Shenao Zhao

2023 PhD candidate

nonlinear optics

Zerui Wang

2023 Master Student

Near-field optical techniques to study micro- and nanostructures and low-dimens ional materials

Yu Yin

2023 Master student

Nonlinear optics of low-dimension materials

Tiantian Yun

2024 PhD candidata

Nonlinear optics of low-dimension materials

Junbo Xu

2024 PhD candidate

near-field optics

Ziheng Shen

2024 Master student

Near-field optical techniques to study micro- and nanostructures and low-dimens ional materials

Wenhao Su

2024 Master student

Near-field optical techniques to study micro- and nanostructures and low-dimens ional materials

Yiyi Zhang

2024 Master student

Nonlinear optics of low-dimension materials

Kaiming Wang

2024 Master student

Nonlinear optics of low-dimension materials

Yanzhen Yin

2025 PhD Candidate

Low-temperature micro-optics in two-dimensional materials

Chenyu Wan

2025 undergraduate graduates

Zitao Wu

2025 PhD Candidate

Shangjie Xia

2025 PhD Candidate

Ziheng Pan

2025 Master Student

Research Infrastructure

In this division, by combining confocal microscopy with infrared scanning near-field microscope, the optical diffraction limit has been exceeded, obtaining a high spatial resolution. In the time dimension, through 2–14 μm femtosecond or picosecond lasers and a 500–5000 nm femtosecond laser, along with a pump-probe technique and coherent multi-dimensional spectroscopy, the time resolution of low-dimensional materials and their optoelectronic devices has been obtained. In the energy dimension, the photon energy in a large range has been examined using a grating spectrometer and a Mercury Cadmium Telluride (MCT) detector based on Fourier-transform infrared (FTIR) spectroscopy. With such an infrastructure, research in spectral microscopy, ultrafast spectroscopy, and temp-spatial resolution can be conducted.

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