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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Xiangkun Zeng

2023 PhD Candidate

Low-temperature ultrafast optics of two-dimensional materials

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

Zhou Zhou

2024 doctoral graduates

Near-field optics and microscopy in low-dimensional materials

Zhichen Zhao

2020 PhD Candidate

Near-field optics and microscopy in low-dimensional materials

Zitao Wu

2025 PhD Candidate

Hao Ding

2025 PhD candidata

Nonlinear optics of low-dimensional materials

Shangjie Xia

2025 PhD Candidate

Renkang Song

2021 PhD Candidate

Micro-optics in two-dimensional optoelectronic devices

Ziheng Pan

2025 Master Student

Enming Zhang

Intern undergraduate student

Qichao Zhang

Intern undergraduate student

Lei Zhou

2022 PhD Candidate

Nano-optics in two-dimensional materials

Yiyao Zhao

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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