32 Papers
49 Citations
Mingce Chen is an academic researcher from Huazhong University of Science and Technology. The author has contributed to research in topics: Microlens & Wavefront. The author has an hindex of 5, co-authored 32 publications.
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Papers
Dual-polarized light-field imaging micro-system via a liquid-crystal microlens array for direct three-dimensional observation.
Zhaowei Xin,Dong Wei,Xingwang Xie,Mingce Chen,Xinyu Zhang,Jing Liao,Haiwei Wang,Changsheng Xie +7 more
TL;DR: A dual-polarized light-field imaging micro-system based on a twisted nematic liquid-crystal microlens array for direct three-dimensional observation is fabricated and demonstrated and the potential capability of directly observing a 3D object in typical scattering media is presented.
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Robust light beam diffractive shaping based on a kind of compact all-optical neural network.
TL;DR: In this paper, a kind of compact all-optical learning-based neural network has been constructed and characterized for efficiently performing a robust layered diffractive shaping of laser beams, which demonstrates some particular advantages such as smart or intelligent light beam manipulation, optical data statistical inference and incident beam generalization.
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Anti-noise diffractive neural network for constructing an intelligent imaging detector array.
TL;DR: By comparing the accuracy under different noise conditions, it is verified that the proposed model can exhibit a higher accuracy than the current diffractive neural network.
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Graphene-based adaptive liquid-crystal microlens array for a wide infrared spectral region
Zhaowei Xin,Dong Wei,Mingce Chen,Chai Hu,Jian Li,Xinyu Zhang,Jing Liao,Haiwei Wang,Changsheng Xie +8 more
TL;DR: In this article, an infrared liquid-crystal microlens array (IR-LCMLA) is fabricated using an isothiocyanato nematic liquid crystal (NCSNLC) material sandwiched between graphene and aluminum electrodes without alignment layers; its focus is electrically tunable in a wide infrared region.
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Depth of field extension and objective space depth measurement based on wavefront imaging.
TL;DR: The approach indicates a viable way to effectively extend the DOF of imaging micro-systems and to measure the geometrical depth of targets at the same time.
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