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浏览/检索结果: 共5条，第1-5条 帮助 限定条件 专题：长春光学精密机械与物理研究所    第一署名单位    第一作者单位    通讯作者单位     已选(0)清除 条数/页：5101520253035404550556065707580859095100   排序方式：请选择作者升序作者降序题名升序题名降序发表日期升序发表日期降序提交时间升序提交时间降序 Study on performance variable scale evaluation method of reflection laser confocal microscopy 期刊论文 Hongwai yu Jiguang Gongcheng/Infrared and Laser Engineering, 2019, 卷号: 48, 期号: 3 作者:  F.Wang;  Q.Sun;  M.Dai;  X.Liu;  C.Wang 收藏  |  浏览/下载：3/0  |  提交时间：2020/08/24 Signal to noise ratio,Aberrations,Confocal microscopy,Function evaluation,Functions,Power spectral density,Spectral density,Testing,Wavefronts   Propagation of Near-infrared Light in Skin Tissue and the Design of Optical Fiber Detection Structure 期刊论文 Guangzi Xuebao/Acta Photonica Sinica, 2018, 卷号: 47, 期号: 1 作者:  Gao, Jing;  Han, Guang;  Lu, Qi-Peng 收藏  |  浏览/下载：1/0  |  提交时间：2019/09/17 Tissue engineering  Infrared devices  Intelligent systems  Light  Light propagation  Light sources  Model buildings  Monte Carlo methods  Near infrared spectroscopy  Optical fibers  Optical properties  Photons  Refractive index  Structural design  Tissue   新型眼底相机的设计与研制 学位论文 博士: 中国科学院大学, 2014 李灿 收藏  |  浏览/下载：191/0  |  提交时间：2014/08/21 Design of High-Efficiency Double Compound Parabolic Concentrator System in Near Infrared Noninvasive Biochemical Analysis 期刊论文 Spectroscopy and Spectral Analysis, 2013, 卷号: 33, 期号: 5 Gao J.; Lu Q. P.; Peng Z. Q.; Ding H. Q.; Gao H. Z. 收藏  |  浏览/下载：9/0  |  提交时间：2014/05/14 Monte Carlo simulation of light propagation in human tissue models (EI CONFERENCE) 会议论文 3rd International Conference on Bioinformatics and Biomedical Engineering, iCBBE 2009, June 11, 2009 - June 13, 2009, Beijing, China Wang Z.; Wang L.; Zhang Y. T.; Chen X. D. 收藏  |  浏览/下载：26/0  |  提交时间：2013/03/25 In this paper  in order to be more sensitive to the volumetric changes of capillaries in the skin  the photon propagation process in human brain tissue and skin tissue with various source and detector separation distances were simulated based on the Monte Carlo method. The human brain model and the skin model that were used in our experiments have five layers and seven layers  the separation distance of source and detector should be approximately eight millimeters. Future work was discussed at the end of the paper. 2009 IEEE.  respectively. The backscattered intensity from every layer of the human tissue model was obtained by marking the deepest layer that every photon can reach. The simulation results of brain model indicated that the source-detector separation distance should be selected at three centimeters for studies on the actions of the brain nerve cells