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Measuring the transmission matrix in optics: an approach to the study and control of light propagation in disordered media.测量光学中的传输矩阵:一种研究和控制无序介质中光传播的方法。
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基于数字传播的数字光学相位共轭系统自动对准方法

Method for auto-alignment of digital optical phase conjugation systems based on digital propagation.

作者信息

Jang Mooseok, Ruan Haowen, Zhou Haojiang, Judkewitz Benjamin, Yang Changhuei

出版信息

Opt Express. 2014 Jun 16;22(12):14054-71. doi: 10.1364/OE.22.014054.

DOI:10.1364/OE.22.014054
PMID:24977504
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC4083057/
Abstract

Optical phase conjugation (OPC) has enabled many optical applications such as aberration correction and image transmission through fiber. In recent years, implementation of digital optical phase conjugation (DOPC) has opened up the possibility of its use in biomedical optics (e.g. deep-tissue optical focusing) due to its ability to provide greater-than-unity OPC reflectivity (the power ratio of the phase conjugated beam and input beam to the OPC system) and its flexibility to accommodate additional wavefront manipulations. However, the requirement for precise (pixel-to-pixel matching) alignment of the wavefront sensor and the spatial light modulator (SLM) limits the practical usability of DOPC systems. Here, we report a method for auto-alignment of a DOPC system by which the misalignment between the sensor and the SLM is auto-corrected through digital light propagation. With this method, we were able to accomplish OPC playback with a DOPC system with gross sensor-SLM misalignment by an axial displacement of up to~1.5 cm, rotation and tip/tilt of ~5° and in-plane displacement of ~5 mm (dependent on the physical size of the sensor and the SLM). Our auto-alignment method robustly achieved a DOPC playback peak-to-background ratio (PBR) corresponding to more than ~30 % of the theoretical maximum. As an additional advantage, the auto-alignment procedure can be easily performed at will and, as such, allows us to correct for small mechanical drifts within the DOPC systems, thus overcoming a previously major DOPC system vulnerability. We believe that this reported method for implementing robust DOPC systems will broaden the practical utility of DOPC systems.

摘要

光学相位共轭(OPC)已实现了许多光学应用,如像差校正和通过光纤进行图像传输。近年来,数字光学相位共轭(DOPC)的实现为其在生物医学光学领域(如深层组织光学聚焦)的应用开辟了可能性,这是因为它能够提供大于单位1的OPC反射率(相位共轭光束与输入到OPC系统的光束的功率比),并且具有适应额外波前操纵的灵活性。然而,波前传感器和空间光调制器(SLM)需要精确(像素对像素匹配)对准,这限制了DOPC系统的实际可用性。在此,我们报告一种DOPC系统的自动对准方法,通过该方法,传感器与SLM之间的失准可通过数字光传播自动校正。利用这种方法,我们能够在传感器与SLM存在高达约1.5厘米的轴向位移、约5°的旋转和倾斜以及约5毫米的平面内位移(取决于传感器和SLM的物理尺寸)的情况下,使用严重失准的DOPC系统完成OPC回放。我们的自动对准方法稳健地实现了对应于理论最大值约30%以上的DOPC回放峰谷比(PBR)。作为一个额外的优点,自动对准过程可以轻松随意地执行,因此使我们能够校正DOPC系统内的小机械漂移,从而克服了DOPC系统以前的一个主要弱点。我们相信,这种所报告的实现稳健DOPC系统的方法将拓宽DOPC系统的实际应用范围。