左浩毅，教授，博导，入选四川省学术技术带头人、巴渝学者等人才计划；光散射学报副主编，编辑部主任。主持国家自然科学基金、教育部博士点优秀人才基金、四川省科技厅项目以及横向课题等。重点开展新型光学成像前沿研究，具体方向包括：

1、散射成像：利用光场调制器，如DMD和SLM等，对入射光场进行主动预调制以克服强散射重建3D物象，或者将强散射光场整形为物函数分布以实现光学真3D成像。

2、散射光场控制：通过光场调制，将相干散射光场塑造为目标光场，以实现克服强散射的信号、图像、视频传输。

3、经典鬼成像：课题组在鬼成像领域的研究不再局限于光强的二阶关联。光强关联只能获得目标物体强度分布信息，无法获得复振幅分布信息。目前我们重点研究光场的奇数阶关联，可以获得物体的复振幅信息，从而实现抗强干扰，甚至非侵入式的真3D成像。

4、量子成像：基于量子纠缠的鬼成像。

5、散射辅助的计算全息：目前主流计算成像视场角一般很小，通常不到1°，原因在于调制器（如DMD和SLM）的像素较大，衍射角较小。而借助恰当的散射介质，如高目毛玻璃等，可以大大增加衍射角，从而有望获得大视角全息像，视角有望扩大到接近360°。

6、太赫兹鬼成像：将太赫兹成像与鬼成像相结合，可取长补短，是一个很前沿的成像课题。

7、结构光3D成像: 将有一定规律的光强分布投射到待成像3D物体上，使用相机记录物体表面光场的畸变情况，再依据一定的算法可以解析出物体的3D信息（但与前述真3D像有所不同）。该方向有着强烈的应用背景。

各研究方向都有完善的实验平台作为支撑，各平台可独立开展实验（见下图）。实验室氛围自由，可在大方向之中选择感兴趣的小方向，亦鼓励学生自主提出新的研究课题。长远规划是立足于成像的大方向，引入机器学习等辅助手段，兼顾基础研究与应用研究，深入对新型成像的研究。

实验室处于成长阶段，长期招收对光学研究有真兴趣的硕士生和博士生，也招收参加科训的本科生。不看重论文数量，追求论文质量；强调实验动手能力的锻炼，兼顾理论基础的培养。内部人员结构简单，关系单纯，做好纯粹的科研和培养人才是根本目的。

联系方式：zuohaoyi@scu.edu.cn，13340963802（微信同号）

课题组光学净化间

课题组发表部分论文：

[1] Anti-scattering optical information transmission based on iterative wavefront shaping in perturbation environment, Results in Physics, 2023

[2] A simple method to modulate the scattered light field under strong disturbance, OPT LETT, 2022

[3] Fully continuous spiral phase plate for ultraintense optical vortices, OPT LETT, 2023

[4] Hybrid resonance metasurface for a lithium niobate electro-optical modulator, OPT LETT, 2022

[5] Controlling a scattered field output of light passing through turbid medium using an improved ant colony optimization algorithm, Optics and Lasers in Engineering, 2021

[6] Wavefront shaping using improved sparrow search algorithm to control the scattering light field, OPT LASER TECHNOL, 2022

[7] Application and influencing factors analysis of Pix2pix network in scattering imaging, OPTICS COMMUNICATIONS, 2023

[8] Detailed study on ill-conditioned transmission matrices when focusing light through scattering media based on wavefront shaping, APPLIED PHYSICS B-LASERS AND OPTICS, 2020

[9] Improve the precision and accuracy of retrieval of particle size-distribution based the unconstrained linear regression, OPTIK, 2019

[10] Adjustment of laser scattering focus with machine learning, LASER PHYSICS, 2018

[11] Focusing light through random scattering media by simulated annealing algorithm, JOURNAL OF APPLIED PHYSICS, 2018

[12] Particle swarm optimization to focus coherent light through disordered media, APPLIED PHYSICS B-LASERS AND OPTICS, 2018

[13] Image reconstruction through thin scattering media by simulated annealing algorithm, Optics and Lasers in Engineering, 2018

[14] Retrieval of NO2 density using diffused solar radiation from buildings, OPTIK, 2018

[15] Binary wavefront optimization using particle swarm algorithm, LASER PHYSICS, 2018

[16] Binary wavefront optimization using a simulated annealing algorithm, Applied Optics, 2018

[17] Analysis of charge-exchange spectroscopy data by combining genetic and Gauss-Newton algorithms, J QUANT SPECTROSC RA, 2015

[18] Influence of cell length on retrieval of particle size-distribution based on light scattering, Optics and Lasers in Engineering, 2014

[19] Improve the accuracy of retrieval of the particle size-distribution by combining the laser scattering method and the extinction method, LASER PHY LETT, 2012

[20] Discussion concerning ill-conditioned kernel matrices when retrieving particle size distributions based on scattered radiation distribution, J OPT SOC AM, 2012

[21] Improve the precision and accuracy of retrieval of particle size-distribution based the unconstrained linear regression, J OPT SOC AM-B, 2012

[22] Detailed study on the role of forward scattering in particle sizing based on spherical particle model, J QUANT SPECTROSC RA, 2013

[23] Retrieve the aerosol size-distribution by using a “combined model”, OPT LASER TECHNOL, 2010

[24] Comparison of Aerosol Size-Distributions Using Linear-Regression, Genetic Algorithm and Annealing Genetic Algorithm, ENVIRON ENG SCI, 2011

[25] Improving the accuracy in retrieving particle size distribution using multi-wavelength scattering, J MOD OPTIC, 2012

[26] A technique to improve the precision of retrieving the aerosol size-distribution，OPT LETT，2010

[27] Selecting appropriate wavelengths to improve the precision of retrieving the aerosol size-distribution, J QUANT SPECTROSC RA, 2010

[28] Equiangular method: a technique of multiaxis DOAS, J OPT SOC AM-B, 2009

[29] Retrieving the vertical column density of NO2 by using multiaxis differential optical absorption spectroscopy technique, JOURNAL OF APPLIED PHYSICS, 2009