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偏振光实验是大学物理实验的重要组成部分,但其核心概念较为抽象,传统教学手段难以动态、直观地展示其内在规律。基于Matlab开发了用于偏振光实验教学的交互式数字资源,包含偏振状态、马吕斯定律和布儒斯特定律三个部分,动态展示了光的偏振状态变化、马吕斯定律中出射光强的变化和布儒斯特定律中布儒斯特角及反射率的变化,有助于学生直观理解光的偏振状态、马吕斯定律和布儒斯特定律。此外,学生可通过自主调节参数深入观察现象、验证物理规律,从而有效弥补传统实验的局限,深化对偏振光原理的理解,达到辅助教学与提升学习效率的目的。
Abstract:Polarized-light experiments are an important component of college physics laboratory teaching. However, their core concepts are relatively abstract, and traditional teaching methods often fail to present the underlying physical mechanisms in a dynamic and intuitive manner. In this study, a MATLAB-based interactive digital resource was developed for the teaching of polarized-light experiments. The resource consists of three modules: polarization states, Malus' law, and Brewster's law. It dynamically visualizes the evolution of light polarization states, the variation of transmitted light intensity in Malus' law, and the changes in Brewster angle and reflectance in Brewster's law. These visualizations help students intuitively understand polarization states, Malus' law, and Brewster's law. In addition, students can independently adjust relevant parameters to observe physical phenomena and verify theoretical laws, thereby overcoming some limitations of traditional experiments and deepening their understanding of polarized-light principles. The proposed resource can serve as an effective auxiliary teaching tool and help improve students' learning efficiency.
[1]孟毅儒,吕金光,郑凯丰,等.采用多角度偏振光学相干层析成像的滑油磨粒三维形貌检测和重建(英文)[J].中国光学(中英文),2025,18(6):1449-1462.MENG Y R,LV J G,ZHENG K F,et al.3-D morphological feature measurement and reconstruction of wear particles using multi-view polarized optical coherence tomography(English)[J].Chinese Optics(Chinese&English),2025,18(6):1449-1462.(in Chinese)
[2]张尚剑,付尔谷,郑皓文,等.偏振光渲染器设计探究案例与物理光学教学实践[J].物理与工程,2025,35(6):18-23.ZHANG S J,FU E G,ZHENG H W,et al.Research case on the design of polarized light renderer and teaching practice of physical optics[J].Physics and Engineering,2025,35(6):18-23.(in Chinese)
[3]赵国俭,徐丽红,王佳乐,等.大学物理实验“基础—进阶-高阶”教学模式的探索[J].物理与工程,2022,32(6):148-152,158.ZHAO G J,XU L H,WANG J L,et al.Exploration of the teaching mode od"basic-intermediate-advanced"in college physics experiment[J].Physics and Engineering,2022,32(6):148-152,158.(in Chinese)
[4]贾睿哲,闫昊煜,于新荣,等.基于混合现实的光学虚拟仿真实验设计与实现——以迈克耳孙干涉仪为例[J].物理与工程,2025,35(6):146-153.JIA R Z,YAN H Y,YU X R,et al.Design and implementation of optical virtual simulation experiments based on mixed reality:A case study of michelson interferometer[J].Physics and Engineering,2025,35(6):146-153.(in Chinese)
[5]王旗,朱盼盼.物理虚拟仿真实验教学中心建设与实践[J].大学物理实验,2018,31(4):121-123.WANG Q,ZHU P P.Construction and practice of provincial center for virtual simulation experimental teaching of physics[J].Physical Experiment of College,2018,31(4):121-123.(in Chinese)
[6]马雯雯,杜嘉惠,曾召利.多圆孔结构的夫琅禾费衍射和干涉实验研究[J].物理与工程,2025,35(4):153-157.MA W W,DU J H,ZENG Z L.Experimental study on fraunhofer diffraction and interference of multiple circular pinholes structure[J].Physics and Engineering,2025,35(4):153-157.(in Chinese)
[7]贾丽浈.数字化赋能初中物理实验教学的创新实践[J].现代基础教育研究,2025,59(3):218-222.JIA L Z.Innovative practice of digitalization empowering physics experiment teaching in junior high schools[J].Research on Modern Basic Education,2025,59(3):218-222.(in Chinese)
[8]王佳乐,王旗.数字化大学物理实验课程赋能个性化人才培养[J].物理实验,2024,44(7):35-40.WANG J L,WANG Q.Construction of digital universityphysics experiment course to realize personalized teaching and ability training[J].Physics Experimentation,2024,44(7):35-40.(in Chinese)
[9]张博,雍平.大数据时代高校物理实验教学改革路径探析——评《大数据视域下高校物理实验教学改革的有效性研究》[J].中国高校科技,2022(9):107.ZHANG B,YONG P.Exploration of reform paths for physics experiment teaching in universities in the era of big data—Comment on"research on the effectiveness of physics experiment teaching reform in universities under the perspective of big data"[J].China University Science&Technology,2022(9):107.(in Chinese)
[10]成立贤,李明洋,王佳,等.数字化赋能物理实验教学——Tracker软件的应用探索[J].大学物理,2025,44(5):92-98.CHENG L X,LI M Y,WANG J,et al.Digitalization empowers the teaching of physics experiments:the application exploration of Tracker software[J].College Physics,2025,44(5):92-98.(in Chinese)
[11]姚启钧.光学教程[M].6版.北京:高等教育出版社,2019.YAO Q J.Optical Principles[M].6th ed.Beijing:Higher Education Press,2019.(in Chinese)
[12]杨晓冬,于军,李天乐,等.利用非1/4波片将椭圆偏振光转换为线偏振光的理论及实验研究[J].物理与工程,2020,30(3):55-59.YANG X D,YU J,LI T L,et al.Theoretical and experimental study on the conversion of elliptically polarized light into linearly polarized light by using non quarter wave plate[J].Physics and Engineering,2020,30(3):55-59.(in Chinese)
[13]梁铨廷.物理光学[M].5版.北京:电子工业出版社,2018.LIANG Q T.Physical Optics[M].5th ed.Beijing:Publishing House of Electronics Industry,2018.(in Chinese)
[14]BORN M,WOLF E.光学原理:光的传播、干涉和衍射的电磁理论:7版[M].杨葭荪,译.2版.北京:电子工业出版社,2009.BORN M,WOLF E.Principles of Optics:Electromagnetic Theory of Light:Propagation,Interference and Diffraction[M].YANG J S,Trans.2nd ed.Beijing:Publishing House of Electronics Industry,2009.(in Chinese)
基本信息:
DOI:10.27024/j.wlygc.2025.11.25.01
中图分类号:G642.423;O436.3-4
引用信息:
[1]成立贤,黄静,陈镜儒,等.Matlab交互式仿真技术在偏振光实验中的应用[J].物理与工程().DOI:10.27024/j.wlygc.2025.11.25.01.
基金信息:
国家自然科学基金青年基金项目(12404301); 辽宁省科技厅博士科研启动基金计划项目(2025-BS-0778); 辽宁省教育厅科学研究一般项目(LJ212410165035); 辽宁师范大学人工智能赋能本科教学改革研究项目(Lsrgznjg202515);辽宁师范大学省级大学生创新创业训练计划项目(S202510165049)
2026-04-30
2026-04-30
2026-04-30
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