《光电仪器原理与设计》

《光电仪器原理与设计》

MEA04007

本课程是一门专业技术课，适合于近测控技术与仪器，光学工程类各专业。本课程的目的是通过光电仪器原理与设计课程的学习，培养学生光电仪器原理分析、仪器使用和仪器系统设计能力。

本课程的任务是使学生以现有光、机、电、算基础知识为起点，通过常用光电仪器工作原理及设计原则的理论和方法的学习，从普遍规律和具体经验两方面提高对于光电仪器原理和设计的认知和掌握；熟知常用光电仪器的工作原理；掌握光电仪器重要组成部件的结构、功能及参数设计方法；培养学生进行总体设计的能力；为后续课程的学习和工程设计奠定理论基础和工程实践基础。

《Optoelectronic Instrument Principle and Design》

MEA04007

The objective of this course is to familiarize students with principles and basic design methods of commonly used optoelectronic instruments. Students will be trained to master the operating procedure of the instruments, distinguish the structure and function of each component, and present preliminary results of both overall design and parameter design.

This course starts from basic physical principles adopted in optoelectronic instruments, and covers accuracy analysis of measuring instrument and modern instrument design methods such as ergonomics or optimum design. The focused functional contents include light sources, optical elements, detectors and metrical standards. Micro displacement technology for precision instruments and common alignment schemes are also introduced. Examples of conventional instruments like interferometers or microscopes are proposed to train the students to solve specific practical problems.

《激光技术原理与实验》

本课程是测控技术与仪器专业一门理论与实验并重的专业基础课，其教学目的是通过该课程理论部分的学习，使学生系统掌握激光的基本概念和基础理论，掌握各种类型激光器和基本激光技术的工作原理与设计方法，了解激光器件和激光技术领域的发展趋势和技术前沿。通过实验环节的锻炼，进一步加深对激光器和激光技术基本工作原理的理解，认识和熟悉常见激光器的基本构造、工作特性和调试方法，掌握激光器主要特性参数的测试方法，并学会使用激光实验研究常用的测试仪器。以期通过本课程的学习，培养学生理论联系实际、综合运用所学基础知识解决实际工程问题的能力。

《Principle and Experiments of Laser Technology》

The course emphasizes on both theory and experiment of laser and laser technology for students. In the theory part of the course, the fundamental concepts and principles of laser will be introduced, followed by the presentation of variety of lasers and the laser technology. The developing trend and cutting edge of lasers and laser technology will also be reviewed. In the experiment part of the course, students will carry out several experiments on the basic configuration of lasers, the output characteristics of lasers, and the measurement of laser parameters.

《误差理论与数据处理》

OPT04032

培养学生掌握测试与实验数据处理的基本理论与方法，正确估计被测量的值，科学客观地评价测量结果，并根据测试对象的准确度要求，对测试与实验方法进行合理设计，为后续专业课程及实验环节奠定理论基础。

本课程的主要任务是掌握误差理论和测量不确定度的基本知识，会正确地表达误差与测量结果；掌握粗差剔除、系统误差发现和随机误差统计分析的常用方法，会正确进行误差分析；掌握不确定度的两类评定、传播和合成的方法，会正确评定测量不确定度；培养应用概率统计和微型电子计算机分析处理多种测量数据处理问题的能力训练。

《Theory of Error and Data Processing》

OPT04032

The objective of this course is to familiarize students with the theory of error and measurement uncertainty to calculate the result accurately and evaluate the result scientifically..

The main task of this course is to master the basic theory and knowledge of error and measurement uncertainty. Students will learn how to express the error and measurement results correctly, and grasp commonly used methods of statistical analysis of the gross error, systematic error and random error. Meanwhile they will also learn how to analyze errors properly, master the two types of uncertainty evaluation and the combined standard uncertainty or expanded uncertainty. Finally they will be taught the basic theories of the least square method and its application in measurement and data processing.

《几何精度设计与检测》

本课程是一门实践性较强专业技术基础课，是联系机械设计类课程与制造工艺类课程的纽带，适合于仪器仪表类、机械类相关专业。本课程的目的是通过几何精度设计与检测课程的学习，培养学生的机械零件几何精度的理解、设计及检测能力。

本课程的任务是通过几何精度设计与检测相关理论和方法的学习，使学生掌握机械零件几何精度的理解能力及设计方法，同时掌握典型的几何量检测及数据处理方法；培养学生正确使用国家标准、规范及相关应用原则的能力。为后续相关专业课程的学习和工程设计奠定基础。

《Geometric Precision Design and Testing》

The course is a professional and technical elementary course, which is basis of both mechanical design courses and manufacturing technology courses. This course is suitable for the instrument, mechanism and the other relative majors. The objective of the course is to help the students to acquire the fundamental knowledge, the capability of understanding, design and testing of the geometric precision.

In order to help the students to acquire the capability of the understanding and the design of the geometric precision, both the relative theories and the main methods will be introduced. Meanwhile, the testing of the geometric precision and its typical