Nanophotonics and Detectors

所在平台: Coursera

课程主页: https://www.coursera.org/learn/nanophotonics-detectors

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课程简介

课程名称:纳米光子学与探测器 概述:本课程可获取学术学分,作为CU Boulder电气工程硕士学位ECEA 5606的一部分。课程深入探讨纳米光子发光设备和光学探测器,包括金属半导体、金属半导体绝缘体和pn结。课程还将涵盖光导体、雪崩光电二极管以及光电倍增管。每周的作业将挑战您运用所学的分析和设计原则,为现实世界问题做好准备。 课程学习成果: 完成本课程后,您将能够: 1. 利用纳米光子效应(低维结构)设计激光器。 2. 将低维结构应用于光子器件设计。 3. 针对特定系统和应用选择与设计光学探测器。 课程大纲: 1. 模块名称:量子级联激光器 描述:本模块涵盖纳米光子发光设备和光学探测器的基础知识,包括金属半导体、金属半导体绝缘体和pn结,光导体、雪崩光电二极管和光电倍增管。低维结构使得全新类型的设备成为可能。 2. 模块名称:限制光子 描述:本单元将学习如何像限制电子一样限制光子,增强激光性能,并开发出“阈值无关”的激光器。 3. 模块名称:光子检测 描述:您将学习检测的基础知识和评估探测器的关键性能指标,包括噪声当量功率和探测率。这为理解、设计和使用不同的光子检测技术打下基础。 4. 模块名称:金属绝缘体半导体结构 描述:您将了解金属绝缘体半导体设备的基本原理、优点及面临的挑战,为后续的电荷耦合设备的讨论提供基础。 5. 模块名称:电荷耦合设备(CCD)和光导体 描述:本模块介绍两种强大的检测技术:基于金属绝缘体半导体结构的电荷耦合设备(CCD)和光导体。 6. 模块名称:P/N结与雪崩光电二极管(APD) 描述:学习pn结和雪崩光电二极管的重要探测器技术,应用范围广泛,包括显微镜和激光测距(LIDAR)等。 通过本课程,您将深入了解纳米光子学的前沿技术,为光电子领域的研究和工程打下坚实基础。

课程大纲

Name:Quantum Cascade Lasers

Description:The course covers the basics of nanophotonic light emitting devices and optical detectors, including metal semiconductor, metal semiconductor insulator, and pn junctions, photoconductors, avalanche photodiodes and photomultiplier tubes. Low dimensional structures enable an entirely new class of devices. Join me on a journey to understand how this happens and explore powerful examples of successful technologies such as the quantum cascade laser.Module 1 will cover the quantum cascade laser, a laser design based on intersub-band transitions, that enables very long wavelength lasers. It will also talk about lasers that operate on intraband transitions, using low dimensional structures, which enable further control over carrier concentrations.

Name:Confined photons

Description:In this unit, we will learn how to confine photons just as we do with electrons. This gives us power over the allowed modes of emission, allowing us to enhance the performance of lasers as well as develop 'threshold-less' lasers. I hope you enjoy this exciting topic as much as I do.

Name:photonic detection

Description:In this module, you will learn about the basics of detection and the key performance metrics that are used to evaluate detectors including noise equivalent power and detectivity. This lays the building blocks for fundamental understanding, design, and use of different photonic detection technology. This is core information that should be in the wheelhouse of any photonics researcher or engineer.

Name:metal insulator semiconductor structures

Description:In this unit, you will learn about the fundamentals of how metal insulator semiconductor devices operate, their advantages and challenges they face. This information is particularly useful for understanding the operation of charge-coupled devices, discussed in the next section.

Name:Charge Coupled Devices (CCDs) and Photoconductors

Description:In this module, you will learn about two powerful detection technologies: charge coupled devices (CCDs) based on metal insulator semiconductor structures and photoconductors. These technologies are very useful for photonic systems.

Name:P/N Junctions and Avalanche photodiodes (APDs)

Description:In this module, you will learn about another very important detector technology: p-n junctions. These junctions can be used to be photodiodes as well as avalanche photodiodes. We will learn these important technologies function, with applications ranging from microscopy to light detection and ranging (LIDAR).

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课程详情

This course can also be taken for academic credit as ECEA 5606, part of CU Boulder’s Master of Science in Electrical Engineering degree. Nanophotonics and Detectors Introduction This course dives into nanophotonic light emitting devices and optical detectors, including metal semiconductors, metal semiconductor insulators, and pn junctions. We will also cover photoconductors, avalanche photodiodes, and photomultiplier tubes. Weekly homework problem sets will challenge you to apply the principles of analysis and design we cover in preparation for real-world problems. Course Learning Outcomes At the end of this course you will be able to… (1) Use nanophotonic effects (low dimensional structures) to engineer lasers (2) Apply low dimensional structures to photonic device design (3) Select and design optical detector for given system and application

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