太陽能電池:物理與技術
Solar Cell: Physics and Technology
| 節 | 週一 | 週三 |
|---|---|---|
7 15:30–16:20 | 太陽能電池:物理與技術 ED201 2 節連堂 | |
8 16:30–17:20 | 太陽能電池:物理與技術 ED201 |
* 根據陽明交大上課時間表所列
This class begins from review of semiconductor device physics and gradually goes into more in-depth topics in solar cell technology. It covers concepts and theoretical basis for photovoltaic devices, the links between device physics and practical design considerations, and introduction on different solar cell technologies in the past/present/future. Students attend this class are expected to develop basic understanding on photovoltaic devices, the knowledge to comment on subjects in this field, and in some cases the skills to treat problems quantitatively. 這一門課將由淺顯的半導體元件物理開始,再逐漸進入比較深入的太陽能相關主題,內容包括太陽能光電元件的概念和理論基礎、元件物理和實際應用的連結、以及對不同種類太陽能電池技術的介紹。修習這一門課的學生將得到對太陽能光電元件的基礎認識、並且可以對相關的議題提出看法的、和在某一些情況下,可以定量的解決相關問題的能力。 電子研究所希望培育學生具備十項核心能力及三項基本素養(請參官網http://www.ee.nctu.edu.tw首頁之【學術研究】→【IEET】內容。 ※本課程將培育學生具備下述幾項核心能力: 1.1 固態電子或電路系統相關專業知識之能力 1.2 固態電子或電路系統之設計、實驗及分析數據之能力,並具有發掘、分析、獨立解決問題及創新思考的能力 1.3 使用電腦輔助軟體、儀器等工具的能力 1.4 具跨領域整合之能力 2.1 理解並實踐專業倫理與社會責任之能力 2.3 終身自我學習成長之能力 3.2 中英文科技論文之閱讀寫作與簡報能力 3.3 瞭解多元文化、時事議題與工程技術對環境、社會及全球之影響 ※本課程將培育學生具備下述幾項基本素養: 1 養成學生具備電子工程基礎與專業知識,並配合實作,達到理論與實務相結合之目的。使學生具備推論、分析、創新及整合能力。 2 教育學生具備寬廣之知識、溝通技巧與團隊精神,以迎接不同生涯發展之挑戰。教育學生瞭解專業倫理及社會責任。 3 建立國際化學習環境,使學生洞察國內外社會與產業之脈動,以培養學生成為立足於全球之電子菁英與領袖人才。
先修科目或先備能力: 大學部四年級 或電子所碩士班先修課程: (大學部)半導體元件物理 (大學部)電磁理論 Senior Undergraduate or Graduate Standing. Prerequisite :Semiconductor Device Physics (Undergraduate Level), Electromagnetic Wave Theory (Undergraduate Level).
Class material will be posted on website (http://dcpc.nctu.edu.tw/)
Homework Assignments (30%) Presentation (30%) Final Exam (40%): Exams will primarily cover the lecture materials in class and are intended to test the conceptual understanding of solar cell technology. Bonus (10%): class attendance
- Physics of P-N Junction : Review
- Photon Generation and carrier Recombination in Semiconductor
- Review of Maxwell Equations and Wave Propagation
- Solar Cell Design Consideration part I : carrier generation and collection
- Solar Cell Design Consideration part II : Light Trapping
- Review of Different Solar Cell Technologies
- Conventional c-Si solar cells
- Thin Film Solar Cells
- Multi-junction Cell
- Intermediate Band Solar Cell
- Organic Solar Cells
| 週次 | 主題 |
|---|---|
| 第 1 週 | Band Diagram, electrostatics, carrier transport equations and Drift-Diffusion Model, |
| 第 2 週 | P-N junctions J-V characteristics, and non-ideal effects such as generation and recombination current and high level injection, Contact to the P-N junctions Ohmic contact and Schottky Contact, Contact Resistance |
| 第 3 週 | Recombination and Generation Mechanisms in Semiconductors |
| 第 4 週 | Carrier generation, transport, and Collection in Solar cells, Short Circuit Current, Open Circuit Voltage, and Fill factor and their relation to device physics |
| 第 5 週 | Maxwell equations in differential form, Harmonic steady states and phasers, Helmholtz Equations |
| 第 6 週 | Wave Propagation in lossless and lossy dielectric medium, normal and oblique incidence on multilayer dielectric |
| 第 7 週 | Introduction to numerical methods in electromagnetics and their application to photovoltaic device modeling |
| 第 8 週 | Diffusion length in c-Si and its effect on c-Si solar cells, Drift length in amorphous/poly-Si p-i-n cells, radiative and non-radiative recombination time |
| 第 9 週 | Shockley and Queisser Limit, Voc enhancement in Serial connected Cell (Tandem Cell), Jsc enhancement in parallel connected cells (Impurity Photovoltaic effect) |
| 第 10 週 | Introduction to wave Guiding effect in photovoltaic devices, the need of optical path length enhancement. Optical path length enhancement techniques : Metal back reflector, Metal/Dielectric back reflector, Dielectric Mirror including (DBR and Guided Mode Resonance Mirror), Front Surface Anti-reflection coating |
| 第 11 週 | Optical path length enhancement techniques: Optical Gratings and Photonic Crystal |
| 第 12 週 | Brief introduction on wide span of solar cell technologies. |
| 第 13 週 | Tandem Cell Material Systems: Current Matching and Lattice Matching, Carrier transport in tunneling junction, Concentrator technology and space application, survey of currently achieved device performance, future trend and limitation. |
| 第 14 週 | Thin Film Solar Cells including a-Si, Poly-Si, CdTe, and CIGS technology. Survey of currently achieved device performance, future trend and limitation. |
| 第 15 週 | Third Generation Photovoltaics and Intermediate band solar cells: full spectrum in single junction. Theoretical thermodynamic detailed balance limit. |
| 第 16 週 | Third Generation Photovoltaics and Intermediate band solar cells: QD implementation and Highly matched alloy. The issue of non-radiative recombination versus increased optical absorption. |
| 第 17 週 | Organic Solar Cells: low cost and large area, future trend and current obstacles. |
| 第 18 週 | Final Exam! |
Class materials will be given throughout the semester References: 1. Third Generation Photovoltaics: Advanced Solar Energy Conversion (Springer Series in Photonics), Martin A. Green, Springer ISBN-10: 3540265627 ISBN-13: 978-3540265627 2. Handbook of Photovoltaic Science and Engineering, Antonio Luque , Wiley, ISBN-10: 9780470721698 ISBN-13: 978-0470721698 3. Solar Cells: Materials, Manufacture and Operation, Tom Markvart and Luis Castaner , Elsevier Science, ISBN-10: 9781856174572 ISBN-13: 978-1856174572
- 地點
- ED503
- 時間
- by arrangement
- 聯絡方式
- hdtd5746@gmail.com