結合繞射光柵與平凸透鏡之光束分頻元件於聚 光型太陽光電 / 太陽熱混合系統之應用

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姓名

拉卡索(YUKE HARY LAKSONO) 查詢紙本館藏

畢業系所

機械工程學系

論文名稱

結合繞射光柵與平凸透鏡之光束分頻元件於聚光型太陽光電 / 太陽熱混合系統之應用
(DESIGN OF SPECTRAL BEAM SPLITTER BASED ON THE COMBINATION OF DIFFRACTIVE GRATING AND PLANO-CONVEX LENS FOR CONCENTRATED PHOTOVOLTAIC/THERMAL SYSTEM)

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摘要(中)

聚光型太陽光電 / 太陽熱混合系統(concentrating photovoltaic and thermal systems, CPVT)是具潛力的潔能技術，用以將太陽能轉換為電與熱能。本研究提出一光束分頻CPVT架構，其藉由繞射光柵及平凸透鏡將太陽光之紅外波段與非紅外波段之光波分離，並分別導引至各自之接收元件。在繞射光柵方面，本研究設計閃耀式及二階式二型光柵，並分析光柵形狀誤差的影響。而在熱分析方面，藉由熱流原理分別針對此二型CPVT所使用之熱管進行溫度分布之模擬分析。再由模擬分析搭配實驗量測之結果推算閃耀光柵型與二元光柵型CPVT的總輸出效率分別為 43.37%, 40.22%。本研究之成果將作為未來實作光束分頻CPVT之參考。

摘要(英)

A concentrating photovoltaic and thermal systems (CPVT) is a potential solar energy system for clean electricity and thermal generation. In this research, a spectral beam-splitting CPVT configuration is proposed based on the combination of a diffractive grating and a plan-convex lens to spectrally and spatially split infrared light and non-infrared light onto the receivers. Two types of gratings, blazed and binary phase gratings, are designed as the diffractive grating herein. Meanwhile, the shape distortion of the main component, the grating, is studied. Moreover, the temperature distribution of the heat pipe is simulated based on heat flux generated by a blazed grating or a binary phase grating. The total power efficiency of a CPVT show that the blazed and binary configurations has slightly higher from the estimated measurement are 43.37% and 40.22%, respectively. The research findings are expected to guide the designs of CPVTs based on diffraction optics and refractive lens.

關鍵字(中)

★ 聚光型太陽光電 / 太陽熱混合系統
★ 分光
★ 繞射光柵
★ 平凸透鏡
★ 熱管

關鍵字(英)

★ concentrating photovoltaic/thermal
★ light splitting
★ diffractive grating
★ plan-convex lens
★ heat pipe

論文目次

Abstract ii
Acknowledgements iii
List of Figures vi
List of tables viii
1 CHAPTER 1 INTRODUCTION 1
1.1 Motivation and problem 1
1.2 Developments of the SBS CPVT systems 3
1.3 Research objectives 7
1.4 Significance of research 8
1.5 Organization of research 9
2 CHAPTER 2 FOUNDATIONS AND DESIGN CONSIDERATIONS 10
2.1 Basic conceptions of the SBS CPVT system 10
2.2 Design considerations 11
2.2.1 Optical consideration 12
2.2.2 Thermodynamic and electrical considerations 15
2.3 Diffraction grating theory and its application in photovoltaic 21
2.3.1 Grating equation 21
2.3.2 Grating in the spectral beam splitting-photovoltaic application 23
2.3.3 Grating fabrication 24
2.4 Heat pipe as the cooling system 25
2.5 Thermal Theory for the Heat Pipe as Cooling Systems 26
2.5.1 General theory of heat transfer in heat pipe 26
2.5.2 Governing equation and boundary conditions of heat transfer 27
3 CHAPTER 3 OPTICAL SIMULATION 29
3.1 Structure of SBS CPVT 29
3.2 Design of diffraction grating using GSolver software 30
3.3 Steps in GSolver 31
3.4 Diffraction Grating Optimization 34
3.5 Optical Model Using LightTool Software 37
3.6 Analysis and Discussion of Fabrication Tolerance 43
3.6.1 Distortion effect on groove shape of binary grating 43
3.6.2 Optical power performance with shape grating distortion 47
4 CHAPTER 4 THERMAL SIMULATION 50
4.1 Thermal Simulation Using ANSYS Software Workbench 17. 2 50
4.1.1 General Information 50
4.1.2 The general design of heat pipe 50
4.1.3 Experimental procedures 51
4.1.4 Thermal model 56
4.1.5 Thermal performance of heat pipe 57
4.2 Results and Discussions 58
5 CHAPTER 5 CONCLUSIONS 64
6 References 65

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指導教授

韋安琪

審核日期

2018-8-23

推文