臺灣博碩士論文加值系統

本研究使用單邊與雙邊之光熱分離裝置進行室內與戶外量測，探討不同濃度之氣凝膠塗料及不同厚度之氣凝膠玻璃的透光度和隔熱效果。從光轉電與熱轉電的發電數據中挑選出最佳的氣凝膠塗料濃度與氣凝膠玻璃厚度，再將最佳條件使用在三種不同氣凝膠顆粒上，進一步探討不同顆粒大小對光電與熱電的影響。

The study used a solar light-thermal separator device to make unilateral, bilateral, indoor, and outdoor measurements. It investigated the transmittance and heat insulation effect in different concentrations of aerogel coating and thicknesses of glass. It selected the most suitable aerogel coating concentration and aerogel glass thickness from the generation data of both optical and heat energy transfers into electric energy. Using the best conditions of three different aerogel particles, this study explored the effect of different particle sizes on optical power and thermal power.

Publications and Preprints II
Abstract (in Chinese) III
Abstract (in English) IV
Acknowledgement V
Figure Caption VI
Table Caption VII
Contents VIII

Chapter 1 Introduction 1
1.1 Background 1
1.2 Thermoelectric power generating module introduction 2
1.3 Solar cell introduction 3
1.4 Tiny electric energy storage device 5
Chapter 2 Literature Review 7
2.1 Aerogel introduction and history 7
2.2 Supercritical drying 8
2.3 Types of aerogel 9
2.3.1 Silica aerogel 9
2.3.2 Metal oxide aerogels 10
2.3.3 Organic aerogels 11
2.4 Preparation of aerogel 12
2.5 Aerogels applications 13
2.6 Motivation 13
Chapter 3 Experimental Procedure 16
3.1 Aerogel glass preparation and coating film 16
3.2 Solar light-thermal separator fabrication 17
3.3.1 Solar light-thermal separator performance measurements under halogen lamp (Use aerogel A) 17
3.3.2 Solar light-thermal separator performance measurements under the sun (Use aerogel A) 19
3.3.3 Best performance of photoelectric and thermoelectric by changing aerogel concentration and film thickness under halogen lamp and solar light 20
3.4 Comparison of three different optical characteristics of the aerogel particle size. 20
3.5 Solar light-thermal separator applications 21
Chapter 4 Results and Discussion 22
4.1 Aerogel coating glass 22
4.2 Solar light-thermal separator 22
4.3 Solar light-thermal separator applications 25
Chapter 5 Conclusions 26
5.1 Conclusions 26
5.2 Future works 27

Reference 28
Figure 31
Table 40
Biography 47

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