本研究的核心概念是比較染料敏化太陽能電池(DSSC)與其他種類的太陽能電池在200~10000 Lux的光照環境，利用不同濃度的電解液具有不同穿透率的特性，因穿透率提升進而增加進光量，增加發電效率最多117%；與光波導元件的折射率差異，將照射至光波導元件的光線引導至自供電裝置中的DSSC，進而提高發電效率。本研究使用聚二甲基矽氧烷(PDMS)、 不同粒徑的散射型TiO2作為波導材料應用於DSSC電池表面，從低Lux到高Lux提升輸出功率51.3%~20%；再針對軟性DSSC的在軟性基材上的改良搭配軟性電路板，將軟板可撓模度從2.85降至1.07，達到整體軟性化的目標。

This study compares dye-sensitized solar cells (DSSC) with other types of solar cells in a light environment of 200~10000 Lux. Because increase in penetration rates can enhance the brightness of the lighting and can vary in different concentrations of electrolyte, the characteristic is exploited to differentiate refractive index from the optical waveguide component to irradiate the light from the optical waveguide component to the DSSC in a self-powered device, thereby improving power generation efficiency. In this study, Polydimethylsiloxane (PDMS) and different particle size TiO2 were used as waveguide materials on the surface of DSSC cells to increase the output power from low Lux to high Lux by 51.3%~20%. An improved flexible circuit board was also used with the flexible DSSC to achieve the overall flexible goal.

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