Title of article :
Role of double ITO/In2O3 layer for high efficiency amorphous/crystalline silicon heterojunction solar cells
Author/Authors :
Kim، نويسنده , , Sunbo and Jung، نويسنده , , Junhee and Lee، نويسنده , , Youn-Jung and Ahn، نويسنده , , Shihyun and Hussain، نويسنده , , Shahzada Qamar and Park، نويسنده , , Jinjoo and Song، نويسنده , , Bong-Shik and Han، نويسنده , , Sangmyeng and Dao، نويسنده , , Vinh Ai and Lee، نويسنده , , Jaehyeong and Yi، نويسنده , , Junsin، نويسنده ,
Issue Information :
روزنامه با شماره پیاپی سال 2014
Pages :
5
From page :
83
To page :
87
Abstract :
The high work function transparent conductive oxide films can be use to modify the front barrier height of amorphous/crystalline silicon heterojunction solar cells. We report the implementation of double ITO/In2O3 films as a front anti-reflection electrode in amorphous/crystalline silicon heterojunction solar cells. The In2O3 and ITO films were deposited by in-situ radio frequency (RF) magnetron sputtering system. The thin In2O3 films were used to modify the front contact barrier height of amorphous/crystalline silicon heterojunction solar cell due to their high work function while the ITO films were used to improve the conductivity of front transparent conductive oxide layer. We investigated the electrical and optical properties of double ITO/In2O3 layer with the variation of film thickness. In order to satisfy the requirement of solar cell applications, the optimum combination of thickness in terms of sheet resistance, resistivity, transmittance, etc. was sought. The double ITO/In2O3 layer with the thickness of 80/20 nm were applied as front anti-reflection electrode and the best performance of the device was found to be; Voc = 670 mV, Jsc = 37.42 mA/cm2, FF = 71.16% and η = 17.84%.
Keywords :
Front contact barrier height , Work function , HIT solar cell , ITO/In2O3 films , Double TCO layer
Journal title :
Materials Research Bulletin
Serial Year :
2014
Journal title :
Materials Research Bulletin
Record number :
2105497
Link To Document :
بازگشت