Si(001)上p-BaSi2/n-Si异质结太阳能电池的研究及其与Si(111)上的比较

T. Deng, Takuma Sato, Zhihao Xu, R. Takabe, S. Yachi, Y. Yamashita, K. Toko, T. Suemasu
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引用次数: 0

摘要

我们通过分子束外延在Si(001)衬底(电阻率${\rho =1}-10 W \textbf{cm})$)上生长空穴浓度为$1.1\times 10^{\mathbf{18}} \mathbf{cm} ^{\mathbf{-3}}$的掺硼p- $BaSi_{\mathbf{2}}$薄膜,形成p- $BaSi_{\mathbf{2}}/n-Si$异质结太阳能电池。p-BaSi $BaSi_{\mathbf{2}}$层厚度(d)从20到60 nm变化,以研究其对太阳能电池性能的影响。转换效率($\eta$)随着(d)的增加而增加,在(d) =40 nm时达到最大值9.8ñ,而随着(d)的增大而降低,表明Si(001)表面具有$BaSi_{\mathbf{2}}$太阳能电池的潜力。结果与Si(111)比较。接下来,我们将在Si(001)上制造$BaSi_{\mathbf{2}}$同质结太阳能电池。
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Investigation of p-BaSi2/n-Si heterojunction solar cells on Si(001) and comparison to those on Si(111)
We grew boron-doped p-$BaSi_{\mathbf{2}}$ films with a hole concentration of $1.1\times 10^{\mathbf{18}} \mathbf{cm} ^{\mathbf{-3}}$ on a Si(001) substrate (resistivity ${\rho =1}-10 W \textbf{cm})$ by molecular beam epitaxy to form p-$BaSi_{\mathbf{2}}/n-Si$ heterojunction solar cells. The p-BaSi$BaSi_{\mathbf{2}}$ layer thicknesses (d) were varied from 20 to 60 nm to investigateits effect on solar cell performance. The conversion efficiency ($\eta$ increased with (d), reached a maximum of 9.8ñ at (d) =40 nm, and degraded for larger (d), indicating that Si(001) surface shows potential for $BaSi_{\mathbf{2}}$ solar cells. The results were compared with those on Si(111). Next, we will fabricate $BaSi_{\mathbf{2}}$ homojunction solar cells on Si(001).
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