S. Soresi, Mattia da Lisca, C. Besancon, N. Vaissière, A. Larrue, C. Calò, J. Alvarez, C. Longeaud, L. Largeau, Pablo García Linares, É. Tournié, J. Kleider, J. Decobert
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The two devices were then combined in a tandem device by introducing an intermediate InP/AlInAs lattice-matched tunnel junction, showing an efficiency of 18.4%. As an intermediate step towards the realization of the tandem device on Si, the InP and InGaAs single junction solar cells were grown on top of a commercial InP/GaP/Si template. This transitional stage enabled to isolate and evaluate the effects of the growth of III-V on Si on the photovoltaic performance through the comparison with the aforementioned devices on InP. Each cell was electrically characterized by external quantum efficiency and dark and illuminated current-voltage under solar simulator. The material quality was also analyzed by means of X-ray diffraction, Atomic-Force Microscopy, Transmission Electron and Scanning Electron Microscopy. 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引用次数: 1
摘要
在硅衬底上集成III-V多结太阳能电池是目前最有希望将高光伏性能与降低制造成本相结合的可能性之一。在这项工作中,我们提出了一项前瞻性研究,即通过直接MOVPE生长在商业可用的Si模板上实现与InP匹配的InP/InGaAs串联太阳能电池晶格。首先在InP衬底上分别培养和优化了InP顶部电池和InGaAs底部电池,其转换效率分别为13.5%和11.4%。然后,通过引入中间的InP/AlInAs晶格匹配隧道结,将两个器件组合成串联器件,效率达到18.4%。作为实现硅基串联器件的中间步骤,在商业化的InP/GaP/Si模板上生长了InP和InGaAs单结太阳能电池。这个过渡阶段可以通过与上述器件在InP上的比较来分离和评估III-V在Si上的生长对光伏性能的影响。在太阳模拟器下对每个电池进行了外部量子效率和黑暗和照明电流电压的电学表征。并用x射线衍射、原子力显微镜、透射电子显微镜和扫描电子显微镜对材料质量进行了分析。III-V on Si器件对InP和InGaAs太阳能电池的效率分别为3.6%和2.0%。
Epitaxy and characterization of InP/InGaAs tandem solar cells grown by MOVPE on InP and Si substrates
The integration of III-V multi-junction solar cells on Si substrates is currently one of the most promising possibilities to combine high photovoltaic performance with a reduction of the manufacturing costs. In this work, we propose a prospective study for the realization of an InP/InGaAs tandem solar cell lattice-matched to InP on a commercially available Si template by direct MOVPE growth. The InP top cell and the InGaAs bottom cell were firstly separately grown and optimized using InP substrates, which exhibited conversion efficiencies of 13.5% and 11.4%, respectively. The two devices were then combined in a tandem device by introducing an intermediate InP/AlInAs lattice-matched tunnel junction, showing an efficiency of 18.4%. As an intermediate step towards the realization of the tandem device on Si, the InP and InGaAs single junction solar cells were grown on top of a commercial InP/GaP/Si template. This transitional stage enabled to isolate and evaluate the effects of the growth of III-V on Si on the photovoltaic performance through the comparison with the aforementioned devices on InP. Each cell was electrically characterized by external quantum efficiency and dark and illuminated current-voltage under solar simulator. The material quality was also analyzed by means of X-ray diffraction, Atomic-Force Microscopy, Transmission Electron and Scanning Electron Microscopy. The III-V on Si devices showed efficiencies of 3.6% and 2.0% for the InP and InGaAs solar cells, respectively.