A review on epitaxial lift-off for III-V solar cells

Lift(数据挖掘) 外延 材料科学 工程物理 天体生物学 纳米技术 物理 计算机科学 数据挖掘 图层(电子)
作者
D. van der Woude,Lara Barros Rebouças,Elias Vlieg,Joost Smits,J.J. Schermer
出处
期刊:Thin Solid Films [Elsevier BV]
卷期号:808: 140570-140570 被引量:1
标识
DOI:10.1016/j.tsf.2024.140570
摘要

• Key factors in sacrificial layer etch rate are analyzed for various conditions. • The impact of release layer material properties on the etch rate is analyzed. • The impact of the etch solution composition on etch rate is analyzed. • Stress and strain effects on the epitaxial lift-off process are discussed. • Insights in the opportunities and challenges for epitaxial lift-off are discussed. Epitaxial lift-off (ELO) as a step in the fabrication of III-V devices offers a significant cost-reduction by non-destructive removal of the growth substrate, which can subsequently be reused. Specifically in solar cell production, ELO facilitates the creation of thin-film configurations that surpass the performance of substrate-based cells. This process involves a selective lateral etch of a sacrificial layer, typically a high-aluminum content AlGaAs layer, with hydrofluoric acid (HF). In the reaction, various aluminum-fluoride compounds, arsenic gas, fluoride ions, and water are formed. However, challenges arise in ensuring unhampered etching due to geometric constraints and side reactions leading to solid material deposits, including aluminum ions, hydrogen gas, and solid arsenic. This review provides an overview of all major aspects involving the theoretical understanding and practical application of epitaxial lift-off. An analysis is presented of various studies of the process parameters that influence the sacrificial layer etch rate under various experimental conditions. This includes factors such as the release layer's aluminum fraction, thickness, and doping concentrations, as well as experimental conditions, such as HF concentration and temperature. The influence of stress and strain on the ELO process, and the challenge to study this comprehensively, is also addressed. This work is concluded with remarks regarding substrate reuse and the challenges and opportunities for ELO, such as thin-film fragility, alternative release layers and multi-release ELO.
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