Recent advances in data-driven and artificial intelligence-integrated perovskite solar cells: From design to self-driving laboratories

IF 19.6 1区 材料科学 Q1 MATERIALS SCIENCE, MULTIDISCIPLINARY
Infomat Pub Date : 2026-03-30 Epub Date: 2026-02-20 DOI:10.1002/inf2.70124
Jaehee Lee, Juhwan Noh, Hyunjun Lee, Yea-Lee Lee, Jino Im, Jangwon Seo
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引用次数: 0

Abstract

Perovskite solar cells (PSCs) have rapidly advanced owing to their excellent optoelectronic properties such as high absorption, long diffusion length, and high carrier mobility, achieving power conversion efficiencies of up to 27%. The ABX3 crystal structure of perovskites and their various possible material combinations provide broad compositional and dimensional tunability, enabling tailored bandgaps, controlled stability, and targeted optoelectronic features. However, the efficiency of conventional trial-and-error approaches in discovering new materials is limited by the interplay between the compositional, material, and processing variables, highlighting the need for reproducible synthetic protocols and reliable datasets to support the high-throughput exploration of material combinations. Artificial intelligence (AI) technologies, including machine learning and large language models, leverage such datasets to provide predictive and generative capabilities for performance forecasting, compositional and process optimization, inverse design of novel materials, and literature knowledge extraction. Furthermore, the combination of an automated protocol setup, fabrication, high-throughput characterization using AI, and large device-level datasets has paved the way for building autonomous research platforms. Specifically, automation and robotics are integrated with in situ metrology and algorithmic guidance to reduce the build–measure–learn cycle from weeks to hours, thereby accelerating discovery and stability assessment. This review focuses on three central pillars of data-driven and AI research: data platforms, AI methodologies, and self-driving laboratories, which could collectively reshape PSC research into a systematic, autonomous, and scalable framework. By reviewing advances across these domains, we demonstrate how data-driven strategies can transform PSC development from intuition-based exploration to accelerated and reliable innovation, paving the way for practical deployment and commercialization.

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数据驱动和人工智能集成钙钛矿太阳能电池的最新进展:从设计到自动驾驶实验室
钙钛矿太阳能电池(PSCs)由于具有高吸收、长扩散长度和高载流子迁移率等优异的光电特性而迅速发展,其功率转换效率高达27%。钙钛矿的ABX3晶体结构及其各种可能的材料组合提供了广泛的成分和尺寸可调性,从而实现了定制的带隙、可控的稳定性和有针对性的光电特性。然而,传统的试错方法在发现新材料方面的效率受到成分、材料和加工变量之间相互作用的限制,这突出表明需要可重复的合成协议和可靠的数据集来支持材料组合的高通量探索。人工智能(AI)技术,包括机器学习和大型语言模型,利用这些数据集为性能预测、成分和工艺优化、新材料的逆向设计和文献知识提取提供预测和生成能力。此外,自动化协议设置、制造、使用人工智能的高通量表征和大型设备级数据集的结合,为构建自主研究平台铺平了道路。具体来说,自动化和机器人技术与原位计量和算法指导相结合,将构建-测量-学习周期从数周缩短到数小时,从而加快了发现和稳定性评估。本文重点介绍了数据驱动和人工智能研究的三个核心支柱:数据平台、人工智能方法和自动驾驶实验室,它们可以共同将PSC研究重塑为一个系统的、自主的、可扩展的框架。通过回顾这些领域的进展,我们展示了数据驱动战略如何将PSC开发从基于直觉的探索转变为加速和可靠的创新,为实际部署和商业化铺平道路。
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来源期刊
Infomat
Infomat MATERIALS SCIENCE, MULTIDISCIPLINARY-
CiteScore
37.70
自引率
3.10%
发文量
111
审稿时长
8 weeks
期刊介绍: InfoMat, an interdisciplinary and open-access journal, caters to the growing scientific interest in novel materials with unique electrical, optical, and magnetic properties, focusing on their applications in the rapid advancement of information technology. The journal serves as a high-quality platform for researchers across diverse scientific areas to share their findings, critical opinions, and foster collaboration between the materials science and information technology communities.
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