| Abstract |
| In recent years, the exploration of van der Waals materials has taken center stage in the field of advanced materials research. Studies have delved deeply into the multifaceted characteristics of these materials, and in particular their potential applications in solar cell technology. Van der Waals materials, named after the unique forces binding their layers, are of high interest because of their unparalleled physical and chemical properties. Their two-dimensional (2D) nature offers a plethora of advantageous features, including a high surface-to-volume ratio, which is crucial to enhanced light absorption and electron transport. The tunable electronic properties of these materials also offer a versatile platform for customizing behavior to meet the specific requirements of solar cell applications. Their distinctive optical characteristics can also be enhanced to improve light absorption and reduce energy losses, thereby increasing overall solar cell efficiency. Recent research has not only investigated the inherent properties of van der Waals materials but also explored various techniques to combine and stack them. Such methodologies aim to exploit and optimize the synergistic effects of different materials, paving the way for next-generation solar cells with improved performance metrics. A comprehensive examination of the operating principles of these materials provides insights into their interaction with light and their subsequent electrical behavior. The study concludes with a forward-looking perspective, emphasizing how the integration of van der Waals materials could very well revolutionize the solar cell industry. Their potential to significantly boost the efficiency and stability of solar cells positions them as promising candidates for future sustainable energy solutions.
(Received 21 September, 2023; Accepted 20 November, 2023) |
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| Key Words |
| Van der Waals, 2D Transition Metal Dichalcogenides, Interface Engineering, Photovoltaics |
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