Ashif Mohammad
Deputy Station Engineer Super Power Transmission, Bangladesh Betar, Dhamrai, Dhaka, Bangladesh

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Revolutionizing Solar Energy with AI-Driven Enhancements in Photovoltaic Technology Ashif Mohammad; Farhana Mahjabeen
BULLET : Jurnal Multidisiplin Ilmu Vol. 2 No. 4 (2023): BULLET : Jurnal Multidisiplin Ilmu (INPRESS)
Publisher : CV. Multi Kreasi Media

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The important contribution of artificial intelligence (AI) to improving solar cell performance and its effects on sustainability and the integration of renewable energy. The article covers a wide range of AI-driven breakthroughs in solar energy, including material research and development, predictive models and control systems, manufacturing and deployment issues, and the application of big data analytics. It also looks into how artificial intelligence (AI) and machine learning algorithms may be used to increase solar cell efficiency, maximize energy production, and enable intelligent grid integration. The application of AI-driven algorithms for solar cell material design and development is the main topic of the first section. It demonstrates how AI has the potential to speed up the discovery and optimization of materials with improved stability and efficiency. In order to develop solar cell technologies, it also investigates how AI can be combined with nanotechnology, quantum computing, and machine vision. The use of AI-powered control systems and predictive models for monitoring and maintaining solar cell performance is covered in the second section. In order to enable effective grid integration and raise the overall reliability of solar energy systems, it highlights the role played by AI algorithms in spotting abnormalities, forecasting energy consumption, and optimizing energy generation. The final segment discusses the difficulties in producing and deploying solar cells as well as potential solutions based on AI. It highlights how AI may help improve system design, make site selection easier, and increase the sustainability of solar energy infrastructure. The fourth portion looks into how big data analytics might help solar energy reach its full potential. In order to maximize the use of solar energy and improve overall system efficiency, it investigates how AI algorithms can evaluate big datasets, optimize energy output, enable demand-side management, and encourage intelligent grid integration. The following sections delve into the specific subjects of machine learning algorithms, predictive models, and control systems for solar cell material design and development, AI-based solutions for monitoring and maintaining solar cell performance, AI-driven innovations in solar cell manufacturing and deployment, and the function of big data analytics in maximizing the efficiency of solar energy. The disruptive potential of AI in the solar energy sector is highlighted in each section, which covers the most recent developments, prospective effects, and future directions in various fields. Demonstrates the importance of AI-driven improvements in solar cell performance and their effects on the integration and sustainability of renewable energy sources. It emphasizes the potential of AI to accelerate the transition to a clean and sustainable energy future by optimizing energy production, expanding grid integration, increasing system efficiency, and more. The report highlights the necessity of ongoing research and development in AI technologies to fully realize the seemingly limitless potential of AI in solar energy and hasten the adoption of renewable energy sources around the world.
Promises and Challenges of Perovskite Solar Cells: A Comprehensive Review Ashif Mohammad; Farhana Mahjabeen
BULLET : Jurnal Multidisiplin Ilmu Vol. 2 No. 5 (2023): BULLET : Jurnal Multidisiplin Ilmu
Publisher : CV. Multi Kreasi Media

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Abstract

A promising photovoltaic technology with great efficiency, affordable production, and promise for many uses has emerged: perovskite solar cells. With a focus on five key areas—device architectures and fabrication methods, efficiency enhancements, stability and durability concerns, environmental impacts and sustainability considerations, commercialization and market potential—this paper offers an overview of the benefits and drawbacks of perovskite solar cells. Alternative topologies and scalable production approaches are explored in the section on device architectures and fabrication techniques for perovskite solar cells. Perovskite solar cell efficiency improvements are reviewed in terms of new perovskite compositions, light control methods, and tandem structures. Research on more stable perovskite materials, encapsulating methods, and a knowledge of degradation mechanisms are used to address stability and durability issues. Perovskite solar cells' effects on the environment and sustainability issues are investigated, with a focus on lead toxicity and resource usage during manufacturing. The development of lead-free materials, improved production techniques, life cycle analyses, and recycling promotion are all highlighted. Scalability, dependability, cost competitiveness, and market acceptance are highlighted as being essential for the successful deployment of perovskite solar cells in the commercialization and market potential section. Perovskite solar cells are incorporated into many applications, and future prospects and research initiatives are also addressed. The current state of perovskite solar cell technology is thoroughly reviewed in this paper, along with the major difficulties and potential future research areas. The results help to clarify the benefits and drawbacks of perovskite solar cells and offer insightful information for researchers, business people, and politicians engaged in the creation and application of this potential renewable energy technology.