Combining Artificial Intelligence with Nanoscale Energy Systems to Achieve Highly Efficient Energy Harvesting and Utilization

This study offers a novel method for utilizing artificial intelligence (AI) to advance battery technology in a way that will change people’s lives. We suggest a ground-breaking technique for quickening the identification of innovative battery materials with hitherto unheard-of levels of performance, sustainability, and efficiency by utilizing AI algorithms and computer power. Our AI-driven methodology improves battery management systems and expedites the materials design process, resulting in more intelligent and dependable energy storage solutions. Our goals are to improve energy density, lessen environmental effect, and greatly increase battery lifespan through data-driven optimization and predictive modelling. This study highlights the revolutionary potential of AI in determining the future of batteries and transforming the way we store and use energy. It also discusses important ethical considerations and lays out a roadmap for future developments. This study investigates the revolutionary possibilities of incorporating artificial intelligence (AI) into battery technology, offering improvements in performance, sustainability, and efficiency via AI-driven materials discovery and intelligent management systems. The novel combination of artificial intelligence and batteries has the potential to transform energy storage and utilization by increasing longevity, improving energy density, and reducing environmental impact.

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Publication Details

Published
2024-10-25
DOI
https://doi.org/10.1109/icisaa62385.2024.10828796
Primary Topic
Advanced Battery Technologies Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Combining Artificial Intelligence with Nanoscale Energy Systems to Achieve Highly Efficient Energy Harvesting and Utilization

Rahul Singh, Nikhil Singh, Pallab Banerjee, Abhay Gyan P. Kujur et al.
Advanced Battery Technologies Research
article

Combining Artificial Intelligence with Nanoscale Energy Systems to Achieve Highly Efficient Energy Harvesting and Utilization

Rahul Singh, Nikhil Singh, Pallab Banerjee, Abhay Gyan P. Kujur, Biresh Kumar, Sanyam Anand
article en

Abstract

This study offers a novel method for utilizing artificial intelligence (AI) to advance battery technology in a way that will change people’s lives. We suggest a ground-breaking technique for quickening the identification of innovative battery materials with hitherto unheard-of levels of performance, sustainability, and efficiency by utilizing AI algorithms and computer power. Our AI-driven methodology improves battery management systems and expedites the materials design process, resulting in more intelligent and dependable energy storage solutions. Our goals are to improve energy density, lessen environmental effect, and greatly increase battery lifespan through data-driven optimization and predictive modelling. This study highlights the revolutionary potential of AI in determining the future of batteries and transforming the way we store and use energy. It also discusses important ethical considerations and lays out a roadmap for future developments. This study investigates the revolutionary possibilities of incorporating artificial intelligence (AI) into battery technology, offering improvements in performance, sustainability, and efficiency via AI-driven materials discovery and intelligent management systems. The novel combination of artificial intelligence and batteries has the potential to transform energy storage and utilization by increasing longevity, improving energy density, and reducing environmental impact.

Jharkhand Rai University (IN)
Affordable and clean energy
Openalex Percentile: Top 72%
Advanced Battery Technologies Research
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