Integrating nanotechnology with deep learning for engineering, healthcare, and environmental solutions: A review

Combining nanotechnology and deep learning methods is a leading-edge frontier in engineering solutions, with unparalleled prospects for innovation and growth. The synergistic combination blends the scale and precision of nano-materials with the predictive capability and resilience of artificial intelligence. Deep learning methods can process enormous amounts of data collected by nano-scale sensors, designing and optimizing materials at the atomic level. This integration makes possible the creation of self-healing smart nano-materials, highly efficient energy storage devices, and ultra-sensitive healthcare diagnostic tools. Additionally, deep learning methods can expedite the discovery of new nanostructures and their uses with much less time and expense compared to conventional experimental approaches. As this multidisciplinary area continues to grow, it holds the potential to transform numerous industries, such as electronics, healthcare, environmental science, and energy technology, towards more efficient, sustainable, and smart engineering solutions.

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Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2026-01-21
DOI
https://doi.org/10.1051/epjconf/202634801023/pdf
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
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article

Integrating nanotechnology with deep learning for engineering, healthcare, and environmental solutions: A review

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Springer Link (Chiba Institute of Technology)
Machine Learning in Materials Science
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Integrating nanotechnology with deep learning for engineering, healthcare, and environmental solutions: A review

Jaydeep Singh Parmar, Riaz K. Israni, Jignesh H. Kamdar, Hina Maniya, Harsh Purohit, Brij Pal Singh, Mehul Chauhan
article en

Abstract

Combining nanotechnology and deep learning methods is a leading-edge frontier in engineering solutions, with unparalleled prospects for innovation and growth. The synergistic combination blends the scale and precision of nano-materials with the predictive capability and resilience of artificial intelligence. Deep learning methods can process enormous amounts of data collected by nano-scale sensors, designing and optimizing materials at the atomic level. This integration makes possible the creation of self-healing smart nano-materials, highly efficient energy storage devices, and ultra-sensitive healthcare diagnostic tools. Additionally, deep learning methods can expedite the discovery of new nanostructures and their uses with much less time and expense compared to conventional experimental approaches. As this multidisciplinary area continues to grow, it holds the potential to transform numerous industries, such as electronics, healthcare, environmental science, and energy technology, towards more efficient, sustainable, and smart engineering solutions.

Springer Link (Chiba Institute of Technology)
Industry, innovation and infrastructure
Openalex Percentile: Top 81%
Machine Learning in Materials Science
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