2026· International Journal of Technological Advancements and Industrial Applications· 0 citations
Abstract
The impact of artificial intelligence (AI) on modern chemical research is also being studied through secondary data from literature. Research studies have shown that the primary applications of AI in chemistry include molecular property prediction, retrosynthetic planning, reaction optimization, de novo molecular design, catalyst discovery, materials research, and the automation of experimentation. Molecular property prediction and retrosynthesis represent two of the most highly utilized applications of AI in the field of organic synthesis. A key advantage of these methods includes their ability to rapidly screen multiple candidate compounds and predict the properties and potential yields of target products. De novo molecular design is another area where AI is playing a leading role. De novo molecular design involves generating new compound designs based upon desired chemical or physical characteristics. Historically this process was carried out primarily through manual iteration; however, AI has now been applied to perform many of the tasks involved in de novo molecular design. Catalyst discovery represents yet another application of AI in modern organic synthesis. Catalysts are used extensively throughout the chemical industry as they increase efficiency and yield when compared to traditional thermal reactions. Materials research has traditionally represented one of the largest industrial markets for chemicals. New materials often require novel combinations of different chemical functions. Traditional development of such materials requires extensive iterative screening. AI offers a method to efficiently search through vast numbers of possible material configurations. Automated experimentation represents perhaps the greatest potential for innovation offered by AI in modern chemistry. With automated experimentation, researchers can test hundreds if not thousands of different chemical configurations per day.
The tremendous development in the field of artificial intelligence (AI) is impacting all areas of scientific research, especially applied sciences. It has connected disciplines, leaving no field of science untouched in one way or another. Chemistry has been particularly affected, with AI permeating all areas of chemist...
This study examines the evolution of computer-aided synthesis, describing its development from rule-based approaches to advanced deep learning and hybrid systems that leverage large datasets, and focuses on AI platforms that integrate predictive algorithms with rapidly evolving robotic systems.
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It can be concluded that AI-based models have the potential to analyze big operational data and help in achieving optimal operating conditions while also enhancing process stability and reducing energy consumption.
A. Kurhade, N. A. Balaji, P. Ramani et al.· ITEGAM- Journal of Engineeri...· 0 citations
Comprehensive bibliometric analyses reveal that a robust connection between diverse catalytic fields and emerging AI tools remains unestablished, creating a substantial disparity in advancement rates compared to other scientific domains.
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This review is a full survey of merging of mathematical models, AI algorithms and the chemistry and all combine to facilitate the discovery of materials on digital platforms, aimed at crossing the disciplinary boundaries and providing a coherent roadmap to the next-generation intelligent materials discovery.
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