The Future of Scientific Modelling: Combining Physics with Artificial Intelligence: A Review
DOI:
https://doi.org/10.31033/IJEMR/16.3.2026.1922Keywords:
Artificial Intelligence, Scientific Modelling, Physics-Informed AI, Physics-Informed Neural Networks, Scientific Machine Learning, Computational Physics, Digital Twin, Hybrid IntelligenceAbstract
Science Modelling is a traditional approach to analysing the complicated nature of physical events using mathematical equations, numerical methods, and empirical data. Despite the successful performance of the existing computational algorithms, there remain some problems related to the complexity of systems and data produced by modern scientific experiments, which cannot be solved easily using these methods. The recent development of AI technologies has made it possible to build sophisticated prediction algorithms based on data analysis, but these algorithms often yield results that contradict physical laws. The incorporation of physics in artificial intelligence has proven to be an innovative approach which blends the interpretability of physical theories with the flexibility of machine learning techniques. However, there are some drawbacks associated with such a technique including the high computational cost, optimization problems, non-interpretable nature of predictions, the need for uncertainty quantification, and scaling issues with real-world systems. This paper aims at reviewing the history of scientific modelling, exploring the concepts related to physics-integrated artificial intelligence, identifying the benefits and drawbacks associated with such a technique, and discussing the future research directions.
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Copyright (c) 2026 Dr. Jyoti Chaudhary

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