Research Interest

Machine learning aided structural design, material modeling, physics-informed machine learning, graph neural networks, dynamic fracture and crack propagation on ballistic impact, molecular dynamics, and peridynamics

Research/Experience

Education

Ph.D. Thesis

Title: Data-driven Modeling and Physics-informed Machine Learning for Glass Discovery

The research work explores the use of machine learning methods in modeling inorganic glass properties, revealing composition–property relationships through explainable ML, understanding mechanisms at atomic scale and up-scaling of material properties using MD and DFT simulation trajectory. The research work uses the graph neural network based interatomic potential for reproducing features at atomic scale for complex systems and use ML material models (peridynamics nonlocal operators) for reproducing material behavior at meso-scale with MD and DFT simulation trajectories

Research Achievements and Awards

PyGGi (Python for Glass Genomics) It is an indigenous industry-relevant software package that uses trained Machine Learning algorithms to predict/optimize composition-property relationships in inorganic glasses. It will make the tedious process of designing tailored glasses economical in terms of time, effort, and money. The software package is launched through FITT IITD and is available at www.pyggi.iitd.ac.in

Book(s) and Contributed Chapters

Software and Programming Languages


Publications

Journal Articles

Preprints

Conference Papers


Conference Talks, Workshops and Posters

Talks

Workshops

1. Introduction to Machine Learning Tools

Artificial Intelligence Concepts and Multidisciplinary Applications in Modern Biology, September, 2019
International Center for Genetic Engineering and Biotechnology, New Delhi, India

Posters