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Welcome to the Ab Initio Simulations Laboratory

led by Prof. Amartya Banerjee at UCLA

Our group is broadly interested in developing new kinds of mathematical, computational and data science techniques for the study of material behavior. We are particularly interested in first principles (i.e., quantum mechanical) methods, and have been working to extend the scope and capabilities of such methods, so as to enable the characterization and informed discovery of novel materials and structures. Our work makes use of a broad spectrum of ideas drawn from various areas of applied mathematics, the mechanics of materials and structures, condensed matter physics, quantum chemistry, materials science and scientific computing. ​

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RESEARCH

Research Projects

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Mechanical, electronic, optical, magnetic and transport properties of twisted/chiral nanomaterials

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Machine Learning based Electronic Structure Prediction: From Nanomaterials to Bulk Solids

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Interplay of mechanics and quantum physics effects in materials with dispersionless electronic states

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Understanding the Quantum Properties of Biomolecules

ABOUT THE LAB

Read more about our research activities here. To learn more about our outreach activities, click here. Information on courses offered by Prof. Banerjee can be found here. 

JOIN THE LAB

If you are interested in working with us, send an email to Prof. Banerjee (asbanerjee@ucla.edu) with a CV and a brief description of your background and interests.​​

NEWS

Lab News

Oct
2026
Publication

Paper accepted in npj Computational Materials

“Surprisingly High Redundancy in Electronic Structure Data Across Materials Explained by Low Intrinsic Dimensionality” has been accepted for publication. Read the preprint on arXiv.

Jul
2026
Preprint

New preprint on buckled silicon kagome

C. Wang and A.S. Banerjee report a strain-controlled crystalline–amorphous transition and flat-band tuning in a buckled silicon kagome lattice. Read it on arXiv.

Jun
2026
Conference

Lab members present at USNC/TAM 2026

Students from the lab presented their work at the U.S. National Congress on Theoretical and Applied Mechanics.

PUBLICATIONS

Recent Publications / Preprints

2026

Surprisingly High Redundancy in Electronic Structure Data Across Materials Explained by Low Intrinsic Dimensionality

S. Hossain, P. Thiagarajan, S. Pathrudkar, S. Taylor, A. Gangan, A. S. Banerjee*, and S. Ghosh

Accepted manuscript, npj Computational Materials

2026

Strain-controlled crystalline–amorphous transition and flat-band tuning in buckled silicon kagome

C. Wang and A.S. Banerjee*

Submitted; arXiv:2607.11790

2026

Multiscale analysis of large twist ferroelectricity and swirling dislocations in bilayer hexagonal boron nitride

Md. T. Ahmed, C. Wang, A.S. Banerjee and N. Admal

Nanoscale, 18 (18): 9787-9800

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