Computational microbiology: Where is artificial intelligence addressing the barriers to large-scale simulations of bacterial cell envelopes?

Molecular dynamics simulations allow the investigation of the time-resolved mechanics of large, complex biological systems such as the Gram-negative bacterial cell envelope. Such simulations pose challenges due to their chemical diversity and crowded environments. We review artificial intelligence-based approaches that can support simulations of large biological systems, focussing on trajectory analysis and propagation whilst highlighting the difficulties of feature representation. Integrating trajectory analysis and propagation is powerful, but we also consider the serious data and resource requirements involved. In this context, we summarise the current state of cell envelope simulations and then ask a practical question: where can such approaches be applied to understand these crowded, chemically diverse environments?

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Publication Details

Journal
Current Opinion in Structural Biology
Published
2026-03-31
DOI
https://doi.org/10.1016/j.sbi.2026.103267
Primary Topic
Bacterial Genetics and Biotechnology
Type
article
Field-Weighted Citation Impact
0.00

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article

Computational microbiology: Where is artificial intelligence addressing the barriers to large-scale simulations of bacterial cell envelopes?

Syma Khalid, Iain P. S. Smith, Arvind Ramanathan, James Gebbie-Rayet et al.
Current Opinion in Structural Biology
Bacterial Genetics and Biotechnology
article

Computational microbiology: Where is artificial intelligence addressing the barriers to large-scale simulations of bacterial cell envelopes?

Syma Khalid, Iain P. S. Smith, Arvind Ramanathan, James Gebbie-Rayet, Robert Clark
article en

Abstract

Molecular dynamics simulations allow the investigation of the time-resolved mechanics of large, complex biological systems such as the Gram-negative bacterial cell envelope. Such simulations pose challenges due to their chemical diversity and crowded environments. We review artificial intelligence-based approaches that can support simulations of large biological systems, focussing on trajectory analysis and propagation whilst highlighting the difficulties of feature representation. Integrating trajectory analysis and propagation is powerful, but we also consider the serious data and resource requirements involved. In this context, we summarise the current state of cell envelope simulations and then ask a practical question: where can such approaches be applied to understand these crowded, chemically diverse environments?

Current Opinion in Structural BiologyVol. 98
Argonne National Laboratory (US), Science and Technology Facilities Council (GB), Daresbury Laboratory (GB), University of Oxford (GB)
U.S. Department of Energy, Medical Research Charities Group, UK Research and Innovation, Engineering and Physical Sciences Research Council
Openalex Percentile: Top 30%
Bacterial Genetics and Biotechnology
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