Efficient and accurate molecular simulations remain a key challenge in computational structural biology. Recently, we introduced multi-eGO, a hybrid structure-based approach that addresses this need by integrating information from classical molecular dynamics (MD) simulations into a simplified potential via a Bayesian approach. This combination results in a versatile framework that maintains atomic resolution while reducing computational cost. In this seminar, I will present the broad potential of multi- eGO for modeling diverse biomolecular processes. Using examples ranging from ligand binding and protein folding to self-assembly, I will illustrate how our framework achieves an effective balance between speed and accuracy. I will also discuss ongoing refinements that extend its applicability to a wide range of systems, including well-structured proteins and intrinsically disordered peptides, opening up avenues previously inaccessible to conventional MD methods. In doing so, multi-eGO advances the use of structure-based frameworks and brings us closer to a realistic computational microscope.
Multi-ego: A Structure-based Framework for Molecular Simulations / R. Capelli, B. Stegani, F. Bacic Toplek, E. Scalone, C. Camilloni. - In: EUROPEAN BIOPHYSICS JOURNAL. - ISSN 0175-7571. - 54:suppl. 1(2025), pp. P-3.10.S216-P-3.10.S216. ( 15. EBSA Roma 2025).
Multi-ego: A Structure-based Framework for Molecular Simulations
R. CapelliCo-primo
;B. SteganiCo-primo
;F. Bacic ToplekCo-primo
;E. ScaloneCo-primo
;C. Camilloni
Ultimo
2025
Abstract
Efficient and accurate molecular simulations remain a key challenge in computational structural biology. Recently, we introduced multi-eGO, a hybrid structure-based approach that addresses this need by integrating information from classical molecular dynamics (MD) simulations into a simplified potential via a Bayesian approach. This combination results in a versatile framework that maintains atomic resolution while reducing computational cost. In this seminar, I will present the broad potential of multi- eGO for modeling diverse biomolecular processes. Using examples ranging from ligand binding and protein folding to self-assembly, I will illustrate how our framework achieves an effective balance between speed and accuracy. I will also discuss ongoing refinements that extend its applicability to a wide range of systems, including well-structured proteins and intrinsically disordered peptides, opening up avenues previously inaccessible to conventional MD methods. In doing so, multi-eGO advances the use of structure-based frameworks and brings us closer to a realistic computational microscope.| File | Dimensione | Formato | |
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