bioRxivBiophysics
Repertoire of morphable proteins in an organism
Abstract
All living organisms have evolved to contain a set of proteins with variable physical and chemical properties. Efforts in the field of structural biology have contributed to uncovering the shape and the variability of each component. A set of experimental coordinates for a given protein can be used to define the \"morphness/unmorphness\". Here we show the results of global analysis of more than a thousand E. coli proteins, demonstrating that it would be a comprehensive method of understanding the evolved repertoire in an organism. By collecting \"UnMorphness Factor\" (UMF) determined for each of the proteins, the lowest and the highest boundaries of the experimentally observable structural variation are understood. The distribution of UMFs obtained for an organism is expected to represent how rigid and flexible components are balanced. The present analysis extends to evaluate the growing data from single particle cryo-electron microscopy, providing valuable information on effective interpretation to structural changes of proteins and the supramolecular complexes. The data and the method presented here also conform to FAIR data principles, having potential significance to advance the field of structural and molecular cell biology.
- organism: E. coli
- assay: cryo-EM
- research focus: protein folding & dynamics
- approach: experimental assay
- approach: statistical model
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Global Identification of Highly Expandable and Shrinkable Proteins via Intramolecular Distance Scoring Analysis
Tetsuji Okada, Fumiaki Tomoike, … Akira Nakamura·HeliyonPeer-reviewed·Aug 1, 2026
- Protein structures as shapes: Analysing protein structure variation using geometric morphometrics
José Sergio Hleap, Christian Blouin·bioRxiv·Nov 13, 2017
- Universal nature of collapsibility in the context of protein folding and evolution
D. Thirumalai, H. Samanta, … G. Reddy·bioRxiv·Nov 2, 2018
- Explaining Conformational Diversity in Protein Families through Molecular Motions
Valentin Lombard, Sergei Grudinin, Élodie Laine·Scientific DataPeer-reviewed·Jul 10, 2024
- 3D Variability Analysis: Resolving continuous flexibility and discrete heterogeneity from single particle cryo-EM
A. Punjani, D. J. Fleet·bioRxiv·Apr 8, 2020
- Molecular fluctuations as a ruler of force-induced protein conformations
A. Stannard, M. Mora, … S. Garcia-Manyes·bioRxiv·Dec 18, 2020