Molecular dynamics simulations revealed bovine lactoferricin undergoes a helix-to-sheet conformational transition at bacterial membrane surfaces, explaining how it adopts the membrane-disrupting structure needed for antimicrobial activity.
Key findingMD simulations showed bovine lactoferricin transforms from alpha-helix to beta-sheet at membrane surfaces, with the sheet conformation enabling deep m
What the researchers found
MD simulations showed bovine lactoferricin transforms from alpha-helix to beta-sheet at membrane surfaces, with the sheet conformation enabling deep membrane penetration — revealing the dynamic structural basis for its antimicrobial membrane disruption.
Why it matters
Relevant for antimicrobial-peptides, peptide-design, receptor-signaling.
How the study worked
in-vitro study on antimicrobial-peptides, peptide-design.
What this study cannot tell us
See abstract.
How to read the evidence
preliminary evidence.
When this study was published
Published in 2004.
The bigger picture
Advances peptide/biomarker research with clinical implications.
Questions still open
- Further research needed.
- Clinical translation to evaluate.
Common questions
What was studied?
What was found?
Read the original research
Molecular dynamics simulations of bovine lactoferricin: turning a helix into a sheet.
Biometals : an international journal on the role of metal ions in biology, biochemistry, and medicine, 17(3), 217-23
Citation
Zhou, Ning; Tieleman, D Peter; Vogel, Hans J. (2004). Molecular dynamics simulations of bovine lactoferricin: turning a helix into a sheet.. Biometals : an international journal on the role of metal ions in biology, biochemistry, and medicine, 17(3), 217-23.