Study of cathelicidin PMAP-36 and BMAP-27 fragments plus D-enantiomers reveals design strategies for more stable, potent antimicrobial peptides.
Key findingStudy of cathelicidin PMAP-36 and BMAP-27 fragments plus D-enantiomers reveals design strategies for
What the researchers found
Study of cathelicidin PMAP-36 and BMAP-27 fragments plus D-enantiomers reveals design strategies for more stable, potent antimicrobial peptides.
Why it matters
These findings have significant implications for peptide-based therapeutic development and clinical practice.
The numbers in context
Two peptide fragments tested: PMAP(12-24) and BMAP(1-18), plus their all-D-amino acid enantiomers. Tested for antimicrobial activity and protease resistance.
How the study worked
Study design and methodology detailed in the full publication.
Who was studied
In vitro testing against bacterial panels
What this study cannot tell us
Study-specific limitations discussed in the full publication. Results should be interpreted within the context of study design.
How to read the evidence
Evidence assessment based on study design detailed in publication.
When this study was published
Published in 2025. Current peptide therapeutic research.
The bigger picture
This study contributes to the expanding understanding of how peptide-based therapeutics can be applied across medical specialties.
Questions still open
- What are the long-term implications?
- How do these results compare to existing evidence?
- What further research is needed?
Common questions
What does this study mean for patients?
How reliable are these findings?
Read the original research
Fragments of cathelicidins PMAP-36 and BMAP-27 and their D-enantiomers: Effects of all D substitutions on structure, protease resistance and antimicrobial properties.
Bioorganic chemistry, 163, 108715
Citation
Albini, Francesca; Biondi, Barbara; Di Stasi, Adriana; Schivo, Andrea; Mardirossian, Mario; Scocchi, Marco; Peggion, Cristina. (2025). Fragments of cathelicidins PMAP-36 and BMAP-27 and their D-enantiomers: Effects of all D substitutions on structure, protease resistance and antimicrobial properties.. Bioorganic chemistry, 163, 108715. https://doi.org/10.1016/j.bioorg.2025.108715