Researchers Identify Ideal Target for Development of Novel Antimicrobials

Article

Researchers from Ludwig-Maximilians-Universität (LMU) in Munich have identified an enzyme that is involved in a modification pathway that is essential for bacterial pathogenicity. Because it shows no similarity to other known proteins, it may be an ideal target for development of novel antimicrobial drugs.

Studies on a number of pathogenic bacteria have shown that these strains become pathogenic only when an enzyme called elongation factor P (EF-P) is chemically modified on a conserved lysine residue. EF-P is a universally conserved translation factor, which is involved in protein synthesis. Two enzymes are known to be involved in modifying the conserved lysine of EF-P, however these enzymes cannot fully account for the pattern of modification seen on EF-P in living cells.

Thus, at least one other protein must be involved in the modification process however to date it has proved to be particularly elusive. Now a research team led by LMU biochemist Daniel Wilson, who is also affiliated with the Center for Integrated Protein Science Munich (CIPSM), a Cluster of Excellence at LMU, has succeeded in identifying the mystery protein as the enzyme YfcM and showing that it displays hydroxylase activity. Strikingly, YfcM shows no sequence similarity to any other known protein and therefore may have a unique structure.

This is not the only reason why discovery of YfcM will arouse great interest. "YfcM may turn out to be an ideal target for the development of new - and urgently needed antibiotics, however more insight will be needed to ascertain the role of the YfcM mediated hydroxylation of EF-P," says Wilson.
 
 

Newsletter

Stay prepared and protected with Infection Control Today's newsletter, delivering essential updates, best practices, and expert insights for infection preventionists.

Recent Videos
In a recent discussion with Infection Control Today® (ICT®), study authors Brenna Doran PhD, MA, hospital epidemiology and infection prevention for the University of California, San Francisco, and a coach and consultant of infection prevention; Jessica Swain, MBA, MLT, director of infection prevention and control for Dartmouth Health in Lebanon, New Hampshire; and Shanina Knighton, associate professor at Case Western Reserve University School of Nursing and senior nurse scientist at MetroHealth System in Cleveland, Ohio, shared their insights on how the project evolved and what the findings mean for the future.
 Futuristic UV Sanitizer with Sleek Design on a white background.  (Adobe Stock 1375983522 by Napa)
Dirty white towels on the floor used to clean up orange or red liquid. (Image credit AI by Adobe Stock)