Mechanism of Action

A World’s First Multi-Layered Mechanism of Action

Recce’s anti-infectives are wholly synthetic and based on a patented polymeric structure and have been designed to overcome resistance. Traditional antibiotics inhibit a single target such as bacterial gyrase enzymes, cell wall biosynthetic enzymes, or enzymes required for DNA replication during bacterial cell division. They operate on a ‘lock and key’ mechanism and therefore only bind to a few active sites on the bacterial target. However, if a mutation is introduced into the target site, then the antibiotic will cease to be effective.

The Science

Behind R327

STAGE 1

R327 targets and irreversibly bind to essential bacterial proteins

STAGE 2

R327 interferes with bacterial cellular metabolism and energy production at or near the cell surface, depleting ATP

STAGE 3

R327 kills bacteria rapidly without inducing cell lysis

STAGE 4

R327 is rapidly and irreversibly bactericidal

A Multi-Layered Mechanism of Action

R327 activity against Escherichia coli

R327 activity against Staphylococcus aureus

Without R327

R327 (3,000 ppm)

Without R327

R327 (2,300 ppm)

R327 works to kill bacteria ‘unlike any antibiotic ever seen’ with multiple mechanisms of action. R327 is rapidly and irreversibly bactericidal against Gram-negative E. coli bacteria in both active and stationary phase cell with the potential to outperform the best in class commercial antibiotics.

A Multi-Layered Mechanism of Action

R327 activity against Escherichia coli

Without R327

R327 (3,000 ppm)

R327 activity against Staphylococcus aureus

Without R327

R327 (2,300 ppm)

R327 works to kill bacteria ‘unlike any antibiotic ever seen’ with multiple mechanisms of action. R327 is rapidly and irreversibly bactericidal against Gram-negative E.coli bacteria in both active and stationary phase cell with the potential to outperform the best in class commerical antibiotics.