Antimicrobial

Multiple Mechanisms

What makes honey and propolis exceptional antimicrobials is that they attack pathogens through multiple simultaneous mechanisms. A bacterium can evolve resistance to a single antibiotic compound relatively quickly, but overcoming multiple different antimicrobial mechanisms simultaneously is exponentially more difficult. This is why honey has remained effective as a wound treatment for thousands of years while synthetic antibiotics face growing resistance challenges.

Honey's Arsenal

Osmolality: Honey's extremely high sugar concentration (approximately 80%) creates an osmotic environment that draws water out of bacterial cells, dehydrating and killing them. Acidity: Honey's pH of 3.2 to 4.5 is below the optimum growth range for most pathogenic bacteria. Hydrogen peroxide: The enzyme glucose oxidase (added by bees during processing) produces hydrogen peroxide when honey is diluted with wound fluid or water, creating a sustained, low-level antiseptic effect. Bee defensin-1: A peptide produced by bees' immune systems and found in honey, active against gram-positive bacteria including MRSA. Methylglyoxal: Specific to Manuka honey, providing non-peroxide antibacterial activity.

Propolis

Propolis derives its antimicrobial power from a different set of compounds. Flavonoids (pinocembrin, galangin, chrysin) and phenolic acids (caffeic acid, ferulic acid) disrupt bacterial cell membranes, inhibit protein synthesis, and interfere with bacterial enzymes. Like honey, propolis works through multiple mechanisms simultaneously, making it effective against resistant organisms.