🍯 Honey in Skincare

About this simulation

This model shows a cross-section of skin — dermis, epidermis and the outer stratum corneum — with a simulated layer of honey applied as a face mask. Honey is a strong humectant: its sugars pull and hold water at the skin surface, while its low pH, hydrogen-peroxide production and trace compounds like methylglyoxal (concentrated in Manuka honey) give it mild antimicrobial activity against surface bacteria.

How it works

• Moisture retention rises as exposure time increases, following a saturating curve — thicker layers hold more water against the surface for longer (an occlusive effect).
• Microbial reduction depends on honey type: Manuka honey's methylglyoxal content gives it the strongest antimicrobial effect, raw wildflower honey is moderate, and heavily processed honey has largely lost its enzymatic activity.
• Surface pH drops toward honey's naturally acidic pH (~3.9) the longer the mask stays on, which itself discourages bacterial growth.
• Blue droplets show ambient moisture being drawn in and locked at the surface; small dots on the skin represent surface microbes shrinking as the antimicrobial effect builds.

Controls

• Honey type — switch between Manuka, raw wildflower and processed honey to compare antimicrobial potency.
• Exposure time — how long the mask has been left on the skin (0–60 minutes).
• Mask thickness — the depth of the honey layer applied (1–8 mm).
• Show surface microbes — toggle the visibility of the bacteria layer.
• ↺ Remove mask — resets exposure and thickness. Drag to rotate, scroll to zoom.

Did you know?

Medical-grade Manuka honey is used in licensed wound dressings — its combination of high sugar osmolarity, acidity and hydrogen-peroxide production creates an environment that is inhospitable to many common bacteria, which is part of why honey has been used topically for thousands of years.