Henry's Law: More Pressure = More Dissolved Oxygen
Henry's Law states that the amount of gas dissolved in a liquid is proportional to the pressure of that gas above the liquid. In simple terms: when you increase the air pressure around your body, more oxygen dissolves directly into your blood plasma — not just attached to hemoglobin, but free-floating in the liquid portion of your blood.
Under normal conditions, nearly all your oxygen is carried by hemoglobin. But under mild hyperbaric pressure, the plasma itself becomes a significant oxygen carrier. This means oxygen can reach tissues that are oxygen-starved due to poor circulation, inflammation, or injury — areas that red blood cells alone can't effectively reach.
Oxygen Diffusion: Reaching Deeper Tissues
Normally, oxygen diffuses about 60–70 micrometers from your capillaries into surrounding tissue. Under increased pressure, that diffusion distance can extend significantly, allowing oxygen to penetrate deeper into damaged or inflamed areas — including the brain, joints, and muscles.
The Cellular Cascade: What Happens Next
Once extra oxygen reaches your cells, several things happen:
- Enhanced ATP production: Your mitochondria use the additional oxygen to produce more ATP (cellular energy), accelerating repair processes.
- Reduced inflammation: Oxygen helps regulate inflammatory signaling pathways, reducing swelling and tissue damage.
- Stem cell mobilization: Research suggests that hyperbaric oxygen can stimulate the release of stem cells from bone marrow, aiding tissue regeneration.
- Angiogenesis: Sustained oxygen enrichment promotes the growth of new blood vessels in oxygen-deprived tissues.
- Antibacterial effects: Many bacteria are anaerobic (oxygen-sensitive). Higher tissue oxygen levels can naturally inhibit certain bacterial growth.
The Bottom Line
mHBOT doesn't "cure" anything by itself. Instead, it creates an oxygen-rich environment that helps your body do what it's already designed to do — heal, repair, and regenerate — but faster and more efficiently.