HBOTLAB

  Radiation therapy saves lives. It also destroys the tissue in its path — permanently damaging blood vessels, creating lifelong hypoxia, and leaving survivors with complications that standard medicine has no mechanism to address. HBOT has that mechanism. hyperbaric oxygen therapy and cancer — radiation injury survivors HBOT tissue repair angiogenesis Hyperbaric oxygen therapy and cancer survivor care occupy the same clinical space for one reason: radiation permanently destroys the blood supply of the tissue it treats. Cancer cells die. The treatment works. But the radiation that kills tumour cells does not spare the healthy tissue in the radiation field. Blood vessels thicken and narrow. Capillaries are obliterated. The tissue that remains — the tissue the patient will live in for decades after remission — becomes chronically hypoxic, poorly healed, and incapable of responding to further treatment or surgical intervention. This is late radiation injury. It is not a complication of...

  Gas gangrene creates three simultaneous biological crises. Bacteria spread. Toxins destroy. Immune function fails. Surgery addresses one. HBOT treatment addresses all three — in the same session.   hbot treatment gas gangrene — three mechanisms survival clostridial myonecrosis hyperbaric oxygen HBOT treatment for gas gangrene does something that surgery and antibiotics cannot do alone. Gas gangrene — clostridial myonecrosis — is one of the fastest-moving tissue infections in medicine. The bacteria spread at several centimetres per hour. The toxins they produce destroy muscle independently of bacterial count. And the environment they create — profoundly anaerobic, hypoxic tissue — actively supports their growth and impairs every immune defence the body has. Surgery removes infected tissue. Antibiotics reduce bacterial load. Both are essential and non-negotiable. But neither restores oxygen to the tissue that allows Clostridia to thrive and toxins to go unsuppressed. HBOT trea...