Hyperbaric oxygen therapy has assumed an ever-expanding role in modern medical practices – for both human and animal patients. In veterinary medicine hyperbaric oxygen therapy offers numerous advantages to veterinarians and patients. Its clinical use in a growing number of indications demonstrates its effectiveness in primary and adjunctive care. Combined with a team approach that involves hyperbaric specialists and the referring veterinarians, hyperbaric oxygen therapy is very effective medicine.
DEFINITION OF THERAPY
https://www.cedarforestloghomes.com/enupikos/1860 Hyperbaric oxygen therapy involves the systemic delivery of oxygen at values 1.5 to 3 times greater than atmospheric pressure. Patients are placed in a treatment chamber and breathe near 100 percent oxygen while exposed to elevated ambient pressures. As an application of an established technology, hyperbaric oxygen therapy is helping to resolve a growing number of difficult, expensive or otherwise hopeless medical problems.
PHYSIOLOGICAL BASIS OF THERAPY AND MECHANISMS OF ACTION
opcje binarne metoda tunelu Hyperbaric oxygen therapy employs a variety of action mechanisms. Some are related directly to elevated pressures; others are related to increased oxygen effects in the blood stream, tissues and cells.
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Treatment facility pressure greater than sea level results in increased partial pressure of oxygen (tension) which increases the amount of oxygen dissolved in plasma. This can increase oxygen levels to approximately 450 mmHg at the tissue level. The effects of increased oxygen tensions are seen in a variety of different situations:
- Up regulation of anti-inflammatory gene expression and the down regulation of proinflammatory genetic expression, resulting in an important synergistic therapeutic method for reduction of inflammation in pathologic disease mechanisms occurring throughout the body.
- Vasoconstriction and for the reduction of edema in the area of trauma for crush injuries. Oxygen tension levels may be 10 to 20 times that achieved by normobaric oxygen breathing.
- Rapid dissociation of carbon monoxide molecules from hemoglobin and cytochrome A3 oxidase and delivery of physically dissolved oxygen via the plasma.
- Increase in oxygen diffusion distance from functioning capillaries in the hypoperfused wound. Stimulation of growth and occurrence of fibroblasts, osteoclasts and granulocytes, resulting in wound healing. The resulting angiogenesis enhances healing skin grafts, select problem wounds and compromised flaps.
- Cessation of alpha toxin production by the clostridial organisms in gas gangrene.
- Fungal disease (Fungal Pneumonia)
- Thermal burns, carbon monoxide, smoke inhalation
- Closed head injuries
- CNS edema / Increased intracranial pressure
- Peripheral neuropathies
- Sports injuries (Exertional rhabdomyolysis)
- Cellulitis, compartment syndrome
- Ischemic injuries
- Serious and chronic infections
- Wounds and blood-deprived tissue
- Compromised skin grafts
- Air and gas embolisms (“bubbles”)
- Clostridial myositis
- Accelerate collagen deposition
- Treatment of bone infection, gas gangrene
- Post-operative colon torsions
- Gastric ulcers, colitis and intestinal diseases
- Lung and abdominal abscesses
- Perinatal asphyxia (‘dummy foal’ syndrome)
- Skin, muscle, tendinous and ligamentous injuries
- Inflammatory diseases
- Rattlesnake envenomation
- Spider bite
- Post cardiopulmonary arrest management
- Near drowning, near hanging, electrocution