Operating mode of the high-altitude balance chamber

The high-altitude balance chamber uses atmospheric pressure to address the issue of hypoxia, making it suitable for preventing and protecting against illnesses that arise after the body has adapted to high-altitude conditions. Regular sessions in the high-altitude balance chamber can effectively inhibit the onset of altitude sickness and provide better protection in oxygen-deficient environments. People of health.

Some plateau regions The air pressure is lower than in the plains. 30%, and in some areas, it accounts for only 60% of the plain altitude, where the boiling point of water is as low as 70–80°C. Working and living year-round in a low-pressure environment can lead to decreased lung pressure and reduced blood oxygen saturation, resulting in severe cerebral hypoxia accompanied by various high-altitude illnesses, such as hyperlipidemia, impaired cardiac pumping function, arrhythmia, heart failure, increased hemoglobin levels, and increased blood viscosity. Under such circumstances The high-altitude balancing chamber uses atmospheric pressure to address the issue of hypoxia, making it suitable for preventing and protecting against diseases that occur after the body has adapted to high-altitude conditions.

People living in low-altitude areas often become subject to high-altitude sickness due to inadequate acclimatization. Altitude sickness primarily affects the brain, lungs, cardiovascular system, hematopoietic system, and digestive system; the kidneys may also be involved, though usually not severely, and are typically accompanied by symptoms affecting other organs. , the human body cannot perform Self-repair. Therefore, a high-altitude balancing chamber is required. The following describes how to operate the high-altitude balancing chamber.

1. Quickly correct hypoxia.

2. Reduce cardiac workload and improve cardiac function. Stimulate the vagus nerve to slow down the heart rate and decrease cardiac output; correct the small pulmonary vascular constriction caused by hypoxia, reduce blood viscosity, improve pulmonary microcirculation, and lower pulmonary circulation resistance, thereby lowering pulmonary arterial pressure.

3. It alleviates bronchospasm induced by hypoxia while gradually increasing airway resistance. The former helps improve ventilatory function, whereas the latter helps prevent the development of pulmonary edema. High-altitude balance chamber Generated Hyperbaric oxygen can break the vicious cycle of hypoxic red blood cell proliferation, reducing both the number of red blood cells and hemoglobin levels. Hyperbaric oxygen can also decrease respiratory rate and help stabilize alveoli. - Arterial oxygen gradient and improved pulmonary function.

4. Eliminating edema: It constricts blood vessels, reduces cerebral blood flow, alleviates cerebral edema, and lowers intracranial pressure. The powerful penetrating power of hyperbaric oxygen can break the vicious cycle between cerebral hypoxia and cerebral edema.

5. Stimulate the ascending activating system and promote Plasticity 。