

Hyperbaric Oxygen Therapy (HBOT) is the administration of 96% oxygen in an environment of twice normal atmospheric pressure (2.0 ATA).
The regular air we breathe contains 21% oxygen. Under standard conditions, the oxygen is carried by our red blood cells through its attachment to hemoglobin. This limits the extent of oxygen that can be delivered to the tissues. Only 4 to 6% of the oxygen we breathe is utilized.
When there is inadequate blood flow, red blood cells are less able to supply tissues with oxygen. In a pressurized environment, both the blood plasma and the hemoglobin are saturated with oxygen. The combination of increasing pressure and the breathing of 96% oxygen causes large amounts of oxygen to transfer from the plasma into tissues, cells, organs, neurons and bone structures.
The pressurised environment typically provides the body with many times its normal supply of oxygen to support the repair of cells and tissues.The healing power of oxygen is not something new. The use of hyperbaric therapy dates back nearly 350 years. The very first hyperbaric chamber was created in 1662 with the clinical use of hyperbaric oxygen therapy starting in the mid 1800s. During the 1960s, studies began to show a wide variety of beneficial uses for HBOT therapy. Today, there are over 150 internationally approved conditions for which hyperbaric oxygen therapy has been shown to be effective and beneficial.
Up to 8 Fold Increase in Stem cell release. HBOT significantly enhances the body's regenerative potential by stimulating the release of stem cells from the bone marrow into the bloodstream, with studies indicating an increase of up to eightfold in circulating mesenchymal and central nervous system (CNS) stem cells.
Increased oxygen perfusion throughout your body. This leads to an immediate rise in free-floating oxygen available for tissue use, which enhances cellular energy production through aerobic respiration, a critical process for repairing damaged tissues. This elevated oxygen availability supports cell proliferation and stimulates collagen synthesis, both essential for tissue regeneration and structural integrity.
Enhanced white blood cell function, particularly increased activity of neutrophils and macrophages, offers significant benefits in defending the body against infections, promoting tissue repair and strengthening the immune system.
The Anti-inflammatory response of HBOT is very effective in treating chronic inflammatory diseases, autoimmune disorders, diabetic complications, inflammatory bowel disease (IBD), traumatic brain injury, radiation-induced inflammation, ulcerative colitis (UC) and post-injury recovery. HBOT achieves this by modulating cytokine levels, which plays a crucial role in managing various inflammatory conditions. HBOT reduces the production of pro-inflammatory cytokines such as tumor necrosis factor-alpha (TNF-α), interleukin-1 (IL-1), interleukin-6 (IL-6), and interleukin-1β (IL-1β), which are key drivers of tissue damage and chronic inflammation.
Increase in Wound healing (PDGF, VegF, collagen production, circulatory healing) - Both PDGF and VEGF synergistically support collagen production and circulatory healing. PDGF stimulates fibroblasts to synthesize collagen and other ECM components, while VEGF ensures adequate vascular supply to sustain this biosynthetic activity.
HBOT induces vasoconstriction, which reduces edema and swelling in damaged tissues. By reducing edema, HBOT helps break the self-perpetuating "edema-ischemia vicious circle," where swelling restricts blood flow, leading to further ischemia and tissue damage. The reduction in interstitial fluid pressure allows collapsed microcirculation to reopen, restoring perfusion and supporting tissue recovery
Increase in mitochondrial healing during HBOT is a key mechanism underlying its therapeutic benefits in wound healing, neuroprotection, and anti-aging. HBOT increases the size, shape, and number of mitochondria, a process known as mitochondrial biogenesis, which also stimulates cellular respiration and energy production. Long-term HBOT protocols (20–60 sessions) are particularly effective in improving mitochondrial parameters, including enhanced energy production, improved complex IV activity, and reduced apoptosis signaling. Furthermore, HBOT’s ability to stimulate mitochondrial healing supports broader regenerative processes, including neurogenesis, synaptogenesis, and anti-inflammatory responses, which are critical for recovery in neurological and degenerative conditions.
Microbiome restoration and enhanced immune function - HBOT creates a high-oxygen environment that selectively inhibits anaerobic pathogens while promoting aerobic beneficial microbes, leading to microbiome restoration and enhanced immune function. HBOT increases tissue oxygen levels, creating an environment hostile to anaerobic and facultative anaerobic bacteria that thrive in low-oxygen conditions. This directly inhibits pathogens such as Escherichia coli and Pseudomonas aeruginosa, commonly implicated in chronic infections and inflammatory bowel diseases like Crohn’s disease (CD). In CD patients, HBOT significantly reduced the relative abundance of Escherichia, a genus linked to gut barrier disruption and systemic inflammation. By rebalancing the gut microbiota, HBOT reduces systemic markers of inflammation such as C-reactive protein (CRP
New blood vessel growth (Neovascularization- Angiogenesis) - In wound healing, angiogenesis is essential for restoring blood flow to damaged tissues, supplying oxygen and nutrients required for the survival and function of reparative cells, thereby promoting tissue restoration
Increase in Nerve healing factors (increases in VegF, BDNF, HIF1) play critical roles in promoting nerve regeneration and tissue repair. Together, the upregulation of VEGF, BDNF, and HIF1 supports multiple aspects of nerve healing, including vascular restoration, neuronal survival, axonal regeneration, and functional recovery, making these factors central to therapeutic strategies for nerve injuries.
What makes our Hyperbaric chamber so unique to other chambers is the higher 2.0 ATA pressure as well as a high oxygen flow rate of 10 to 20 litres per minute.
The heightened pressure in our chamber and higher oxygen flowrate allows for a greater oxygen uptake by the body’s tissues, accelerating healing, rejuvenating skin, and improving overall wellness.
Here are some further of the benefits associated with 2.0 ATA hyperbaric chamber models:

Faster Recovery
2.0 hyperbaric chamber models deliver 96% oxygen to our tissues faster than models with lower ATA. Deeper tissues also need to be stimulated, but pure oxygen cannot reach these tissues because they’re in hard-to-reach areas. Sometimes, these deeper tissues are responsible for the length of recovery. When these tissues aren’t properly oxygenated, they can’t facilitate faster muscle or wound recovery. Fortunately, 2.0 ATA hyperbaric chambers can reach these tissues because of their higher air pressure, leading to more rapid recovery.
Mental Clarity
Sometimes, merely taking a deep breath already helps clear our minds. The sudden influx of oxygen stimulates our brains and makes them sharper. Additionally, breathing meditation helps slow our heart rate, ultimately contributing to a calmer mind. If that’s the effect of taking in oxygen at 1 ATA, imagine taking in 96% pure oxygen at 2 ATA. A 2.0 ATA chamber amplifies the calming effects of breathing meditation and adds benefits like tissue stimulation. This benefit goes to show that HBOT isn’t just for physical recovery.
Improves Physical Performance
Aside from addressing concerns like damaged muscles and wounds, hyperbaric oxygen therapy can also improve physical performance. This benefit is also why athletes prefer to include HBOT between training sessions. HBOT improves physical performance by stimulating harder-to-reach tissues. Aside from facilitating faster recovery, these oxygenated tissues allow our muscles to push themselves more. When you add proper training and diet to this HBOT benefit, you can get the most out of your body while training.