Hyperbaric Oxygen Therapy (HBOT) works by delivering 100% oxygen in a pressurized environment, which allows your lungs to absorb significantly more oxygen than normal. Under pressure, oxygen dissolves directly into your bloodstream and plasma, enabling it to reach areas of the body with limited circulation, inflammation, or tissue damage. This increased oxygen availability supports cellular energy production (ATP), stimulates new blood vessel formation (angiogenesis), enhances immune function, and promotes tissue repair. By improving oxygen delivery at the cellular level, HBOT helps reduce inflammation, accelerate healing, and support the body’s natural recovery processes.

Getting started is simple. The first step is to schedule a consultation so we can review your health history, goals, and determine if Hyperbaric Oxygen Therapy (HBOT) is appropriate for you. During this visit, we’ll explain the process, answer your questions, and create a personalized treatment plan. Once approved, you can begin sessions right away based on availability.

Most HBOT sessions last between 60 to 90 minutes, depending on your treatment plan. You’ll relax comfortably in the chamber while breathing concentrated oxygen. The total number of sessions varies based on your condition and goals — some patients benefit from a short series of treatments, while others may require a longer program for optimal results.

HBOT Pricing

We offer simple, transparent pricing with discounted package options for patients who want to maximize results.

Individual Session

$150 per session

Perfect for those who want to try HBOT or need occasional support.

Package of 5 Sessions

$625 total
(Just $125 per session — Save $125)

Ideal for short-term recovery or inflammation support.

Package of 10 Sessions

$1,000 total
(Only $100 per session — Save $500)

Best value for ongoing healing, chronic conditions, or performance optimization.

Not all hyperbaric oxygen therapy chambers are the same — and the pressure level makes a significant difference in therapeutic benefit.

✅ Hard-Sided Medical-Grade Chamber

We use a hard-sided hyperbaric chamber capable of delivering up to 2.0 ATA (atmospheres absolute). This allows for significantly greater oxygen absorption compared to lower-pressure systems.

✅ Higher Therapeutic Pressure

Most soft-sided chambers typically reach only 1.3 ATA, which provides mild oxygen support.
Clinical research and therapeutic protocols commonly begin showing meaningful physiologic benefits at 1.5 ATA and above.

At higher pressures:

• More oxygen dissolves directly into the plasma

• Greater tissue oxygen delivery occurs

• Enhanced cellular repair and healing support

• More robust anti-inflammatory response

✅ True Therapeutic HBOT — Not Mild Oxygen Therapy

While mild hyperbaric chambers can offer general wellness support, our system is designed to deliver clinical-level therapeutic pressure, allowing you to access deeper, more measurable healing benefits.

To help put this into perspective, pressure increases by about one atmosphere (1 ATA) for every 33 feet of seawater. At sea level, we are at 1.0 ATA. A soft-sided chamber that reaches 1.3 ATA creates pressure similar to being about 10 feet underwater. In contrast, a medical-grade chamber operating at 2.0 ATA produces pressure comparable to being about 33 feet underwater. That significant difference in pressure allows substantially more oxygen to dissolve directly into the bloodstream and plasma, which enhances tissue oxygen delivery and supports a stronger therapeutic effect.

Under normal conditions (breathing room air at 1.0 ATA), most oxygen is carried by red blood cells, and only a small amount dissolves directly into plasma.

When breathing 100% oxygen:

• At 1.3 ATA, the amount of oxygen dissolved into plasma increases modestly.

• At 2.0 ATA, the amount of oxygen dissolved into plasma increases dramatically — often delivering roughly 2–3 times more dissolved oxygen than 1.3 ATA.

To put it simply:

While 1.3 ATA provides mild oxygen enrichment, 2.0 ATA significantly increases the amount of oxygen that can dissolve directly into the blood plasma, allowing oxygen to reach tissues with poor circulation, inflammation, or injury much more effectively.

The key difference isn’t just “more oxygen in the lungs” — it’s how much oxygen is forced into solution under pressure, and that effect increases nonlinearly as pressure rises.