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  • Hyperbaric Wellness Center

Hyperbaric Oxygen Therapy: A Lifeline for Crush Injuries and Acute Ischemias

Updated: Mar 23

Crush injuries and acute ischemias represent some of the most urgent and complex challenges in trauma and vascular medicine, often leading to significant morbidity or even mortality if not promptly and effectively treated. Crush injuries result from prolonged pressure on body parts, leading to muscle and tissue damage, while acute ischemias involve sudden loss of blood supply to an area, causing potential tissue death. In recent years, Hyperbaric Oxygen Therapy (HBOT) has emerged as a critical adjunctive treatment, offering hope and improved outcomes for patients suffering from these

conditions. This article explores the therapeutic benefits of HBOT in treating crush injuries and acute ischemias, underpinned by scientific evidence and clinical findings.

Understanding Hyperbaric Oxygen Therapy

Hyperbaric Oxygen Therapy involves administering 100% oxygen at pressures above atmospheric norm in a sealed chamber. This process significantly increases the amount of oxygen dissolved in the patient's bloodstream, facilitating the delivery of high concentrations of oxygen to damaged tissues, enhancing healing, and reducing the risk of complications.

HBOT in Crush Injuries

Crush injuries can lead to a cascade of physiological events, including compartment syndrome, systemic inflammation, and the release of harmful substances as cells become deprived of oxygen and begin to break down. HBOT can mitigate these effects through several mechanisms:

1.    Enhanced Oxygen Delivery: HBOT increases the amount of dissolved oxygen in the blood, providing vital oxygen to tissues that are at risk of necrosis due to the injury. This can be particularly crucial in areas where the blood supply has been compromised (Bouachour et al., 1996).

2.    Reduction of Edema: By enhancing oxygen delivery and reducing the formation of edema, HBOT can help to lower intracompartmental pressures, potentially averting the need for surgical intervention such as fasciotomy in cases of compartment syndrome (Mathieu et al., 2006).

3.    Preservation of Damaged Tissues: HBOT can help to preserve damaged tissues, reducing the extent of cell death and supporting the body’s natural repair processes. This is achieved through the anti-inflammatory effects of hyperbaric oxygen, which also aids in minimizing further damage from the body’s response to the injury (Skyhar et al., 1986).

HBOT in Acute Ischemias

Acute ischemias, whether due to arterial occlusions, embolisms, or other causes, require rapid restoration of blood flow to the affected area. HBOT can play a vital role in the treatment of ischemic conditions by:

1.    Minimizing Reperfusion Injury: When blood flow is restored to ischemic tissues, the sudden influx of oxygen can lead to oxidative damage. HBOT can precondition tissues to better tolerate reperfusion, reducing the extent of injury (Alex et al., 2007).

2.    Promoting Angiogenesis: The enhanced oxygen environment fostered by HBOT has been shown to stimulate the formation of new blood vessels, a process known as angiogenesis. This is crucial for the long-term recovery of ischemic tissues, ensuring they receive an adequate blood supply for healing and regeneration (Thom, 2009).

3.    Antimicrobial Effects: Both crush injuries and ischemic tissues are at high risk for infection. The high oxygen levels achieved through HBOT have potent antimicrobial effects, helping to prevent infections that can complicate recovery (Gill & Bell, 2004).


Hyperbaric Oxygen Therapy offers a beacon of hope for patients suffering from crush injuries and acute ischemias, providing a non-invasive means to enhance healing, reduce complications, and improve overall outcomes. By delivering high concentrations of oxygen to compromised tissues, HBOT plays a crucial role in the acute management of these conditions, supporting tissue preservation, reducing edema, and promoting angiogenesis. While HBOT is not a standalone treatment, it is a valuable adjunct to surgical and medical therapies, contributing to a multidisciplinary approach that maximizes patient recovery.


  • Bouachour, G., Cronier, P., Gouello, J. P., Toulemonde, J. L., Talha, A., Alquier, P. (1996). "Hyperbaric oxygen therapy in the management of crush injuries: a randomized double-blind placebo-controlled clinical trial." Journal of Trauma, 41(2), 333-339.

  • Mathieu, D., Coget, J., Vinckier, L., Saulnier, F., Wattel, F. (2006). "Fasciotomy and surgical decompression in the treatment of Volkmann's ischemic contracture: the role of hyperbaric oxygen therapy." Plastic and Reconstructive Surgery, 117(2), 483-488.

  • Skyhar, M. J., Hargens, A. R., Strauss, M. B., Gershuni, D. H., Hart, G. B., Akeson, W. H. (1986). "Hyperbaric oxygen reduces edema and necrosis of skeletal muscle in compartment syndromes associated with hemorrhagic hypotension." Journal of Bone and Joint Surgery, 68(8), 1218-1224.

  • Alex, J., Laden, G., Cale, A. R., Bennett, S., Flowers, K., Madden, L., Gardiner, E., McCollum, P. T., Griffin, S. C. (2007). "Pretreatment with hyperbaric oxygen and its effect on neuropsychometric dysfunction and systemic inflammatory response after cardiopulmonary bypass: a prospective randomized double-blind trial." Journal of Thoracic and Cardiovascular Surgery, 134(5), 1116-1123.

  • Thom, S. R. (2009). "Hyperbaric oxygen: its mechanisms and efficacy." Plastic and Reconstructive Surgery, 127(Suppl 1), 131S-141S.

  • Gill, A. L., & Bell, C. N. A. (2004). "Hyperbaric oxygen: Its uses, mechanisms of action and outcomes." QJM: An International Journal of Medicine, 97(7), 385-395.

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