Hyperbaric Oxygen Therapy
HBOT boosts mitochondrial function, decreases inflammation, helps cells generate energy, stimulates stem cells, growth factors, collagen and angiogenesis. Plus "The Oxygen Cure" Book Summary.
This is the latest in my Therapies Series, that includes (in most read order):
The more of these solutions we have up our sleeve to help us avoid Cartel Medicine, the better.
This came about because Larry Cook said this in our recent interview:
Interview with Larry Cook
You’ve mentioned using hyperbaric oxygen treatment for vaccine injuries. Can you explain how this therapy works and the types of conditions it helps with?
Hyperbaric oxygen treatment (HBOT) is the process of laying or sitting inside a pressurized chamber for one hour to two hours per session to “squeeze” ambient oxygen into the cells, which in turn will help improve healing at all levels since oxygen is required for all metabolic action. Hard chamber hyperbaric treatment pressurizes a hard chamber up to 3 times more atmospheric pressure than normal atmospheric pressure and a soft chamber mild hyperbaric oxygen treatment pressurizes 1.3 to 1.5 times normal atmospheric pressure (ATA).
Hard chamber higher pressure hyperbaric oxygen treatment (usually 2.0 ATA or higher) is very useful for wound healing, like for a diabetic foot that may need to be amputated if it is not quickly healed, or when divers surface too quickly and need to be pressurized again to reduce potential problems. Depending on the facility and the chamber, pure oxygen may also be added to the chamber to increase oxygen levels even more. Hard chamber treatments are often priced between $250 and $350 per session, depending on where one lives, and the type of chamber being used.
I give a full overview on my website about Hyperbaric Oxygen Treatment right here:
Try Hyperbaric Oxygen Treatment for Autism, Vax Injury, Brain Injury, Wounds & More
Which reminded me of something Marc Girardot wrote in relation to the stimulation of stem cells.
Arteriosclerosis Is Not About Cholesterol. It's About Calcification.
There’s three main ways to trigger repair that I feel confident mentioning today because I have read many positive articles. In all cases, it’s about stimulating stem cells by breathing pure oxygen. The air we typically breathe is about 21% oxygen, if the level of oxygen is raised above normal - here 5x - stem cells react and replicate, likely to avoid a form of poisoning9. It is consistent with the need for repair when exercising and hyper ventilating, and likely explains why short high intensity exercises are so positive for one’s health: hyper-oxygenation of the blood induces stem cell multiplication, but no body damage, so extra stem cells are available and circulating for repair.
HyperBaric Oxygen Therapy (HBOT) which consists generally of breathing 100% oxygen for an hour at 1.7 to 2 atmosphere, with roughly a 10x intake of O2 takes typically 40 1-hour sessions to repair endothelial damages101112131415.
I haven’t found any studies of it being applied to arteriosclerosis. Both by supporting the endothelium rebuild and by supporting immune cells early on, HBOT could well accelerate the clean up. This is something to be discussed with your specialist. Given there’s generally no urgency and that HBOT can be a constraint on someone’s life, spreading the 40 sessions over a year could be wise and aligned with a progressive resolution.[The other two ways are Exercise With Oxygen Therapy (EWOT) and Normobaric Oxygen Therapy (NBOT)]
Kerri Rivera also mentioned it in reference to Autism, in her interview with Dr Robert Yoho.
288. KERRI RIVERA, THE MAMA BEAR WHO STARTED A MOVEMENT
Kerri emphasizes that autism and other toxic syndromes usually have several causes and that combination treatments work faster. She says, “There is no one-hit wonder.” Therapies that Rivera has used to treat autism include:
Hyperbaric oxygen
Gluten-free diets.
Mebendazole, a nontoxic drug that goes mouth to anus in twelve hours and kills parasites.
Humic and black seed are old treatments that seal “leaky” guts.
I found this useful short paper at the wonderful orthomolecular.org
Here is a 10-bullet point summary:
Hyperbaric oxygen treatment (HBOT) involves breathing pure oxygen in a pressurized chamber. It has many clinical and research applications beyond just diving medicine.
The use of hyperbaric treatment for medical conditions predates its application in diving, with early chambers developed in the 1600s-1800s. Key pioneers included Henshaw, Boyle, Bert, Haldane and others.
HBOT works by dissolving high amounts of oxygen into the plasma, enough to sustain life even without red blood cells. It stimulates wound healing, boosts the immune system, and promotes oxygenation to poorly perfused areas.
Clinical applications include radiation necrosis, gas gangrene, CO poisoning, osteomyelitis, soft tissue infections, crush injuries, skin grafts, burns, cerebral edema, MS, stroke, cancer and more.
Treatment involves physician orders, informed consent, and continuous monitoring by a trained technician. Protocols typically involve 1-hour sessions at a pressure equivalent to 33-39 feet.
Case #1 describes an 80-year-old female with memory deficits who experienced improvements in memory, energy and mental sharpness with weekly HBOT, regressing when sessions were missed.
Case #2 outlines a 52-year-old obese female with a chronic inflammatory reaction to a spider bite that improved dramatically with HBOT, along with nutritional supplements.
Case #3 involves a 46-year-old MS patient who reported improved balance, leg strength and overall well-being after an initial trial and subsequent 20 HBOT sessions.
The center has also used HBOT with good results for diabetic foot gangrene and as an adjunct therapy in cancer patients.
HBOT is considered a very useful treatment option at the center across a range of clinical applications, supplementing other therapies. However, caution and monitoring are important due to potential vascular constriction effects.
Here is a bullet point summary of a good Mercola article.
Dr. Jason Sonners: Hyperbaric Therapy - A Vastly Underused Treatment Modality
Hyperbaric oxygen therapy (HBOT) involves breathing pure oxygen in a pressurized chamber. It is indicated for over 100 conditions but only 14 are FDA-approved for insurance reimbursement.
HBOT boosts mitochondrial function, decreases inflammation, helps cells generate energy, stimulates stem cells, growth factors, collagen and angiogenesis.
Benefits come from the cumulative effect of the wave of hyper-oxygenation and relative hypoxia when returning to normal oxygen levels.
HBOT may help tissue wounds, stroke, TBI, heart attack, post-ischemic injury, neurodegenerative and autoimmune diseases. It can rebalance immunity, fight infection and aid longevity.
Dr. Jason Sonners is studying HBOT's effects on cytokines, methylation, telomeres at different pressures over 3-6 months to optimize protocols.
HBOT's benefits come not just from hyper-oxygenation but also from relative hypoxia after treatment which triggers stem cells, collagen, VEGF, BDNF without the downsides of chronic hypoxia.
HBOT does cause oxidative stress but the body adapts by upregulating its own antioxidant systems like SOD, catalase and glutathione. Supplemental antioxidants can also be used.
Sonners developed a functional medicine HBOT certification course to expand use beyond just wound care to regenerative applications.
In the US, HBOT is FDA-approved for 14 indications like air embolism, gangrene, radiation injury. Globally there are 100+ recognized uses.
HBOT doesn't directly cure but provides excess oxygen to improve cellular function across many conditions. Even autoimmune diseases may benefit.
HBOT helps fight anaerobic bacteria by creating a high oxygen environment that impairs their function and breaks down biofilms.
Sonners recommends 2 hrs/week of HBOT regularly plus 30-40 hrs over 6-8 weeks, 3x/year for optimal benefits.
The switching between hyper-oxygenation and relative hypoxia may stimulate more benefits than just the cumulative oxygen dose.
HBOT shows promise for wellness, anti-aging and regenerative applications beyond just disease treatment.
Sonners' book "Oxygen Under Pressure" provides more information on using HBOT for health restoration, anti-inflammation, anti-aging and revolutionizing healthcare.
I went looking for more on the subject and found The Oxygen Cure that I have turned into an Unbekoming Interactive Summary.
Book Description:
The Best-Kept Secret in Medicine
In the United States, the FDA currently recognizes hyperbaric oxygen therapy (HBOT) for 14 conditions, including decompression sickness, embolism, crush injury, bone infection, burns, wound healing, severe anemia, and several others.
Now, in The Oxygen Cure, hyperbaric expert William S. Max eld, M.D., will convince you that HBOT is a vastly underused modality that deserves to take its place among frontline medical treatments. As a holistic treatment, HBOT targets the underlying disease or condition, not just the symptoms.
The Oxygen Cure reveals how hundreds of studies on HBOT conducted around the world prove it works at the cellular level to help or heal conditions such as:
Stroke
Chemo-Related Side Effects
Epilepsy
Fibromyalgia
Emphysema & Asthma
ADHD
Rheumatoid Arthritis
Cardiac Diseases
Migraine & Vertigo
Early Dementia
Vision Loss
Multiple Sclerosis & Parkinson's Disease
Traumatic Brain Injury & PTSD
And Dozens More
Full of hope-inspiring case histories and expert findings, The Oxygen Cure shows how HBOT not only benefits the sick and injured (including our wounded veterans), but may also reduce our country's staggeringly high medical costs.
HBOT often provides a safe alternative to drug therapy and dangerous invasive procedures.
The Oxygen Cure
A Complete Guide to Hyperbaric Oxygen Therapy
by William S. Maxfield
33 Questions and Answers
Question 1: What is hyperbaric oxygen therapy (HBOT) and how does it work?
Hyperbaric oxygen therapy (HBOT) is a medical treatment where patients breathe pure oxygen in a pressurized chamber. The elevated pressure allows the lungs to gather more oxygen, which is then delivered to the body's tissues via the bloodstream. This increased oxygen can help heal damaged tissues, fight infection, and promote the growth of new blood vessels.
Question 2: What are some of the key benefits and applications of HBOT discussed in the book?
The book discusses numerous benefits and applications of HBOT, including treating wounds, burns, bone infections, traumatic brain injuries, PTSD, autism, cerebral palsy, multiple sclerosis, lupus, and aiding recovery from heart surgery and cancer treatments. HBOT is also explored as a potential antiaging therapy and performance enhancer for athletes.
Question 3: How has the medical establishment historically viewed HBOT and why has it been slow to gain widespread acceptance?
Historically, the medical establishment has been slow to accept HBOT, often dismissing it as unproven or even quackery. This skepticism is partly due to a lack of education about the therapy in medical schools and a shortage of research funding. Economic factors, such as the threat HBOT poses to lucrative pharmaceuticals and surgical procedures, have also contributed to the resistance.
Question 4: What role do SPECT scans play in HBOT treatment and how do they help demonstrate the therapy's efficacy?
SPECT scans, which map blood flow and activity in the brain, play a crucial role in HBOT treatment. They allow doctors to pinpoint areas of damage and low blood flow before treatment and document the improvements following HBOT sessions. This imaging provides objective evidence of the therapy's ability to heal damaged brain tissue.
Question 5: How can HBOT help with emergency care and wound healing?
HBOT has been shown to accelerate wound healing by increasing oxygen delivery to damaged tissues, reducing inflammation, and stimulating the growth of new blood vessels. In emergency care, it is particularly useful for treating traumatic injuries, burns, crush wounds, and other conditions that impair circulation and oxygen supply to tissues.
Question 6: What effects does HBOT have on the healing process for burns and skin grafts?
For burn patients, HBOT can speed up healing, reduce inflammation, fight infection, and improve the survival of skin grafts. By delivering high concentrations of oxygen to the damaged tissues, HBOT promotes the growth of new skin cells and blood vessels, leading to faster and more complete healing with less scarring.
Question 7: How does HBOT show promise for treating bone infections and osteomyelitis?
HBOT has been found effective in treating chronic bone infections like osteomyelitis, which can be difficult to eradicate with antibiotics alone. The increased oxygen levels help fight the infection, promote healing in the damaged bone, and can even stimulate the growth of new bone tissue. This can be particularly valuable for patients facing potential limb amputation due to severe infections.
Question 8: What benefits does HBOT provide for intensive care patients according to the book?
The book cites research showing that HBOT can benefit intensive care patients with severe conditions such as gas gangrene, necrotizing infections, and acute traumatic ischemia. By improving oxygen delivery and reducing inflammation, HBOT can help these critically ill patients heal faster and avoid complications like organ failure and limb loss.
Question 9: How can HBOT help with conditions related to aging like dementia and Alzheimer's disease?
HBOT has shown promise in treating age-related cognitive decline, including symptoms of dementia and Alzheimer's disease. By improving blood flow and oxygen delivery to the brain, HBOT may help reactivate damaged neurons, slow the progression of the disease, and even reverse some of the cognitive impairments. The book features several case studies of patients who experienced significant improvements in memory and cognitive function following HBOT.
Question 10: What lifestyle factors are important for maintaining brain health and reducing dementia risk as we age?
The book emphasizes several key lifestyle factors for maintaining brain health and reducing the risk of dementia, including maintaining a healthy weight, staying mentally and socially active, managing stress, keeping blood pressure and blood sugar under control, avoiding smoking, and getting enough sleep. Incorporating these healthy habits can help preserve cognitive function and potentially delay the onset of age-related decline.
Question 11: How does HBOT show potential as an "antiaging" therapy beyond just cognitive benefits?
In addition to its cognitive benefits, HBOT is explored as a potential antiaging therapy for its ability to promote collagen production, improve skin elasticity, and even stimulate hair growth. Some patients report looking and feeling younger after undergoing HBOT, with visible improvements in skin texture and wrinkle reduction. While more research is needed, the book suggests HBOT could offer a promising avenue for combating some of the physical signs of aging.
Question 12: What role can HBOT play in treating heart ailments and aiding recovery from cardiac surgery?
HBOT has been used to treat various heart conditions, including angina, arrhythmias, and congestive heart failure. It can also aid recovery from cardiac surgery by reducing inflammation, improving circulation, and decreasing the risk of complications like wound infections. Studies have shown that HBOT before and after bypass surgery can lead to better outcomes and faster healing.
Question 13: How has HBOT been used as a complementary treatment in cancer care?
While not a standalone cure for cancer, HBOT has shown value as a complementary treatment in cancer care. It can help alleviate side effects of chemotherapy and radiation, such as fatigue, skin irritation, and delayed wound healing. By increasing oxygen delivery to the body, HBOT may also improve the effectiveness of certain cancer treatments and potentially slow tumor growth. Some studies suggest it may even reduce the risk of cancer recurrence.
Question 14: What orthopedic conditions like arthritis and fibromyalgia can HBOT potentially help with?
HBOT has been used to treat various orthopedic conditions, including osteoarthritis, rheumatoid arthritis, and fibromyalgia. By reducing inflammation and promoting tissue healing, HBOT can help alleviate pain, improve joint mobility, and enhance overall function in patients with these conditions. The book cites several studies and case reports demonstrating significant improvements in symptoms and quality of life following HBOT.
Question 15: How are professional and amateur athletes using HBOT to heal from injuries and enhance performance?
Many professional and amateur athletes are turning to HBOT to speed up recovery from sports injuries, such as sprains, strains, and fractures. By increasing oxygen delivery to the damaged tissues, HBOT can reduce inflammation, alleviate pain, and accelerate the healing process. Some athletes also use HBOT as a performance-enhancing tool, claiming it improves endurance, reduces lactic acid buildup, and sharpens mental focus. While more research is needed, the book highlights several examples of athletes who have benefited from incorporating HBOT into their training and recovery regimens.
Question 16: What types of brain injuries and neurological conditions is HBOT being used to treat?
HBOT is being used to treat a wide range of brain injuries and neurological conditions, including traumatic brain injury (TBI), concussions, stroke, cerebral palsy, multiple sclerosis, and autism. By increasing oxygen delivery to the brain, HBOT can help repair damaged tissues, reduce inflammation, and promote the growth of new blood vessels and neurons. This can lead to improvements in cognitive function, motor skills, and overall quality of life for patients with these conditions.
Question 17: How does HBOT show promise for helping veterans with TBI, PTSD and other combat-related injuries?
HBOT has emerged as a promising treatment for veterans suffering from TBI, PTSD, and other combat-related injuries. By targeting the underlying brain damage and inflammation, HBOT can help alleviate symptoms like headaches, memory loss, depression, and anxiety. The book features several case studies of veterans who have experienced significant improvements in their mental health and cognitive function following HBOT, often after failing to respond to conventional treatments. Despite this promise, the book notes that many veterans still face barriers to accessing HBOT due to lack of insurance coverage and skepticism within the military healthcare system.
Question 18: What does the research show regarding HBOT's effects on autism and cerebral palsy?
The book cites several studies and anecdotal reports suggesting that HBOT can benefit children with autism and cerebral palsy. By improving blood flow and oxygen delivery to the brain, HBOT may help repair damaged neural pathways, leading to improvements in communication, social interaction, and motor function. Some parents report dramatic gains in their children's development and quality of life following HBOT, although more large-scale, controlled studies are needed to fully validate these effects.
Question 19: How can HBOT benefit people suffering from chronic lung diseases like COPD and asthma?
For patients with chronic lung diseases like COPD and asthma, HBOT can help improve lung function, reduce inflammation, and alleviate symptoms like shortness of breath and fatigue. By delivering high concentrations of oxygen to the body, HBOT can compensate for the reduced lung capacity and help patients maintain better blood oxygen levels. This can translate into better exercise tolerance, fewer exacerbations, and a higher quality of life. The book also suggests that HBOT, in combination with stem cell therapies, may offer new hope for regenerating damaged lung tissue in the future.
Question 20: What potential does HBOT have for treating serious vision problems and eye conditions?
HBOT has shown potential for treating a range of vision problems and eye conditions, including diabetic retinopathy, retinal detachment, glaucoma, and optic nerve damage. By improving blood flow and oxygenation to the delicate tissues of the eye, HBOT can help prevent further vision loss and even restore some lost vision in certain cases. The book features several compelling case studies of patients who have experienced significant improvements in their eyesight following HBOT, including a firefighter who regained his vision after being blinded by a lightning strike.
Question 21: How has HBOT been used to help patients with autoimmune disorders like multiple sclerosis and lupus?
HBOT has been used to treat various autoimmune disorders, including multiple sclerosis (MS) and lupus. In MS, HBOT is thought to work by reducing inflammation, promoting remyelination of damaged nerve fibers, and improving overall brain function. Many patients report significant improvements in mobility, fatigue, and cognitive symptoms following HBOT. For lupus patients, HBOT can help manage complications like skin lesions, joint pain, and organ damage by reducing inflammation and promoting tissue healing. While not a cure, HBOT can be a valuable adjunctive therapy for managing symptoms and slowing disease progression in these complex conditions.
Question 22: What role might HBOT play in treating HIV/AIDS according to the book?
The book suggests that HBOT could play a role in managing HIV/AIDS by boosting the immune system, reducing inflammation, and helping to fight off opportunistic infections. By improving blood oxygen levels and circulation, HBOT may help counteract some of the oxidative stress and tissue damage associated with the disease. Some studies have also suggested that HBOT could potentially help reduce viral loads and slow disease progression, although more research is needed in this area. The author recommends that people newly diagnosed with HIV consider HBOT as an early intervention to help preserve immune function and prevent long-term complications.
Question 23: How did HBOT help Austin and Sydney Williams recover from their mitochondrial disease?
Austin and Sydney Williams, two young siblings suffering from mitochondrial disease, experienced dramatic improvements in their health and quality of life following HBOT. Before treatment, both children were severely ill, with symptoms including seizures, gastrointestinal problems, and developmental delays. After undergoing a series of HBOT sessions, however, their energy levels, cognitive function, and overall health began to improve rapidly. Austin's seizures stopped, and Sydney's recurrent infections and hospitalizations ceased. While not a definitive cure, HBOT appeared to give the siblings' bodies the boost they needed to start healing and regaining function. Their story offers hope for other families dealing with this complex and often devastating condition.
Question 24: What obstacles do patients face in getting insurance coverage for HBOT?
Despite the growing body of evidence supporting its use, many patients still face significant obstacles in getting insurance coverage for HBOT. Most insurers only cover a limited set of FDA-approved indications, such as wound healing and carbon monoxide poisoning, and consider other uses "experimental" or "off-label." This means that patients seeking HBOT for conditions like brain injury, autism, or Lyme disease often have to pay out of pocket, which can be prohibitively expensive. The book argues that this narrow view of HBOT's potential is holding back progress and denying patients access to a valuable therapy. It urges patients and advocates to push for broader coverage and more research funding to help overcome these barriers.
Question 25: In what ways might HBOT be used in conjunction with stem cell therapies in the future?
The book explores the exciting potential of combining HBOT with stem cell therapies to enhance tissue regeneration and healing. Studies have shown that HBOT can mobilize stem cells from the bone marrow and promote their migration to sites of injury or disease. By creating a more favorable environment for stem cell engraftment and differentiation, HBOT could potentially boost the effectiveness of stem cell transplants for a wide range of conditions, from heart disease to spinal cord injury. The author envisions a future in which these two cutting-edge therapies are routinely used together to regenerate damaged tissues, combat aging, and cure previously intractable diseases.
Question 26: How could HBOT change intensive care and emergency medicine going forward?
The book argues that HBOT could revolutionize intensive care and emergency medicine by providing a powerful tool for managing critical illness and injury. In the ICU, HBOT could be used to support patients with severe infections, organ failure, and other life-threatening conditions by improving oxygenation, reducing inflammation, and promoting tissue repair. In the ER, HBOT could become a standard treatment for traumatic injuries, burns, and other acute conditions where tissue hypoxia is a major concern. By incorporating HBOT into these settings, hospitals could potentially improve outcomes, reduce complications, and save lives. The author calls for more research and investment in this area to help make this vision a reality.
Question 27: What potential does HBOT have as a preventative therapy for cancer and other diseases?
While HBOT is typically used as a treatment for existing conditions, the book suggests that it may also have potential as a preventative therapy for cancer and other diseases. By improving immune function, reducing inflammation, and promoting healthy tissue oxygenation, regular HBOT sessions could potentially help the body resist the development of cancer and other chronic illnesses. Some studies have even suggested that HBOT could help prevent the recurrence of certain cancers after treatment. While more research is needed to fully explore this potential, the author argues that incorporating HBOT into a comprehensive preventative health strategy could have significant benefits for long-term wellness.
Question 28: How might hyperbaric oxygen be used to treat birth injuries and help with high-risk pregnancies?
The book discusses the potential of HBOT for treating birth injuries and supporting high-risk pregnancies. For infants who experience oxygen deprivation during delivery, such as those with cerebral palsy or other neurological impairments, HBOT could help reduce brain damage and improve developmental outcomes by promoting tissue repair and regeneration. In high-risk pregnancies, such as those complicated by preeclampsia or intrauterine growth restriction, HBOT could potentially improve placental function and fetal oxygenation, leading to better outcomes for both mother and baby. The author cites some promising animal studies and human case reports in this area, but acknowledges that more research is needed to fully validate these applications.
Question 29: What role could HBOT play in slowing the cognitive decline associated with aging?
The book explores the potential of HBOT as an anti-aging intervention, particularly for the brain. By improving cerebral blood flow and oxygenation, regular HBOT sessions could potentially slow the cognitive decline associated with normal aging and reduce the risk of developing conditions like dementia and Alzheimer's disease. Studies have shown that HBOT can stimulate the growth of new brain cells and blood vessels, as well as improve the functioning of existing neurons. For older adults already experiencing memory loss or other cognitive impairments, HBOT could help restore some lost function and improve overall quality of life. The author suggests that incorporating HBOT into a comprehensive brain health regimen could have significant benefits for maintaining mental sharpness and independence in later life.
Question 30: How are in-home hyperbaric chambers making HBOT more accessible for ongoing treatment?
In-home hyperbaric chambers are making HBOT more accessible for patients who require ongoing treatment for chronic conditions. These personal chambers, which are typically soft-sided and designed for use at lower pressures, allow patients to receive daily treatments in the comfort of their own homes, without the need for frequent trips to a clinic or hospital. This can be particularly beneficial for patients with mobility limitations, transportation difficulties, or busy schedules. While in-home chambers are not appropriate for all conditions and should be used under the guidance of a trained HBOT provider, they are expanding access to this valuable therapy and making it easier for patients to incorporate into their long-term care plans.
Question 31: What is "precision medicine" and how might it impact the application of HBOT?
Precision medicine is an emerging approach that uses genetic, environmental, and lifestyle data to tailor medical treatments to the individual patient. In the context of HBOT, precision medicine could help providers optimize treatment protocols based on a patient's specific genetic profile, medical history, and other unique factors. For example, genetic testing could potentially identify patients who are most likely to benefit from HBOT for a given condition, or help determine the optimal treatment pressure and duration for an individual. By moving away from a one-size-fits-all approach and towards personalized HBOT regimens, precision medicine could potentially improve outcomes, reduce side effects, and make the therapy more cost-effective in the long run.
Question 32: How could a holistic approach to medicine aided by HBOT help treat the underlying causes of disease?
The book argues that a holistic approach to medicine, which focuses on treating the whole person rather than just isolated symptoms, could be greatly enhanced by the use of HBOT. By addressing the root causes of disease, such as inflammation, oxidative stress, and tissue hypoxia, HBOT can help restore balance and promote self-healing within the body. When combined with other holistic modalities, such as nutrition, exercise, and stress management, HBOT could potentially help patients achieve lasting improvements in their health and well-being. The author suggests that this integrative approach, which treats the body as a complex system rather than a collection of parts, could help shift the focus of medicine from symptom management to true healing and disease prevention.
Question 33: What does the author see as the most exciting potential future applications of hyperbaric oxygen therapy?
Looking to the future, the author sees many exciting potential applications for HBOT across a wide range of medical fields. Some of the most promising areas include:
Neurology: HBOT could become a standard treatment for traumatic brain injury, concussion, stroke, and other neurological conditions, helping to reduce long-term disability and improve quality of life for patients.
Oncology: HBOT could be used to enhance the effectiveness of cancer treatments, reduce side effects, and potentially even prevent recurrence in some cases.
Regenerative medicine: HBOT could be combined with stem cell therapies and other regenerative techniques to help rebuild damaged tissues and organs, offering new hope for patients with chronic illnesses and injuries.
Anti-aging: Regular HBOT sessions could potentially slow the aging process, reduce the risk of age-related diseases, and help people maintain physical and cognitive function well into their later years.
Preventative medicine: HBOT could be used proactively to boost immune function, reduce inflammation, and promote overall health and wellness, helping to prevent the development of chronic diseases and extend healthspan.
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Regarding atherosclerosis, I recently read Gerald Lemole's book Lymph & Longevity (not a great read, but there are some good nuggets to be gleaned), where he posits that it is caused by a clogged lymphatic system not being able to clear waste from blood vessels. I believe he stated that calcium was a step in the repair process, but since the clearance of waste is impaired by the clogged lymphatic system, they body has not way to clear it and it instead builds up and causes hardening and narrowing.
The clogged lymphatic system suggests impaired zeta potential, which can be caused by chronic infection, heavy metals, etc. Magnesium deficiency could also play a role, as magnesium and calcium are antagonists. A lack of sufficient magnesium would drive calcium into tissues.
Impaired lymphatic drainage is also implicated in breast cancer, and there is a clear connection between use of aluminum-containing antiperspirants and impaired zeta potential, due to the high positive charge of aluminum. Small amounts of aluminum are also in a lot of processed foods as an anti-caking agent.
It's also worth noting that smoking generates a lot of positive ions, something else that would impair zeta potential. It seems to me that atherosclerosis is commonly associated with smoking, but I could be wrong.
It's interesting that calcification of heart blood vessels and breast cancer could have common causal factors...
this is phenomenal. All the things we need in one paper. Absolutely fantastic. Thank you