The Benefits of Hydrogen-Rich Water (HRW)

James Odell, OMD, ND, L.Ac.

Hydrogen-rich water (HRW) has been in the spotlight as a new antioxidant and reported to selectively eliminate or neutralize harmful oxidative free radicals, thus reducing oxidative stress-induced damage to the cells and tissues. Hydrogen-rich water, or simply “hydrogen water,” is water infused with hydrogen gas. The potential benefits of HRW on various aspects of health go beyond reducing oxidative stress. HRW has emerged as a promising bioregulatory approach being studied across a wide range of health conditions. It is shown to increase physical endurance, strengthen liver and heart function, and improve mental health and even benefit cancerous conditions. Research into the health effects of hydrogen water is still in its early stages. However, research conducted over the past 20 years suggests that HRW has both antioxidant and anti-inflammatory properties that improve health. This article highlights some of the benefits of HRW and methods of its use.

The Chemistry of Hydrogen

As far as we know, hydrogen is the most abundant chemical element in the universe, making up approximately 75% of all normal matter. Despite its prevalence, it is rarely found as a solitary atom in its natural, uncombined state on Earth. Instead, under typical conditions, hydrogen exists as a diatomic molecule, represented by the chemical formula H2. Molecular hydrogen is a colorless, odorless, and tasteless gas. It is highly flammable and has the lowest density of all gases, making it significantly lighter than air. This is why it was used in airships of the past. The earliest known important chemical property of hydrogen is that it combines with oxygen to form water (H2O). The name “hydrogen” is derived from Greek words meaning “maker of water.” Much like oxygen, H2 can be further dissolved in water using different methodologies.

Physiology of Hydrogen in the Intestinal Microbiome

Hydrogen gas (H2) is produced regularly in the intestinal microbiome from intestinal bacteria.1 Hydrogen gas generation and oxidation coupled with carbon dioxide (CO2) reduction to methane or acetate help to protect and maintain the integrity of the gut microbiome. Both CO2 and H2 are found in abundance in the colon as they are byproducts of anaerobic bacterial fermentation. There are more than 100 trillion intestinal bacteria from numerous different species that make up our intestinal microbiome. Among these, 70% are hydrogen-producing bacteria that possess hydrogenase, an enzyme that catalyzes the metabolism of hydrogen, as well as the ability to metabolize carbohydrates to produce acetic acid and butyric acid.2 Firmicutes and Bacteroides are the most prevalent hydrogen-producing bacteria and account for 92% of bacterial species in the human large intestine, where 51% are Firmicutes and the other 41% are Bacteroides.3

Another means of microbial H2 production is through the oxidation of reduced ferredoxin (Fd) and pyridine nucleotides by microbial hydrogenases. The amount of H2 found in the lumen of the large intestine varies based on numerous factors but is mainly impacted by the rate of production versus the rate of utilization of H2 by various members of the gut microbiota. It is viewed that the H2 produced within the intestinal microbiome plays a very important role in the physiological maintenance of the living body. Hydrogen eliminates hydroxyl radicals in the intestinal epithelial cells and protects the intestinal wall from oxidative stress. Surplus hydrogen molecules penetrate the cell membrane by diffusion, and a small amount of these molecules circulate the entire body through the bloodstream reducing oxidative free radicals. H2 is small enough to pass through cell membranes and even cross the blood-brain barrier, giving it access to parts of the body that larger molecules cannot easily reach. It is widely known that molecular hydrogen can react with hydroxyl radicals, generated in the mitochondria, to protect cells from oxidative stress. In recent years, it has become clear that there is a close relationship between the amount of hydrogen produced in the intestine and various diseases. Emerging research suggests that the body’s natural intestinal production of H₂ may play a supportive role in metabolic and overall physiological health. While scientists continue to explore its relationship to degenerative disease, these early findings offer encouraging insight into the potential importance of endogenous hydrogen for long-term wellness.

Hydrogen-Rich Water: Not All Hydrogen Water Is the Same

The amount of dissolved molecular hydrogen matters. Hydrogen concentration is commonly reported in milligrams per liter (mg/L) or parts per million (ppm), with 1 mg/L approximately equal to 1 ppm in water. Because H2 is a very small and volatile molecule, it can escape rapidly after water is opened or generated. Preparation method, dissolved-hydrogen concentration, container type, storage conditions, and the time between preparation and consumption can therefore influence how much hydrogen is actually delivered.

Consumers should also be aware that oxidation-reduction potential (ORP) is not the same as dissolved molecular hydrogen concentration. A negative ORP may accompany hydrogen-rich water, but ORP alone does not establish how much H2 is present. When evaluating a product or device, the measured dissolved-hydrogen concentration at the time of consumption is the more directly relevant value.

Drinking water is one of the most basic human needs, yet many people are chronically dehydrated, and most drink from municipal sources of questionable purity. Water, pure water, is essential for maintaining vital bodily functions such as temperature regulation, nutrient absorption, digestion, and energy expenditure. Recent research published in the International Journal of Molecular Sciences suggests that hydrogen-rich water may be an even better way to hydrate than your average glass.4 HRW is water that has molecular hydrogen gas (H2) added. Over the last few years, HRW has become the latest trend to target the global market in the health and wellness industry. Different methods of making HRW include bubbling hydrogen gas into water, breaking it down electrically, and using magnesium to release H2. These methods result in a supersaturated water solution of H2. Fortunately, learning how to make hydrogen water at home is super easy.

There are several convenient methods for producing hydrogen-rich water (HRW), each designed to introduce molecular hydrogen (H₂) into drinking water.

1. Hydrogen Water Generators: These compact appliances use electrolysis to produce molecular hydrogen, allowing users to prepare hydrogen-rich water on demand.

2. Hydrogen Tablets: Available from numerous manufacturers, these tablets dissolve in water and release molecular hydrogen through a chemical reaction. For optimal hydrogen retention, the water should be consumed promptly after the tablets have fully dissolved.

3. Magnesium Sticks: When specially formulated magnesium sticks come into contact with water, a chemical reaction generates molecular hydrogen. This effervescent process allows hydrogen gas to dissolve into the water, creating another convenient method of preparing HRW.

   
   

Because molecular hydrogen (H₂) is a small molecule, it can readily diffuse through water and escape into the surrounding air. As a result, hydrogen concentrations may gradually decrease after preparation, particularly when the water is exposed to air.

HRW should be consumed immediately after being hydrogenated for best results. An advantage of using hydrogen-rich water to deliver molecular hydrogen is that it can be easily administered and is portable.5 The beneficial effects can be seen even at low concentrations.

The Benefits of Hydrogen-Rich Water (HRW):

Molecular Hydrogen: Beyond Antioxidant Activity to Cellular Regulation

Molecular hydrogen was initially studied primarily for its ability to selectively reduce highly reactive oxidants such as hydroxyl radicals. Emerging research, however, suggests that its biological effects may extend beyond direct antioxidant activity. H2 appears to influence cellular signaling pathways involved in oxidative stress, inflammation, mitochondrial function, gene expression, and the body's own antioxidant defenses, including the Nrf2 pathway. Rather than simply acting as a conventional antioxidant, molecular hydrogen may function as a signaling and regulatory molecule that helps cells maintain redox balance and adapt to physiological stress.

Mitochondrial Function and Cellular Energy

Mitochondria are central to cellular energy production and redox balance. Emerging research suggests that molecular hydrogen may help support mitochondrial homeostasis by influencing oxidative signaling, energy metabolism, mitophagy, and stress-response pathways such as AMPK, sirtuins, and Nrf2. These mechanisms remain an active area of investigation, but they may help explain why the effects of H2 appear to extend beyond simple free-radical scavenging.

HRW has recently gained significant attention as a potential health-promoting beverage. Studies have been done on animals and humans over the last few decades showing that it exhibits antioxidant, anti-inflammatory, and anti-cancer or apoptotic effects. It appears that the driving mechanism behind its many health promoting properties is its strong antioxidant potential. Oxidative stress is known to be a common co-cause of lifestyle-related diseases, the aging process, and is associated with most degenerative diseases and cancer. H2 is effective against oxidative stress as it reduces the oxidative damage that occurs between biological molecules and hydroxyl radicals. Upon oral administration of HRW, H2 is able to efficiently penetrate cytoplasmic membranes and targets intracellular organelles, and being an antioxidant, scavenges reactive oxygen species, such as hydroxyl radical and peroxynitrite. This decreases oxidative stress, prevents cellular damage, reduces inflammatory responses, and inhibits apoptosis.6, 7, 8 The benefits of hydrogen use have been evaluated in conditions such as diabetes, cardiac disease, neuronal disease, hepatic injury, radiation-induced disease, and many more conditions.9

Diabetes and Metabolic Syndrome

One of the first documented human studies on hydrogen-rich water was conducted in 2008. An experimental drink was produced by dissolving hydrogen gas into water under high pressure. It was used for patients with type 2 diabetes or impaired glucose intolerance. Several biomarkers of oxidative stress, insulin resistance, and glucose metabolism, assessed by an oral glucose tolerance test, were evaluated at baseline and at 8 weeks. Intake of hydrogen-rich water was associated with significant decreases in the levels of modified low-density lipoprotein (LDL) cholesterol, small dense LDL, and urinary 8-isoprostanes by 15.5%, 5.7%, and 6.6%, respectively. Hydrogen-rich water intake was also associated with a trend of decreased serum concentrations of oxidized LDL and free fatty acids, and increased plasma levels of adiponectin and extracellular-superoxide dismutase. In 4 of 6 patients with IGT, intake of hydrogen-rich water normalized the oral glucose tolerance test. In conclusion, these results suggest that supplementation with hydrogen-rich water may have a beneficial role in prevention of T2DM and insulin resistance.10

Liver Disease

HRW effect on improving liver function has been shown to aid in the excretion of toxins from the liver to the bile and promote their fecal excretion by enhancing the efflux pumps of Mrp2 and p-glycoprotein. It can also reduce fat accumulation in the liver, mitigating fatty liver disease. A 2013 study was performed on patients with chronic hepatitis B. Subjects were administered hydrogen-rich water (1200–1800 mL/day, twice daily). Compared with controls, patients with chronic hepatitis B exhibited elevated oxidative stress and significantly impaired liver function. After treatment, the oxidative stress remained unchanged in the routine treatment group, but markedly improved in the hydrogen treatment group. The liver function was improved significantly and the HBV DNA reduced markedly after corresponding treatments. Although a significant difference was noted in the oxidative stress between the two groups after treatment, the liver function and HBV DNA level were comparable after treatment and both had improved tendencies.11 A double-blind, placebo-controlled, 8-week study in 2022 was conducted on non-alcoholic fatty liver disease using HRW. Liver dysfunction is associated with inflammation, oxidative stress, and aberrant cellular signaling. This study demonstrated that HRW significantly reduced nonalcoholic fatty liver disease (NAFLD).12

Physical Performance and Endurance

HRW has garnered significant interest within the sports and exercise science community. The benefit of HRW pre-ingestion on aerobic performance is that H2 appears to be a neuroprotective agent that facilitates the restoration of neuronal oxidative damage. Hydrogen-rich water has also been investigated for its antioxidant effects during strenuous exercise, including its potential to reduce oxidative stress, influence blood lactate levels, improve muscle function, and alleviate perceived muscle discomfort. A 2019 study demonstrated its potential to provide health benefits like enhanced physical performance and recovery. They concluded: endurance and fatigue were significantly improved in the H2 group as judged by maximal oxygen consumption and Borg’s scale, respectively. Taken together, drinking H2 water just before exercise exhibited anti-fatigue and endurance effects.13 A 2024 study concluded that eight days of intermittent HRW intake could significantly improve muscular endurance performance in trained individuals, making it a promising strategy for athletes or fitness enthusiasts looking to boost muscular endurance during resistance training or competitions. However, it should be noted that HRW intake alone may not be adequate to accelerate recovery from muscle soreness or fatigue following high-intensity training.14

Cardiovascular

Molecular hydrogen (H2) is emerging as a potential therapeutic gas that may protect the heart and blood vessels by reducing oxidative stress and inflammation. The effects of H2 on cardiovascular disease have been studied, and research suggests that hydrogen has many benefits. H2 controls signal transduction and gene expression, suppressing pro-inflammatory cytokines and decreasing reactive oxygen species production. It also leads to the activation of the nuclear factor erythroid 2-related factor 2 (Nrf2) antioxidant transcription factor.15 Nuclear factor erythroid 2-related factor 2 (Nrf2) is an important regulator of cellular antioxidant defenses and helps maintain cellular integrity, particularly under conditions of oxidative stress. Molecular hydrogen activates nuclear factor erythroid 2-related factor 2 pathway that promotes innate antioxidants and reduction of apoptosis, as well as inflammation.16 Generally, studies show that vascular aging can be suppressed by HRW. A 2020 study demonstrated the consumption of HRW could relieve symptoms in patients with unstable angina, additionally, the HRW group was noted to have lower total cholesterol, apoB, and LDL-C levels compared to the control group.17 A 2012 study showed that drinking HRW protects cardiac and aortic allograft recipients from inflammation-associated deterioration. They concluded Hydrogen treatment was associated with increased graft ATP levels and increased activity of the enzymes in mitochondrial respiratory chain. Drinking HW prolongs survival of cardiac allografts and reduces intimal hyperplasia of aortic allografts.18

Inflammation

Inflammation and oxidative stress are concurrent and intricately linked processes in pathophysiology, with one often triggering the other. Several studies have demonstrated that the consumption of HRW suppresses the elevation of inflammatory cytokines and oxidative stress. Specifically, HRW administration has been shown to suppress proinflammatory cytokines such as interleukin (IL)-1β, IL-6, and TNF-α, as well as excessive oxidative stress and calcium-binding protein overexpression, which generates neutrophils, monocytes, and dendritic cells during inflammation. A 2020 randomized, double-blind, controlled trial showed that HRW could reduce inflammatory responses in adults, leading to increased antioxidant capacity in healthy adults. They concluded transcriptional networks of inflammatory responses and NF-κB signaling were significantly down-regulated in the HW group. These findings suggest HW increases antioxidant capacity thereby reducing inflammatory responses in healthy adults.19

Cancer Research and Supportive Care

As medical science continues to advance, molecular hydrogen has started to find its way into oncology. Some of the more promising areas of HRW research involve its potential benefits for patients with cancer. The National Cancer Institute classifies hydrogen-rich water as a nutritional supplement, that has “potential preventive, antioxidant, anti-inflammatory and radiation protective activities.” Several studies have been performed using HRW with and without chemotherapy. A 2022 study showed that HRW, with or without 5-fluorouracil (5-FU), may serve as a therapeutic for treating colorectal cancer. In this preclinical colorectal cancer xenograft model, hydrogen-rich water was associated with a reduction in tumor size.20

A systematic review was conducted to see molecular hydrogen’s effect as an adjunctive therapy for cancer treatment. A total of 677 articles were reviewed, and 27 were selected for final review. Hydrogen was noted to have potential in treatment, overall prognosis, quality of life, and tumor reduction.21

Mental Health

Mental health is another area of medicine in which HRW has shown benefits. This is because HRW can reinforce quality of life through effects that increase central nervous system functions involving mood, anxiety, and autonomic nerve function.

A 2018 study showed that subjects who drank HRW for 4 weeks had improvement in anxiety, overall mood and autonomic nerve function.22

A 2022 study was performed on women with panic disorder. The results show that the treatment group was not significantly better than the control group. But there was a further reduction in measured pro-inflammatory cytokine scores, improving body pain and physical health. When between-group treatment effects were removed, psychological treatment significantly decreased measured variables, including cytokines and cortisol. The results support the presence of a maladaptive inflammatory process in women with panic disorder.23

Antiaging

Lastly, because HRW has been shown to improve cardiovascular diseases, neurodegenerative disorders, and even cancer, it is considered an anti-aging therapy.

A 2021 study was performed to assess the effects of HRW in individuals above the age of 70, and whether it affected aging. It was found that drinking HRW for 6 months was harmless and had a favorable effect on many of the factors associated with aging, like pain, metabolic processes in the brain, strength in the lower extremities.24 Another study showed that HRW has long-lasting antioxidant and anti-aging effects on vascular endothelial cells through the Nrf2 pathway, even after transient exposure to H2. They concluded that HRW may thus be a functional drink that increases longevity.25

Safety

Hydrogen water is generally considered safe. Bear in mind that there is no universally agreed clinical “dose” of HRW for general wellness. Most studies vary widely in how much participants drink and the hydrogen concentration (often reported as ppb). Always remember that moderation is key with anything.

Conclusion

Hydrogen-rich water represents an intriguing approach to supporting health because its potential benefits appear to extend beyond simply neutralizing oxidative free radicals. Research suggests that molecular hydrogen may influence biological pathways involved in oxidative stress, inflammation, mitochondrial function, metabolic regulation, cardiovascular and neurological health, and healthy aging. Although clinical evidence continues to evolve, these diverse effects point toward something particularly relevant from a bioregulatory perspective: hydrogen may help support the body's inherent ability to maintain balance and respond appropriately to physiological stress.

Bioregulatory medicine recognizes that health is not merely the absence of disease, but the capacity of the organism to regulate, adapt, repair, and regenerate. Oxidative stress and inflammation are not inherently harmful; both are essential physiological processes when appropriately regulated. Problems arise when these responses become excessive, persistent, or poorly controlled. Rather than indiscriminately suppressing these processes, molecular hydrogen appears to interact with cellular signaling and endogenous antioxidant systems—including pathways such as Nrf2—that help the body regulate its own response to oxidative and inflammatory stress.

This distinction is important. The potential value of HRW may lie less in functioning as a conventional antioxidant and more in its ability to support redox homeostasis—the dynamic balance between oxidation and reduction that allows cells to communicate, produce energy, respond to stress, and repair themselves. Its small molecular size allows H₂ to diffuse rapidly through biological membranes and reach cellular compartments that many larger molecules cannot easily access.

From a bioregulatory standpoint, molecular hydrogen is therefore particularly compelling because it does not appear to force a single biochemical outcome. Instead, emerging research suggests that it may influence multiple interconnected regulatory networks, including mitochondrial function, inflammatory signaling, cellular stress responses, and endogenous antioxidant defenses. In this sense, HRW may be better understood not simply as “antioxidant water,” but as a potential tool for supporting the terrain in which normal regulation and self-healing occur.

Hydrogen-rich water is not a cure-all, nor should it replace appropriate medical evaluation or treatment. Human studies remain relatively small, and protocols vary considerably in hydrogen concentration, duration, and dosing. Larger and more rigorous clinical trials are needed to establish where HRW offers meaningful therapeutic benefit.

Nevertheless, molecular hydrogen provides a fascinating example of an emerging principle in medicine: sometimes the most effective way to support health may not be to overpower physiology, but to help restore the conditions that allow the body to regulate itself. As research continues, hydrogen-rich water may ultimately prove valuable not because it treats any single disease, but because of its potential to support some of the fundamental regulatory processes upon which health, resilience, adaptation, and regeneration depend.

References

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