Can hydrogen water protect the liver from acetaminophen damage?

Yes, this study showed hydrogen-rich water significantly protected mice from acetaminophen-induced liver damage. It increased survival rates from 27% to 60% and reduced liver damage markers by significant amounts.

How does hydrogen water help with liver injury?

Hydrogen water works through multiple mechanisms including reducing oxidative stress, decreasing inflammation, boosting antioxidant enzymes, and promoting liver cell regeneration. It helps the liver heal itself while protecting against further damage.

What liver damage markers improved with hydrogen treatment?

Hydrogen water significantly reduced ALT and AST enzymes, alkaline phosphatase, bilirubin, and lactate dehydrogenase levels. It also decreased the percentage of liver tissue death from 37% to 28%.

Is hydrogen water safe for liver patients?

In this animal study, hydrogen water showed no adverse effects and only beneficial outcomes for liver protection. However, human studies would be needed to confirm safety and effectiveness in liver patients.

How much hydrogen water was used in this liver study?

Mice received hydrogen-rich water at 5 mL/kg body weight twice daily for three days after acetaminophen injection. The exact hydrogen concentration wasn't specified in the study details provided.

Hydrogen Water Protects Liver from Acetaminophen Damage in Mice

Authors: Jing-Yao Zhang
Journal: World Journal of Gastroenterology
Year: 2015
DOI: 10.3748/wjg.v21.i14.4195
Study Type: Mouse
Outcome: Positive
Peer Reviewed: Yes
Country: China
Health Condition: Acetaminophen-Induced Hepatotoxicity
Body System: Hepatic

TL;DR

Drinking hydrogen-rich water (HRW) significantly helps mice recover from liver damage caused by an overdose of acetaminophen, a common painkiller.

Key Finding

Mice treated with hydrogen-rich water after acetaminophen overdose had a 60% survival rate compared to 27% in untreated mice, along with significantly reduced liver damage markers and tissue injury.

Summary

Researchers gave mice acetaminophen (a common pain reliever) in doses that damage the liver, then treated some mice with hydrogen-rich water while others received regular water. Mice that received hydrogen-rich water had better survival rates, less liver damage, and lower levels of harmful substances in their blood compared to untreated mice. The hydrogen-rich water appeared to work by reducing harmful chemical reactions in liver cells and decreasing inflammation.

Practical Takeaway

This mouse study suggests hydrogen-rich water may help protect the liver from acetaminophen damage, but these results cannot yet be applied to humans. Much more research, including human trials, would be needed before hydrogen-rich water could be considered a treatment for drug-induced liver injury.

Abstract

Aim: To investigate the hepatoprotective effects and mechanisms of hydrogen-rich water (HRW) in acetaminophen (APAP)-induced liver injury in mice. Methods: Male mice were randomly divided into the following four groups: normal saline (NS) control group, mice received equivalent volumes of NS intraperitoneally (ip); HRW control group, mice were given HRW (same volume as the NS group); APAP + NS group, mice received NS ip for 3 d (5 mL/kg body weight, twice a day at 8 am and 5 pm) after APAP injection; APAP + HRW group, mice received HRW for 3 d (same as NS treatment) after APAP challenge. In the first experiment, mice were injected ip with a lethal dose of 750 mg/kg APAP to determine the 5-d survival rates. In the second experiment, mice were injected ip with a sub-lethal dose of 500 mg/kg. Blood and liver samples were collected at 24, 48, and 72 h after APAP injection to determine the degree of liver injury. Results: Treatment with HRW resulted in a significant increase in the 5-d survival rate compared with the APAP + NS treatment group (60% vs 26.67%, P < 0.05). HRW could significantly decrease the serum alanine aminotransferase level (24 h: 4442 ± 714.3 U/L vs 6909 ± 304.8 U/L, P < 0.01; 48 h: 3782 ± 557.5 U/L vs 5111 ± 404 U/L, P < 0.01; and 3255 ± 337.4 U/L vs 3814 ± 250.2 U/L, P < 0.05, respectively) and aspartate aminotransferase level (24 h: 4683 ± 443.4 U/L vs 5307 ± 408.4 U/L, P < 0.05; 48 h: 3392 ± 377.6 U/L vs 4458 ± 423.6 U/L, P < 0.01; and 3354 ± 399.4 U/L vs 3778 ± 358 U/L, respectively) compared with the APAP treatment group. The alkaline phosphatase, total bilirubin and lactate dehydrogenase levels had the same result. Seventy-two hours after APAP administration, liver samples were collected for pathological examination and serum was collected to detect the cytokine levels. The liver index (5.16% ± 0.26% vs 5.88% ± 0.073%, P < 0.05) and percentage of liver necrosis area (27.73% ± 0.58% vs 36.87% ± 0.49%, P < 0.01) were significantly lower in the HRW-treated animals. The malonyldialdehyde (MDA) contents were significantly reduced in the HRW pretreatment group, but they were increased in the APAP-treated group (10.44 ± 1.339 nmol/mg protein vs 16.70 ± 1.646 nmol/mg protein, P < 0.05). A decrease in superoxide dismutase (SOD) activity in the APAP treatment group and an increase of SOD in the HRW treatment group were also detected (9.74 ± 0.46 U/mg protein vs 12.1 ± 0.67 U/mg protein, P < 0.05). Furthermore, HRW could significantly increase the glutathione (GSH) contents (878.7 ± 76.73 mg/g protein vs 499.2 ± 48.87 mg/g protein) compared with the APAP treatment group. Meanwhile, HRW could reduce the inflammation level (serum TNF-α: 399.3 ± 45.50 pg/L vs 542.8 ± 22.38 pg/L, P < 0.05; and serum IL-6: 1056 ± 77.01 pg/L vs 1565 ± 42.11 pg/L, P < 0.01, respectively). In addition, HRW could inhibit 4-HNE, nitrotyrosine formation, JNK phosphorylation, connexin 32 and cytochrome P4502E expression. Simultaneously, HRW could facilitate hepatocyte mitosis to promote liver regeneration. Conclusion: HRW has significant therapeutic potential in APAP-induced hepatotoxicity by inhibiting oxidative stress and inflammation and promoting liver regeneration.