Hydrogen Research Study
← Back to Research Library
Laboratory or cellular evidenceLaboratory StudyOther or not reported

Inhalation of high-concentration hydrogen gas attenuates cognitive deficits in a rat model of asphyxia induced-cardiac arrest.

Lei Huang, Richard L Applegate Ii, Patricia M Applegate, Lei Gong, Umut Ocak, Warren Boling, John H Zhang · Medical gas research · 2019

Research-use notice

Independent study record

Each H2HUBB study page organizes source-linked research details for educational use. Interpretation should remain proportional to the study design, population, controls, and limitations.

H2HUBB Research Library branded molecular hydrogen research image
Primary topic Cardiovascular Health
Evidence type Laboratory or cellular evidence
Publication type Laboratory Study
Hydrogen method Other or not reported

H2HUBB TAKEAWAY

In Neuronal degeneration within hippocampal Cornu Ammonis 1 (CA1) regions was examined by Fluoro-Jade staining ex vivo, both hydrogen gas treatment regimens significantly improved spatial learning function and attenuated neuronal degeneration within hippocampal CA1 regions at 18 days post-resuscitation. These findings come from a laboratory model and suggest molecular hydrogen's biological potential. Further research is needed to determine clinical relevance.

What the Researchers Tested

Neuronal degeneration within hippocampal Cornu Ammonis 1 (CA1) regions was examined by Fluoro-Jade staining ex vivo.

Laboratory Model

Neuronal degeneration within hippocampal Cornu Ammonis 1 (CA1) regions was examined by Fluoro-Jade staining ex vivo.

How Molecular Hydrogen Was Used

Water electrolysis derived 67% hydrogen gas was either administered 1 hour prior to cardiac arrest for 1 hour and at 1-hour post-resuscitation for 1 hour (pre- & post-treatment) or at 1-hour post-resuscitation for 2 hours (post-treatment).

What Molecular Hydrogen Changed

Both hydrogen gas treatment regimens significantly improved spatial learning function and attenuated neuronal degeneration within hippocampal CA1 regions at 18 days post-resuscitation.

H₂ Mechanisms / Biological Findings

The source material reviewed did not establish a specific molecular hydrogen mechanism for the reported findings.

Authors’ Conclusion

The authors concluded that water electrolysis derived 67% hydrogen gas may be an effective therapeutic approach for improving cognitive outcomes associated with global brain hypoxia-ischemia following cardiac arrest.