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  4. The future of artificial hibernation medicine: protection of nerves and organs after spinal cord injury

The future of artificial hibernation medicine: protection of nerves and organs after spinal cord injury

Neural Regen Res, 2024 · DOI: https://doi.org/10.4103/1673-5374.375305 · Published: May 31, 2023

Spinal Cord InjuryPhysiologyNeurology

Simple Explanation

Spinal cord injury (SCI) is a serious condition affecting the central nervous system, often leading to irreversible nerve damage and multiple organ system injuries, with limited effective clinical treatments currently available. Artificial hibernation technologies, including mild hypothermia, hibernation inducers, and central neuromodulation, have shown promise in protecting nerves and organs after SCI by reducing inflammation, suppressing the immune system, and defending against oxidative stress. The exploration of artificial hibernation mechanisms may lead to the development of more clinically suitable treatment strategies compared to mild hypothermia, offering new possibilities for nerve and multi-organ protection after SCI.

Study Duration
Not specified
Participants
103 SCI patients
Evidence Level
Meta-analysis of clinical studies

Key Findings

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    Artificial hibernation technologies have therapeutic significance on nerve injury after spinal cord injury through inflammatory inhibition, immunosuppression, oxidative defense, and possible central protection.
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    Mild hypothermia can provide neuroprotection in rat spinal cord tissue after SCI by inhibiting apoptosis and autophagy, inhibiting the Toll-like receptor 4/nuclear factor-κB pathway, and promoting microglia M2 polarization.
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    Hibernation-induced immunosuppression may provide a period of “inflammatory quiescence” and delay the process of injury, which is of great significance for the protection of organs and tissues in the environment of the “inflammatory storm.”

Research Summary

This review introduces artificial hibernation technologies, including mild hypothermia technology, hibernation inducers, and hibernation-related central neuromodulation technology. These studies show that artificial hibernation technologies have therapeutic significance on nerve injury after spinal cord injury through inflammatory inhibition, immunosuppression, oxidative defense, and possible central protection. Artificial hibernation protects nerve cells by reducing body temperature, inhibiting the inflammatory reaction, inducing an immunosuppressive state, and forming an oxidation defense system; it may also produce central-related neuroprotective substances directly acting on injured nerves.

Practical Implications

Clinical Treatment Strategies

Artificial hibernation techniques offer new avenues for treating nerve and organ damage following spinal cord injury, potentially improving patient outcomes.

Drug Development

Identifying and producing endogenous hibernation-inducing substances suitable for humans could revolutionize treatment approaches for various conditions.

Organ Preservation

Studying the protective mechanisms of hibernation in animals could lead to advancements in organ preservation techniques, benefiting transplantation medicine.

Study Limitations

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