Green Light Antinociceptive and Reversal of Thermal and Mechanical Hypersensitivity Effects Rely on Endogenous Opioid System Stimulation

•Green light reverses hypersensitivity associated with HIV-related neuropathy.•Green light increased the CSF levels of β-endorphin and proenkephalin.•Mu- and δ-opioid receptors are required for green light-mediated antinociception. Benefits of phototherapy were characterized in multiple diseases inc...

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Veröffentlicht in:The journal of pain 2021-12, Vol.22 (12), p.1646-1656
Hauptverfasser: Martin, Laurent F., Moutal, Aubin, Cheng, Kevin, Washington, Stephanie M., Calligaro, Hugo, Goel, Vasudha, Kranz, Tracy, Largent-Milnes, Tally M., Khanna, Rajesh, Patwardhan, Amol, Ibrahim, Mohab M.
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container_end_page 1656
container_issue 12
container_start_page 1646
container_title The journal of pain
container_volume 22
creator Martin, Laurent F.
Moutal, Aubin
Cheng, Kevin
Washington, Stephanie M.
Calligaro, Hugo
Goel, Vasudha
Kranz, Tracy
Largent-Milnes, Tally M.
Khanna, Rajesh
Patwardhan, Amol
Ibrahim, Mohab M.
description •Green light reverses hypersensitivity associated with HIV-related neuropathy.•Green light increased the CSF levels of β-endorphin and proenkephalin.•Mu- and δ-opioid receptors are required for green light-mediated antinociception. Benefits of phototherapy were characterized in multiple diseases including depression, circadian rhythm disruptions, and neurodegeneration. Studies on migraine and fibromyalgia patients revealed that green light-emitting diodes (GLED) exposure provides a pragmatic and safe therapy to manage chronic pain. In rodents, GLED reversed hypersensitivity related to neuropathic pain. However, little is known about the underlying mechanisms of GLED efficacy. Here, we sought to understand how green light modulates the endogenous opioid system. We first characterized how exposure to GLED stimulates release of β-endorphin and proenkephalin in the central nervous system of male rats. Moreover, by individually editing each of the receptors, we found that µ- and δ-opioid receptors are required for green light's antinociceptive effect in naïve rats and a model of HIV-induced peripheral neuropathy. We investigated how GLED could increase pain thresholds, and explored its potential in reversing hypersensitivity in a model of HIV-related neuropathy. Through behavioral and gene editing approaches, we identified that green light provides antinociception via modulation of the endogenous opioid system in the spinal cord. This work identifies a previously unknown mechanism by which GLED can improve pain management. Clinical translation of these results will advance the development of an innovative therapy devoid of adverse effects. Development of new pain management therapies, especially for HIV patients, is crucial as long-term opioid prescription is not recommended due to adverse side effects. Green light addresses this necessity. Characterizing the underlying mechanisms of this potentially groundbreaking and safe antinociceptive therapy will advance its clinical translation.
doi_str_mv 10.1016/j.jpain.2021.05.006
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subjects Animals
beta-Endorphin - metabolism
Disease Models, Animal
endogenous opioids
Enkephalins - metabolism
GP120
green light
Male
Neuralgia - metabolism
Neuralgia - therapy
neuropathic pain
Phototherapy
Protein Precursors - metabolism
Rats
Spinal Cord - metabolism
title Green Light Antinociceptive and Reversal of Thermal and Mechanical Hypersensitivity Effects Rely on Endogenous Opioid System Stimulation
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