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The Identification of Human Translational Biomarkers of Neuropathic Pain and Cross-Species Validation Using an Animal Model

Neuropathic pain is a common chronic condition, which remains poorly understood. Many patients receiving treatment continue to experience severe pain, due to limited diagnostic/treatment management programmes. The development of objective clinical diagnostic/treatment strategies requires identificat...

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Published in:Molecular neurobiology 2023-03, Vol.60 (3), p.1179-1194
Main Authors: Young, Bethan, Stephenson, John, Islam, Barira, Burke, Nikita N., Jennings, Elaine M., Finn, David P., McHugh, Patrick C.
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container_title Molecular neurobiology
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creator Young, Bethan
Stephenson, John
Islam, Barira
Burke, Nikita N.
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Finn, David P.
McHugh, Patrick C.
description Neuropathic pain is a common chronic condition, which remains poorly understood. Many patients receiving treatment continue to experience severe pain, due to limited diagnostic/treatment management programmes. The development of objective clinical diagnostic/treatment strategies requires identification of robust biomarkers of neuropathic pain. To this end, we looked to identify biomarkers of chronic neuropathic pain by assessing gene expression profiles in an animal model of neuropathic pain, and differential gene expression in patients to determine the potential translatability. We demonstrated cross-species validation of several genes including those identified through bioinformatic analysis by assessing their expression in blood samples from neuropathic pain patients, according to conservative assessments of significance measured using Bonferroni-corrected p -values. These include CASP5 ( p  = 0.00226), CASP8 ( p  = 0.00587), CASP9 ( p  = 2.09 × 10 −9 ), FPR2 ( p  = 0.00278), SH3BGRL3 ( p  = 0.00633), and TMEM88 ( p  = 0.00038). A ROC analysis revealed several combinations of genes to show high levels of discriminatory power in the comparison of neuropathic pain patients and control participants, of which the combination SH3BGRL3 , TMEM88 , and CASP9 achieved the highest level (AUROC = 0.923). The CASP9 gene was found to be common in five combinations of three genes revealing the highest levels of discriminatory power. In contrast, the gene combination PLAC8 , ROMO1 , and A3GALT2 showed the highest levels of discriminatory power in the comparison of neuropathic pain and nociceptive pain (AUROC = 0.919), when patients were grouped by S-LANSS scores. Molecules that demonstrate an active role in neuropathic pain have the potential to be developed into a biological measure for objective diagnostic tests, or as novel drug targets for improved pain management.
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Many patients receiving treatment continue to experience severe pain, due to limited diagnostic/treatment management programmes. The development of objective clinical diagnostic/treatment strategies requires identification of robust biomarkers of neuropathic pain. To this end, we looked to identify biomarkers of chronic neuropathic pain by assessing gene expression profiles in an animal model of neuropathic pain, and differential gene expression in patients to determine the potential translatability. We demonstrated cross-species validation of several genes including those identified through bioinformatic analysis by assessing their expression in blood samples from neuropathic pain patients, according to conservative assessments of significance measured using Bonferroni-corrected p -values. These include CASP5 ( p  = 0.00226), CASP8 ( p  = 0.00587), CASP9 ( p  = 2.09 × 10 −9 ), FPR2 ( p  = 0.00278), SH3BGRL3 ( p  = 0.00633), and TMEM88 ( p  = 0.00038). 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subjects Adaptor Proteins, Signal Transducing
Animal models
Animals
Biomarkers
Biomedical and Life Sciences
Biomedicine
Cell Biology
Chronic Disease
Chronic illnesses
Gene expression
Humans
Membrane Proteins
Mitochondrial Proteins
Models, Animal
Neuralgia
Neuralgia - diagnosis
Neuralgia - genetics
Neuralgia - therapy
Neurobiology
Neurology
Neurosciences
Pain
Pain Measurement
Pain perception
Patients
Proteins
Therapeutic targets
title The Identification of Human Translational Biomarkers of Neuropathic Pain and Cross-Species Validation Using an Animal Model
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