Skip to content
Recovery & Performance PeptidesRecovery research and practical context
Source comparison

BPC-157 Fibromyalgia Research Mechanism: Comparison

Angiogenesis (VEGF pathway) Upregulates VEGF-A, increases capillary density by 38% in ischaemic tissue (rodent) Reduced capillary density, elevated endothelin-1, impaired microvascular perfusion Preclinical only. No human FM trials High plausibility. Microvasc

This comparison does not assign a generated winner or score.

  • Angiogenesis (VEGF pathway)
  • Upregulates VEGF-A, increases capillary density by 38% in ischaemic tissue (rodent)
  • Reduced capillary density, elevated endothelin-1, impaired microvascular perfusion
  • Preclinical only. No human FM trials
  • High plausibility. Microvascular insufficiency is documented in FM
  • Mechanistically sound but untested in FM patients. Promising first-line candidate for investigational trials.
  • Neuroinflammatory suppression
  • Reduces TNF-α by 47%, IL-6 by 52% in colitis models; modulates NF-κB transcription
  • Elevated CNS cytokines, sustained glial activation, central sensitisation
  • Preclinical. Acute inflammation models only
  • Moderate plausibility. FM is chronic, not acute
  • Anti-inflammatory effects are robust in injury models. Translating to chronic FM requires long-term dosing studies.
  • Nitric oxide stabilisation
  • Enhances eNOS activity, reduces peroxynitrite damage by 34%
  • Paradoxically elevated NO metabolites, oxidative stress markers
  • Preclinical. Oxidative stress models
  • Moderate plausibility. NO dysregulation confirmed but complex
  • BPC-157 stabilises NO, not just boosts it. Could address FM's paradoxical NO profile. Hypothesis needs testing.
  • Nerve regeneration (neurotrophic)
  • Accelerates peripheral nerve healing, increases Schwann cell proliferation
  • No documented nerve damage in FM (functional pain only)
  • Preclinical. Peripheral nerve injury models
  • Low plausibility. FM lacks structural nerve lesions
  • Mechanism is real but may not address FM's core dysfunction. More relevant for neuropathic pain conditions.
  • GABAergic modulation
  • Potentiates GABA-B receptor signalling in some injury models
  • Reduced GABAergic inhibition implicated in FM pain amplification
  • Speculative. Limited data
  • Low plausibility. Evidence is indirect
  • Interesting but under-researched. Not a primary mechanism for BPC-157.
More references

Related material