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Therapeutic Potential of Fungally Derived Psilocybin Extract in Morphine-Dependent Mice: A Research Protocol

Linda Nguyen, Sona Regonda, Adam Gaisinsky

Undergraduate Research in Natural and Clinical Science and Technology (URNCST) Journal June 10, 2024 DOI: 10.26685/urncst.588 via OpenAlex

Summary

AI-generated from the abstract

Psilocybin, a naturally occurring psychedelic compound from Psilocybe fungi, is a serotonin 2A receptor agonist that affects neural plasticity and cognition. The authors propose a study to test whether psilocybin reduces morphine consumption and withdrawal symptoms in morphine-dependent mice, comparing its effects to methadone. They hypothesize that psilocybin will decrease morphine intake in a dose-dependent manner and minimize withdrawal behaviors, potentially offering a cheaper, less dependence-forming alternative for treating opioid addiction. The study uses mouse models with intraperitoneal injection, and future research might explore oral administration.

Study at a glance

Characteristics Proposed study (preclinical animal experiment) Peer reviewed
Population Morphine-dependent mice
Interventions Psilocybin Methadone
Topics Addiction Psilocybin
Keywords Hallucinogen Morphine Pharmacology
Key finding The authors hypothesize that psilocybin will reduce morphine consumption and withdrawal symptoms in dependent mice to levels similar to methadone.

Abstract

Introduction: Psilocybin is a naturally occurring tryptamine derivative psychedelic compound potently produced by fungi members of the genus Psilocybe. Previous literature has highlighted psilocybin as a serotonin 2A receptor agonist with striking effects on neural plasticity and cognition. Recent studies explore the usage of psilocybin in addressing addictive behaviours and substance abuse. Small psilocybin doses have shown promising anti-addictive and withdrawal-minimizing properties in alcohol-dependent mice. This study will further investigate this emerging field through a novel lens. We propose a novel study to elucidate psylobicin’s effect on opioid addiction in mouse models. Methods: Morphine-dependent mice will be administered either saline vehicle or differing doses of psilocybin during a morphine-available period to monitor consumption. Though mechanistically ambiguous, psilocybin’s hypothesized entry into serotonin-dependent stress-conciliating pathways supports the hypothesis that mean morphine consumption will decrease in a dose-dependent manner to similar levels to popular opioid receptor agonist therapeutics, such as methadone. Furthermore, we will examine psilocybin's impact on withdrawal behaviour. After morphine deprival on dependent mice, sustained doses of psilocybin, methadone, and positive and negative controls will be administered. Results: By analyzing stress-indicative behaviours in mice, the efficacy of psilocybin as a withdrawal assistance agent can be elucidated. Results from the morphine-dependent mice are expected to consume less morphine than controls, and minimize withdrawal symptoms at a similar level to popular therapeutic options like methadone. Discussion: If successful, psilocybin’s anti-addictive potential will help provide a cheaper, more accessible therapeutic option in addressing the growing opioid crisis. Furthermore, controlled psilocybin dosages have been shown to have lesser dependence potential compared to modern opioid addiction therapeutics. Conclusion: This study’s novel approach will provide meaningful support in exploring the growing field of mycology and its potential to address other substance use disorders. Future research may explore outside the limitations of the mouse model, like the oral administration of the compounds rather than intraperitoneal injection.

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