Close Menu
    Facebook X (Twitter) Instagram
    SciTechDaily
    • Biology
    • Chemistry
    • Earth
    • Health
    • Physics
    • Science
    • Space
    • Technology
    Facebook X (Twitter) Pinterest YouTube RSS
    SciTechDaily
    Home»Biology»Research Reveals Specific Molecular Mechanism That Controls Transition From Acute to Chronic Pain
    Biology

    Research Reveals Specific Molecular Mechanism That Controls Transition From Acute to Chronic Pain

    By University of California - IrvineOctober 22, 2021No Comments3 Mins Read
    Facebook Twitter Pinterest Telegram LinkedIn WhatsApp Email Reddit
    Share
    Facebook Twitter LinkedIn Pinterest Telegram Email Reddit
    Abstract Pain Concept
    A study pinpoints a molecular mechanism governing the shift from acute to chronic pain and highlights it as a crucial target for disease-modifying medications.

    Previously unrecognized control point identified as target for drugs that block transition.

    A new study led by University of California, Irvine researchers is the first to reveal the specific molecular mechanism that controls the transition from acute to chronic pain, and identifies this mechanism as a critical target for disease-modifying medicines.

    Findings from the study, titled “NAAA-regulated lipid signaling governs the transition from acute to chronic pain,” published today (October 22, 2021) in Science Advances, show that disabling N-acylethanolamine acid amidase (NAAA)—an intracellular enzyme–in the spinal cord during a 72-hour time window following peripheral tissue injury halts chronic pain development in male and female mice.

    Daniele Piomelli
    “This study is the first to identify that NAAA, a previously unrecognized control node, can be effectively targeted by small-molecule therapeutics that inhibit this enzyme, and block the transition from acute to chronic pain,” said Daniele Piomelli, PhD, Distinguished Professor in the UCI School of Medicine Department of Anatomy & Neurobiology. Credit: UCI School of Medicine

    NAAA Identified as a New Therapeutic Target

    “Delineating the nature, localization, and timing of the events involved in pain chronicity is necessary to pinpointing control nodes in the process that can be targeted by new classes of disease-modifying medicines beyond analgesics,” said Daniele Piomelli, Distinguished Professor in the UCI School of Medicine Department of Anatomy & Neurobiology. “This study is the first to identify that NAAA, a previously unrecognized control node, can be effectively targeted by small-molecule therapeutics that inhibit this enzyme, and block the transition from acute to chronic pain.”

    Chronic pain evolves from acute pain caused by the physical trauma of tissue damage due to surgery or injury and is a massive problem, affecting more than 1.5 billion people worldwide. Chronic pain continues long past tissue healing, is often resistant to therapy, and remains seriously undertreated. Treatment is largely dependent on a handful of analgesic drug classes such as opioids, which may lose effectiveness over time and can also lead to addiction. Nerve damage is considered to be a critical factor in the transition to chronic pain, but the underlying molecular events leading to its emergence have been poorly understood.

    “Our findings suggest a new class of drugs – NAAA inhibitors – can be used to treat various forms of chronic pain and in preventing incisional and inflammatory injuries following surgery,” Piomelli said.

    Reference: “NAAA-regulated lipid signaling governs the transition from acute to chronic pain” by
    Yannick Fotio, Kwang-Mook Jung, Francesca Palese, Andre Obenaus, Alex Mabou Tagne, Lin Lin, Tarif Ibne Rashid, Romario Pacheco, Amandine Jullienne, Jade Ramirez, Marco Mor, Gilberto Spadoni, Cholsoon Jang, Andrea G. Hohmann and Daniele Piomelli, 22 October 2021, Science Advances.
    DOI: 10.1126/sciadv.abi8834

    This work was funded by grants R41NS106999, R42DA033683 and DA041229 from the National Institutes of Health.

    Never miss a breakthrough: Join the SciTechDaily newsletter.
    Follow us on Google and Google News.

    Chronic Pain Molecular Biology UC Irvine
    Share. Facebook Twitter Pinterest LinkedIn Email Reddit

    Related Articles

    Tarantula Toxin Attacks With Molecular Stinger – May Hold Answers to Better Control of Chronic Pain

    Brain Mechanism Linking Chronic Pain and Depression Identified

    Molecular and Statistical Tools Analyze Complex Differences Between Genomes

    Biochemical Systems That Modulate the Levels of Plant Hormones

    Transgenic Mosquitoes Can’t Transmit Malaria

    A Step Towards Understanding the Cellular Basis for Age-Related Vulnerability to Breast Cancer

    Viruses Attack Mitochondria to Travel and Spread Within the Nervous System

    Sirtuin Protein SIRT6 Linked to Longevity in Mammals

    Molecular Motor Dynein Exhibits Strut Like Movement

    Leave A Reply Cancel Reply

    • Facebook
    • Twitter
    • Pinterest
    • YouTube

    Don't Miss a Discovery

    Subscribe for the Latest in Science & Tech!

    Trending News

    A Star Near the Milky Way’s Black Hole Is Losing Mass at an Astonishing Rate

    Scientists Solve a Vitamin B12 Mystery With an Unexpected Culprit

    Has the Autism Spectrum Become Too Broad? Leading Scientist Warns of Hidden Consequences

    Rewriting History: Researchers Uncover a Forgotten Amazon Civilization That May Have Housed 3 Million People

    New Research May Change How We Think About Weight Loss Drugs Like Ozempic

    Coffee Drinkers Show Surprising Differences in Fat, Muscle, and Hormones

    New Treatment Targets Gum Disease Without Killing Good Bacteria

    Scientists Discover a 245-Million-Year-Old Reptile With Its Organs Still Preserved

    Follow SciTechDaily
    • Facebook
    • Twitter
    • YouTube
    • Pinterest
    • Newsletter
    • RSS
    SciTech News
    • Biology News
    • Chemistry News
    • Earth News
    • Health News
    • Physics News
    • Science News
    • Space News
    • Technology News
    Recent Posts
    • Scientists Spotted This Mysterious Congo Monkey 18 Years Ago – Now They Finally Know What It Is
    • Why Does an Irregular Heartbeat Strike 40 Years Early in Some People?
    • Scientists Reveal How ADHD Could Fuel Creative Thinking
    • Scientists Find a Surprising Diabetes-Fighting Compound in Turmeric
    • Archaeologists Discover a 10,000-Year Human History Hidden in the Pyrenees
    Copyright © 1998 - 2026 SciTechDaily. All Rights Reserved.
    • Science News
    • About
    • Contact
    • Editorial Board
    • Privacy Policy
    • Terms of Use

    Type above and press Enter to search. Press Esc to cancel.