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Melatonin and Mitochondrial Function:Insights into Bioenergetics,Dynamics,and Gene RegulationOA

中文摘要

Mitochondria are central regulators of cellular energy metabolism,redox balance,and survival,and their dysfunction contributes to neurodegenerative,cardiovascular,and metabolic diseases,as well as aging.Beyond its role as a circadian hormone,melatonin is now recognized as a key modulator of mitochondrial physiology.This review provides an overview of the mechanisms by which melatonin can preserve mitochondrial function through multifaceted mechanisms.Experimental evidence shows that melatonin enhances the activity of electron transport chain(ETC)complexes,stabilizes the mitochondrial membrane potential(Δψ),and prevents cardiolipin(CL)peroxidation,thereby limiting permeability transition pore(mPTP)opening and cytochrome c release.Through its direct radical scavenging capacity and the upregulation of mitochondrial antioxidant defenses,melatonin protects against oxidative stress(OS)and preserves mitochondrial DNA integrity.Melatonin also regulates mitochondrial dynamics by promoting fusion,restraining excessive fission,and supporting quality control mechanisms such as mitophagy,unfolded protein response(UPR),and proteostasis.Moreover,melatonin influences mitochondrial biogenesis and intercellular communication through tunneling nanotubes(TNTs)and mitokine signaling.Thus,melatonin may represent a promising multifaceted therapeutic strategy for preserving mitochondrial homeostasis in a range of pathological conditions,including neurodegeneration and cardiovascular and metabolic diseases.However,a significant translational gap still remains between the promising preclinical data and the established clinical practice.Therefore,the aim of this review is to provide a comprehensive synthesis of current knowledge on the mechanisms through which melatonin modulates mitochondrial function and to discuss its potential therapeutic implications in neurodegenerative,cardiovascular,and metabolic diseases.

Silvia Carloni;Maria Gemma Nasoni;Serafina Perrone;Erik Bargagni;Carla Gentile;Walter Manucha;Russel JReiter;Francesca Luchetti;Walter Balduini

Department of Biomolecular Sciences,University of Urbino Carlo Bo,Urbino,61029,ItalyDepartment of Biomolecular Sciences,University of Urbino Carlo Bo,Urbino,61029,ItalyDepartment of Medicine and Surgery,University of Parma,Parma,43125,ItalyDepartment of Biomolecular Sciences,University of Urbino Carlo Bo,Urbino,61029,ItalyDepartment of Biological,Chemical,and Pharmaceutical Sciences and Technologies,University of Palermo,Palermo,90128,ItalyInstituto de Medicina y Biologia Experimental de Cuyo(IMBECU),Consejo Nacional de Investigaciones Cientificas y Tecnologicas(CONICET),Mendoza,5500,ArgentinaDepartment of Cell Systems and Anatomy,UT Health San Antonio,Long School of Medicine,San Antonio,TX 78229,USADepartment of Biomolecular Sciences,University of Urbino Carlo Bo,Urbino,61029,ItalyDepartment of Biomolecular Sciences,University of Urbino Carlo Bo,Urbino,61029,Italy

医药卫生

Melatoninmitochondrial bioenergeticsmitochondrial dynamicsoxidative stresstunneling nanotubesmitokines

《BIOCELL》 2026 (2)

P.1-22,22

10.32604/biocell.2025.073776

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