ATP synthase F1 complex subunit gamma, mitochondrial (ATP5F1C)
Target
ATP5F1C
Molecular classification
Enzyme: Rotary molecular motor of the F-type ATP synthase, Other: Mitochondrial energy metabolism protein
01
Overview
ATP synthase F1 complex subunit gamma (ATP5F1C) is a nuclear-encoded mitochondrial protein forming the central rotor shaft of the ATP synthase holoenzyme. This subunit physically connects the F0 rotary motor embedded in the mitochondrial inner membrane to the F1 catalytic core, transmitting rotary motion driven by proton translocation to facilitate conformational changes in catalytic sites and enable ATP production. It is essential for cellular bioenergetics, with mutations linked to mitochondrial diseases and metabolic disorders. As an integral part of the catalytic machinery, it is a potential therapeutic target, although strategies must account for its fundamental role in cellular viability[1][2][3][4].
Other names
ATP synthase F(1) complex subunit gamma, mitochondrialATP synthase F1 subunit gammaATP5CATP5C1ATP synthase gamma chain, mitochondrialATP synthase subunit gamma, mitochondrialF-ATPase gamma subunitATP synthase, H+ transporting, mitochondrial F1 complex, gamma polypeptide 1Mitochondrial ATP synthase gamma subunit 1ATP5CL1
02
Mechanism of action
Inhibition of ATP synthase activity: Blocking rotary action or proton translocation halts ATP production. Allosteric inhibition: Drugs binding the F0 motor prevent rotation of the gamma subunit, stopping catalysis.
03
Biological functions
ATP synthesis: Catalyzes conversion of ADP and inorganic phosphate to ATP using energy from proton gradientBioenergetics: Central to cellular energy supplyCoupling mechanism: Couples proton translocation and ATP synthesis through rotational catalysisRegulation of cell death: May be involved in mitochondrial permeability transition pore formation and apoptosis
04
Disease associations
Mitochondrial diseases: Mutations in ATP synthase subunits can cause severe hereditary disordersNeurodegenerative disease: Dysfunction implicated in neurodegenerative processesMetabolic disorders: Defects impact cellular metabolism and energy homeostasisOther: Potential roles in cell death and apoptosis due to involvement in mitochondrial permeability transition
05
Safety considerations
Toxicity: Inhibition of mitochondrial ATP synthase universally impairs cellular ATP supply, causing organ/system failureOff-target effects: Non-selective inhibition impacts all energy-consuming tissues; risks of lactic acidosis, neurological, and muscular dysfunctionTherapeutic challenges: Essential for life; strategies for selective modulation are complex
06
Interacting drugs
Oligomycin: Specific inhibitor of ATP synthase F0 domain that blocks ATP production
2 more in the full profile.
07
Biomarkers
ATP synthase gamma subunit expression/mutation: Mutations and expression levels can serve as biomarkers for mitochondrial diseases and bioenergetic dysfunctions
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