A model of oxidative phosphorylation in mammalian skeletal muscle.
about
A biophysical model of the mitochondrial respiratory system and oxidative phosphorylationComputational modeling analysis of mitochondrial superoxide production under varying substrate conditions and upon inhibition of different segments of the electron transport chain.Distinct functional roles of cardiac mitochondrial subpopulations revealed by a 3D simulation modelModeling mitochondrial bioenergetics with integrated volume dynamicsMetabolic dynamics in skeletal muscle during acute reduction in blood flow and oxygen supply to mitochondria: in-silico studies using a multi-scale, top-down integrated modelModeling of mitochondria bioenergetics using a composable chemiosmotic energy transduction rate law: theory and experimental validationThe metabolic core and catalytic switches are fundamental elements in the self-regulation of the systemic metabolic structure of cellsAttractor metabolic networksBrain mitochondrial oxidative metabolism during and after cerebral hypoxia-ischemia studied by simultaneous phosphorus magnetic-resonance and broadband near-infrared spectroscopy.Influence of phosphagen concentration on phosphocreatine breakdown kinetics. Data from human gastrocnemius muscle.Building the power house: recent advances in mitochondrial studies through proteomics and systems biology.Modeling of oxygen transport and cellular energetics explains observations on in vivo cardiac energy metabolism.A model of brain circulation and metabolism: NIRS signal changes during physiological challengesGlobal self-regulation of the cellular metabolic structure.Modelling of mitochondrial oxygen consumption and NIRS detection of cytochrome oxidase redox state.Computational modeling of mitochondrial energy transduction.The control systems structures of energy metabolism.Computational modelling of the piglet brain to simulate near-infrared spectroscopy and magnetic resonance spectroscopy data collected during oxygen deprivation.Quantitative analysis of cellular metabolic dissipative, self-organized structuresModelling noninvasively measured cerebral signals during a hypoxemia challenge: steps towards individualised modelling.Simultaneous blood-tissue exchange of oxygen, carbon dioxide, bicarbonate, and hydrogen ion.Determining the origins of superoxide and hydrogen peroxide in the mammalian NADH:ubiquinone oxidoreductase.Computational strategies for a system-level understanding of metabolism.(3aR*,5R*)-5-(4-Chloro-phen-yl)-1,2,3,3a-tetra-hydro-benzo[e]pyrrolo-[2,1-b][1,3]ox-azepin-10(5H)-one.5-p-Tolyl-1,2,3,3a-tetra-hydro-benzo[e]pyrrolo-[2,1-b][1,3]oxazepin-10(5H)-one.5-Methyl-1,2,3,3a-tetra-hydro-benzo[e]pyrrolo-[2,1-b][1,3]oxazepin-10(5H)-one'Idealized' state 4 and state 3 in mitochondria vs. rest and work in skeletal muscleA computational model of skeletal muscle metabolism linking cellular adaptations induced by altered loading states to metabolic responses during exercise.The computational integrated myocyte: a view into the virtual heartMechanisms of Attenuation of Pulmonary V'O2 Slow Component in Humans after Prolonged Endurance Training.Computational Model of Cellular Metabolic Dynamics in Skeletal Muscle Fibers during Moderate Intensity Exercise.Cancer cell growth and survival as a system-level property sustained by enhanced glycolysis and mitochondrial metabolic remodelingMaintenance of mitochondrial oxygen homeostasis by cosubstrate compensation.Role of NADH/NAD+ transport activity and glycogen store on skeletal muscle energy metabolism during exercise: in silico studiesPhilosophical basis and some historical aspects of systems biology: from Hegel to Noble - applications for bioenergetic research.Modelling confounding effects from extracerebral contamination and systemic factors on functional near-infrared spectroscopy.Slow VO₂ kinetics during moderate-intensity exercise as markers of lower metabolic stability and lower exercise tolerance.A new paradigm: manganese superoxide dismutase influences the production of H2O2 in cells and thereby their biological state.Each-step activation of oxidative phosphorylation is necessary to explain muscle metabolic kinetic responses to exercise and recovery in humans.Modelling Blood Flow and Metabolism in the Preclinical Neonatal Brain during and Following Hypoxic-Ischaemia.
P2860
Q24812608-2D05E88B-D884-4573-8FC3-0647BA71ECCDQ27332136-AC60FF59-5478-4BF1-BF91-3E865E2A6CE9Q28395779-153919A1-B8FA-41E6-BE64-B74BD2727F1BQ28472328-44F3BB14-A236-41CB-9C7A-26E38E0C5073Q28473577-C1B807E5-388C-44C5-A3F7-8CD5850A3332Q28477024-37ECD592-DA89-42DE-998B-3BDD1D574EDBQ28478089-02AE75DE-3190-4EC7-9CE6-13665313F00EQ28488098-25BD68B9-E7B2-44D9-B412-2747810AEA3AQ30662370-53D451E3-0DDE-4D57-802E-867B58E4C930Q31153637-85CB74FE-B992-49D1-804B-3D4E8C44CDCFQ33252676-8B97F73B-37CB-4018-9BBD-660621F15CDAQ33257708-71E54914-B22F-41B3-8869-8213859CE468Q33383209-5809C6D0-FD2B-40B2-8FE8-C6C4BCD3BF31Q33538083-628D875E-4213-4AF5-8451-9E8EA4797F4AQ33683795-0DE861D4-209C-4ABF-967A-BC055C7F5CBAQ33732731-A26DCF5C-7ACF-4838-85EF-AE8CCDE106D2Q33743313-EA799601-4C9D-41C9-A05E-A98982F978D3Q34141535-6DF2AED8-56D1-4EEA-A7F4-54D7E9AE5053Q34205663-4C3DA0EB-F606-46B7-A46D-5E229D037EE2Q34297100-45D20336-5EA4-45CC-9ECD-3F7E4C8EFD75Q34512618-0A560A4F-7812-4810-939D-A19EDBC89E5BQ34647132-8DC41297-92D1-4F91-AFB4-AA3104C74DECQ34785750-749A8B68-E720-4272-A060-7DFA5747E10CQ35152800-55926923-775B-4FBF-95A1-7C5CF157B2CAQ35152936-21CA46D9-16EE-43D3-A0E4-716A2BCB15CBQ35542202-F5EFC268-A6B1-4604-8F1E-355FFF5E0DE7Q35554449-887FAECA-C82A-4591-BBB3-47C5C5CAC92EQ35793902-043CEE57-3C51-4A3C-AE81-1E2F190AC817Q35807792-151D557B-E085-4138-8F06-D46002F9F1E5Q35996773-30DD5880-DD2F-420A-A96F-9B9AE8ADDE63Q36199811-35FB44E1-5428-4EE3-9658-3FF8EEABE602Q36228895-84B62ED5-48D2-4117-82DD-66B388C0CE5DQ36700134-48B02341-F739-44A1-BFA4-91456BA7EE97Q37086464-69CEBF33-84CB-4694-8B45-0A711E55441EQ37166324-C222D932-78CA-47E0-9B91-9CD0B9E22647Q37478140-81A410F8-29C9-4F07-A852-81E2A498BE41Q37785875-1A787BF8-F8A9-433F-8780-A6C741040267Q39682054-AC00BB42-202C-47EB-BA61-947504A836FEQ40390777-2B59CAAD-94F5-49EC-BACC-9A1597934A5BQ40457159-CAFB2763-B158-4BDC-A817-CCCB2C6638C3
P2860
A model of oxidative phosphorylation in mammalian skeletal muscle.
description
2001 nî lūn-bûn
@nan
2001年の論文
@ja
2001年学术文章
@wuu
2001年学术文章
@zh
2001年学术文章
@zh-cn
2001年学术文章
@zh-hans
2001年学术文章
@zh-my
2001年学术文章
@zh-sg
2001年學術文章
@yue
2001年學術文章
@zh-hant
name
A model of oxidative phosphorylation in mammalian skeletal muscle.
@en
A model of oxidative phosphorylation in mammalian skeletal muscle.
@nl
type
label
A model of oxidative phosphorylation in mammalian skeletal muscle.
@en
A model of oxidative phosphorylation in mammalian skeletal muscle.
@nl
prefLabel
A model of oxidative phosphorylation in mammalian skeletal muscle.
@en
A model of oxidative phosphorylation in mammalian skeletal muscle.
@nl
P1476
A model of oxidative phosphorylation in mammalian skeletal muscle.
@en
P2093
P356
10.1016/S0301-4622(01)00184-3
P577
2001-08-01T00:00:00Z