Search results for "MESH: Muscle"

showing 10 items of 13 documents

Bimodal Recovery Pattern in Human Skeletal Muscle Induced by Exhaustive Stretch-Shortening Cycle Exercise:

2007

Introduction/Purpose: Recovery of force and stretch reflex from exhaustive stretch-shortening cycle (SSC) exercise is usually bimodal, characterized as immediate exercise-induced performance reduction, with its quick recovery followed by a longer-lasting reduction in performance. A clear parallel exists between the respective changes in performance, neural activation, and metabolic or structural exercise-induced changes. This implies the existence of potential coupling between muscle failure and the induced neural adjustments that take place along its recovery. The present study was designed to explore the evidence of this coupling more thoroughly. Methods: H- and stretch reflexes were meas…

MESH: InflammationAdultMaleReflex Stretchmedicine.medical_specialty[SDV.MHEP.PHY] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]Physical Therapy Sports Therapy and RehabilitationInflammationSubstance PPhysical exerciseIsometric exerciseMESH: Bicycling03 medical and health scienceschemistry.chemical_compound0302 clinical medicineMESH: Muscle Stretching ExercisesInternal medicineMuscle Stretching Exercisesmedicine[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]HumansOrthopedics and Sports MedicineMESH: Reflex Stretch[SDV.NEU] Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]Stretch reflexProstaglandin E2Muscle SkeletalExerciseComputingMilieux_MISCELLANEOUSInflammationMESH: Muscle SkeletalMESH: HumansChemistrySkeletal muscleMESH: Adult030229 sport sciencesAnatomyMESH: MaleBicyclingmedicine.anatomical_structureEndocrinologyMESH: Muscle FatigueMESH: ExerciseMuscle FatigueReflex[SDV.NEU]Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]medicine.symptom030217 neurology & neurosurgerymedicine.drug
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TRPC1 is regulated by caveolin-1 and is involved in oxidized LDL-induced apoptosis of vascular smooth muscle cells.

2009

International audience; Oxidized low-density lipoprotein (oxLDL) induced-apoptosis of vascular cells may participate in plaque instability and rupture. We have previously shown that vascular smooth muscle cells (VSMC) stably expressing caveolin-1 were more susceptible to oxLDL-induced apoptosis than VSMC expressing lower level of caveolin-1, and this was correlated with enhanced Ca(2+) entry and pro-apoptotic events. In this study, we aimed to identify the molecular events involved in oxLDL-induced Ca(2+) influx and their regulation by the structural protein caveolin-1. In VSMC, transient receptor potential canonical-1 (TRPC1) silencing by ARN interference prevents the Ca(2+) influx and red…

MESH: Lipoproteins LDLVascular smooth muscleOxysterolCaveolin 1ApoptosisBiologyMESH: Base SequenceMESH : RNA Small InterferingMuscle Smooth VascularTRPC1Transient receptor potential channelMESH: RNA Small InterferingMESH : Cells CulturedHumansMESH: Caveolin 1RNA Small InterferingMESH: TRPC Cation ChannelsCells CulturedTRPC Cation ChannelsMESH: HumansBase SequenceMESH : Gene Expression RegulationMESH: ApoptosisMESH : HumansMESH : TRPC Cation ChannelsMESH : Muscle Smooth VascularArticlesCell BiologyMESH: Muscle Smooth VascularActin cytoskeletonMESH: Gene Expression RegulationCell biologyLipoproteins LDLGene Expression RegulationApoptosisCaveolin 1MESH : Caveolin 1Molecular Medicinelipids (amino acids peptides and proteins)MESH : Base SequenceMESH : Lipoproteins LDLHomeostasisMESH : ApoptosisMESH: Cells Cultured
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Apelin treatment increases complete Fatty Acid oxidation, mitochondrial oxidative capacity, and biogenesis in muscle of insulin-resistant mice.

2012

Both acute and chronic apelin treatment have been shown to improve insulin sensitivity in mice. However, the effects of apelin on fatty acid oxidation (FAO) during obesity-related insulin resistance have not yet been addressed. Thus, the aim of the current study was to determine the impact of chronic treatment on lipid use, especially in skeletal muscles. High-fat diet (HFD)-induced obese and insulin-resistant mice treated by an apelin injection (0.1 μmol/kg/day i.p.) during 4 weeks had decreased fat mass, glycemia, and plasma levels of triglycerides and were protected from hyperinsulinemia compared with HFD PBS-treated mice. Indirect calorimetry experiments showed that apelin-treated mice…

MESH: Oxidation-Reduction[ SDV.AEN ] Life Sciences [q-bio]/Food and NutritionEndocrinology Diabetes and MetabolismGlucose uptakeAMP-Activated Protein KinasesInbred C57BLMice0302 clinical medicineAMP-activated protein kinaseMESH : Lipid MetabolismHyperinsulinemiaMESH: AnimalsMESH: AMP-Activated Protein KinasesMESH : Muscle SkeletalMESH : Fatty AcidsBeta oxidationMESH: Lipid Metabolism0303 health sciencesMESH: Muscle SkeletalbiologyMESH : Diet High-FatFatty AcidsMESH: Energy MetabolismMESH : AMP-Activated Protein KinasesMESH: Mitochondria MuscleSkeletal3. Good healthApelinMitochondriaMESH: Fatty AcidsMESH : Cyclic AMP-Dependent Protein KinasesMESH: Insulin ResistanceAlimentation et NutritionApelinIntercellular Signaling Peptides and ProteinsMuscleMESH : Insulin ResistanceOxidation-Reductionmedicine.medical_specialtyMESH : Mitochondria Muscle030209 endocrinology & metabolismMESH : Mice Inbred C57BLMESH: Cyclic AMP-Dependent Protein KinasesDiet High-Fat03 medical and health sciencesInsulin resistanceAdipokinesMESH: Mice Inbred C57BLInternal medicineMESH : MiceInternal MedicinemedicineFood and NutritionAnimalsMuscle SkeletalMESH: Intercellular Signaling Peptides and ProteinsMESH: MiceMESH : Intercellular Signaling Peptides and Proteins030304 developmental biologyMESH : Oxidation-ReductionAMPKmedicine.diseaseLipid MetabolismCyclic AMP-Dependent Protein KinasesMitochondria MuscleDietMice Inbred C57BLMESH : Energy Metabolism[SDV.AEN] Life Sciences [q-bio]/Food and NutritionAMP-Activated Protein Kinases;Animals;Cyclic AMP-Dependent Protein Kinases;Diet;High-Fat;Energy Metabolism;Fatty Acids;Insulin Resistance;Intercellular Signaling Peptides and Proteins;Lipid Metabolism;Mice;Inbred C57BL;Mitochondria;Muscle;Skeletal;Oxidation-ReductionHigh-FatMESH: Diet High-FatMetabolismEndocrinologyMitochondrial biogenesisbiology.proteinMESH : AnimalsInsulin ResistanceEnergy Metabolism[SDV.AEN]Life Sciences [q-bio]/Food and Nutrition
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Early-infantile onset epilepsy and developmental delay caused by bi-allelic GAD1 variants

2020

Mice lacking GAD1 show neonatal mortality, but the human phenotype associated with GAD1 disruption is poorly characterized. Neuray et al. describe six patients with biallelic GAD1 mutations, presenting with early-infantile onset epilepsy, neurodevelopmental delay, muscle weakness and non-CNS manifestations.

Male0301 basic medicineGlutamate decarboxylaseMalalties cerebralsNeurotransmissorsNeurodevelopmental delayEpilepsy0302 clinical medicineMESH: ChildAge of OnsetChildcleft palateGAD1AcademicSubjects/SCI01870Glutamate DecarboxylaseGlutamate receptorMuscle weakness//purl.org/becyt/ford/3.1 [https]NeurotransmittersMESH: InfantHypotoniamuscle weakneCleft palateMESH: EpilepsyChild PreschoolMuscle Hypotonia[SDV.NEU]Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]//purl.org/becyt/ford/3 [https]FemaleBrain diseasesAbnormalitiesmedicine.symptomMultiplemedicine.drugcleft palate; epilepsy; GAD1; muscle weakness; neurodevelopmental delayMESH: Glutamate Decarboxylasemedicine.medical_specialtyMESH: Abnormalities MultipleMESH: MutationMESH: Age of OnsetBiologyInhibitory postsynaptic potentialGAD1 cleft palate epilepsy muscle weakness neurodevelopmental delay.gamma-Aminobutyric acidGAD1neurodevelopmental delay03 medical and health sciencesExcitatory synapseInternal medicinemedicineHumansAbnormalities MultiplePreschoolAllelesMESH: Neurodevelopmental Disordersmuscle weaknessMESH: HumansEpilepsyMESH: Muscle HypotoniaMESH: AllelesMESH: Child PreschoolInfantmedicine.diseaseMESH: MaleEpilèpsiaEditor's Choice030104 developmental biologyEndocrinologyNeurodevelopmental DisordersMutationepilepsyAcademicSubjects/MED00310Neurology (clinical)Cleft palate; Epilepsy; GAD1; Muscle weakness; Neurodevelopmental delay; Abnormalities Multiple; Age of Onset; Alleles; Child; Child Preschool; Epilepsy; Female; Glutamate Decarboxylase; Humans; Infant; Male; Muscle Hypotonia; Mutation; Neurodevelopmental DisordersMESH: Female[SDV.MHEP]Life Sciences [q-bio]/Human health and pathology030217 neurology & neurosurgeryReports
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Muscular performances at the ankle joint in young and elderly men.

2005

The effect of aging on mechanical and electromyographic characteristics of ankle joint muscles was investigated in 11 young (mean age 24 years) and 12 elderly (mean age 77 years) males. Maximal and submaximal isometric voluntary torques were measured during ankle plantarflexion and dorsiflexion. Electromyographic activities of triceps surae and tibialis anterior muscles were recorded. The elderly group developed equal maximal dorsiflexion torques (42 vs 45 N.m, p >.05), but in plantarflexion, the elderly group was weaker (80 vs 132 N.m, p <.001) and presented a decreased twitch amplitude (11 vs 16 N.m) and lower coactivation (8% vs 15%) than that of the young adults. We established a linear…

MaleAgingMESH: Range of Motion ArticularMESH : Ankle Joint[SDV.MHEP.PHY] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]MESH : Electric StimulationMESH: Muscle ContractionMESH : Muscle WeaknessMESH : AgedMESH: Evoked Potentials MotorIsometric exerciseElectromyographyMESH : Evoked Potentials Motor0302 clinical medicineMESH: Ankle JointMESH: AgingMESH: Isometric ContractionRange of Motion ArticularYoung adultMESH : Muscle Skeletal10. No inequalityMESH: AgedMESH: Muscle SkeletalMuscle Weaknessmedicine.diagnostic_test[ SDV.MHEP.PHY ] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]MESH: Muscle WeaknessMESH: Electric StimulationMESH : AdultCoactivationMESH: Legmedicine.anatomical_structureLinear relationshipMESH : ElectromyographyRange of motionMuscle ContractionAdultmedicine.medical_specialtyMESH : MaleMESH: Research Support Non-U.S. GovMESH: ElectromyographyMESH : Isometric Contraction03 medical and health sciencesPhysical medicine and rehabilitationIsometric Contractionmedicine[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]HumansMESH : Research Support Non-U.S. GovMuscle SkeletalAgedLegMESH: HumansElectromyographybusiness.industryMESH : HumansMean ageMESH: Adult030229 sport sciencesEvoked Potentials MotorElectric StimulationMESH : AgingMESH: MaleMESH : Range of Motion ArticularPhysical therapyMESH : Muscle ContractionTibial NerveGeriatrics and GerontologyAnkleMESH : Legbusinesshuman activitiesAnkle Joint030217 neurology & neurosurgery
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Stability of pedalling mechanics during a prolonged cycling exercise performed at different cadences.

2005

The aim of this study was to analyse the effect of pedalling rate on the pattern of mechanical torque application and on neuromuscular fatigue during prolonged cycling exercise. Eleven well-trained individuals performed three 1-h pedalling sessions, at 50 rev.min-1, 110 rev.min-1 and a freely chosen cadence, at an intensity corresponding to 65% of their maximal aerobic power. The mechanical torque applied on the right pedal was recorded for 30 s every 5 min while pedalling. Contractile and neural properties of the quadriceps and hamstring muscles were analysed before and immediately after each of the three pedalling sessions. The post-exercise reduction in knee extensors maximal voluntary c…

MaleHamstring muscles[SDV.MHEP.PHY] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]MESH: Muscle ContractionMuscle RelaxationMESH : Analysis of VarianceElectromyographyCohort Studies0302 clinical medicineVoluntary contractionMESH: Risk FactorsRisk FactorsOrthopedics and Sports MedicineMESH: Oxygen ConsumptionMESH : Oxygen ConsumptionMESH: Cohort StudiesKnee extensorsmedicine.diagnostic_test[ SDV.MHEP.PHY ] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]BiomechanicsMESH: Comparative StudyMESH : AdultMESH : Risk FactorsMESH: Muscle FatigueMuscle FatigueMESH : ElectromyographyCyclingCadenceMESH: Physical EnduranceMESH : Physical EnduranceMuscle ContractionAdultmedicine.medical_specialtyMESH: ProbabilityMESH : ProbabilityMESH : MalePhysical ExertionMESH : ExertionMESH : Cohort StudiesPhysical Therapy Sports Therapy and RehabilitationSensitivity and SpecificityMESH : Muscle RelaxationMESH: BicyclingMESH: Electromyography03 medical and health sciencesPhysical medicine and rehabilitationOxygen ConsumptionMESH: Analysis of VariancemedicineMESH: Exertion[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]HumansProbabilityAnalysis of VarianceMESH : SMESH: Humansbusiness.industryElectromyographyMESH : HumansMESH : Comparative StudyMESH: Adult030229 sport sciencesNegative workMESH : Muscle FatigueMESH: MaleBicyclingbody regionsMESH : Exercise TestTorqueMESH : BicyclingMESH: SMESH: Muscle RelaxationPhysical therapyExercise TestPhysical EnduranceMESH : Muscle ContractionbusinessMESH: Exercise Testhuman activities030217 neurology & neurosurgeryJournal of sports sciences
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Strength training in old age: adaptation of antagonist muscles at the ankle joint.

2005

The purpose of this study was to determine whether strength training could reduce the deficit in plantarflexion (PF) maximal voluntary contraction (MVC) torque observed in previous studies in older subjects relative to young adults. Accordingly, the effects of a 6-month strength training program on the muscle and neural properties of the major muscle groups around the ankle were examined. PF and dorsiflexion (DF) isometric MVC torques were measured and surface electromyographic activity of the triceps surae and tibialis anterior muscles was recorded. The strength training program was very effective in improving strength in PF (+24.5%), and it thus reduced the DF-to-PF MVC torque ratio; in a…

MaleMESH : Ankle Joint[SDV.MHEP.PHY] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]MESH : Electric StimulationPhysiologyMESH: Muscle ContractionMESH : AgedMESH: Physical FitnessIsometric exerciseElectromyographyMESH: Research Support Non-U.S. Gov'tMESH : Research Support Non-U.S. Gov't0302 clinical medicineTriceps surae muscleMESH: Ankle JointMESH : FemaleMESH : Muscle SkeletalMESH : Adaptation PhysiologicalMESH : AlgorithmsMESH: AgedMESH: Muscle SkeletalMESH: Middle Agedmedicine.diagnostic_test[ SDV.MHEP.PHY ] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]MESH: Electric StimulationMiddle AgedAdaptation PhysiologicalCoactivationmedicine.anatomical_structureData Interpretation StatisticalMESH : ElectromyographyFemalemedicine.symptomMESH : Physical FitnessAlgorithmsMuscle ContractionMuscle contractionmedicine.medical_specialtyWeight LiftingStrength trainingMESH : MaleJoint stabilityMESH: AlgorithmsMESH: Electromyography03 medical and health sciencesCellular and Molecular NeurosciencePhysical medicine and rehabilitationPhysiology (medical)medicine[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]HumansMESH : Middle AgedMESH : Data Interpretation StatisticalMuscle SkeletalAgedMESH: HumansElectromyographybusiness.industryMESH : Humans030229 sport sciencesMESH: Adaptation PhysiologicalElectric StimulationMESH: MalePhysical FitnessPhysical therapyMESH : Muscle ContractionNeurology (clinical)AnklebusinessMESH: Data Interpretation StatisticalMESH: FemaleAnkle Joint030217 neurology & neurosurgery
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Effects of an eccentric training personalized by a low rate of perceived exertion on the maximal capacities in chronic heart failure: a randomized co…

2016

International audience; BACKGROUND: The eccentric (ECC) training, in spite of its potential interest (slightest request of the cardiorespiratory system) compared with the concentric (CON) training, is not applied during the rehabilitation of the chronic heart failure (CHF). The main reasons are the difficulty personalizing the ECC exercises by avoiding the muscle complications and the lack of information concerning the specific effects on the maximal capacities in CHF patients.AIM: To compare — following a prior study on the feasibility and on the functional impacts — the effects on maximal capacities and tolerance in CHF of ECC training tailored by a low rate of perceived exertion (RPE) an…

MaleMESH: Exercise Tolerancecoronary-artery-diseasegenetic structures[SDV]Life Sciences [q-bio]Heart RateCardiac diseasesProspective StudiesMESH: Cardiac RehabilitationMESH: Heart Ratehealth care economics and organizationsMESH: AgedCardiac RehabilitationExercise ToleranceMESH: Middle Aged6-minute walk testexerciseMESH: Muscle StrengthRehabilitationMiddle Aged[ SDV.MHEP.CSC ] Life Sciences [q-bio]/Human health and pathology/Cardiology and cardiovascular systemmuscle-contractionsExercise Therapy[SDV.MHEP.CSC] Life Sciences [q-bio]/Human health and pathology/Cardiology and cardiovascular systemFemale[SDV.NEU]Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]adaptationsPhysical ExertioneducationHeart failureMESH: Physical Exertion[SDV.MHEP.CSC]Life Sciences [q-bio]/Human health and pathology/Cardiology and cardiovascular systemMESH: Self ConceptexpressionHumansMESH: Exercise TherapyMuscle Strength[SDV.NEU] Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]AgedMESH: HumansMESH: Chronic DiseasemortalitySelf ConceptMESH: MaleMESH: Prospective Studies[ SDV.NEU ] Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]Chronic DiseaseMESH: Heart FailureExercise Testresponsessense organsMESH: Exercise TestMESH: Femalefeasibilityinterval
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The Inactivation Principle: Mathematical Solutions Minimizing the Absolute Work and Biological Implications for the Planning of Arm Movements

2008

An important question in the literature focusing on motor control is to determine which laws drive biological limb movements. This question has prompted numerous investigations analyzing arm movements in both humans and monkeys. Many theories assume that among all possible movements the one actually performed satisfies an optimality criterion. In the framework of optimal control theory, a first approach is to choose a cost function and test whether the proposed model fits with experimental data. A second approach (generally considered as the more difficult) is to infer the cost function from behavioral data. The cost proposed here includes a term called the absolute work of forces, reflecti…

MaleMESH: Range of Motion ArticularMESH : Physical ExertionMESH : MovementOptimality criterion[SDV.MHEP.PHY] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]Computer scienceMESH: Muscle ContractionMESH: GravitationMESH : Models BiologicalMESH: MovementKinematicsMESH: Postural BalanceMESH : Gravitation0302 clinical medicineNeuroscience/Motor SystemsMESH : FeedbackMESH : BiomechanicsRange of Motion ArticularMESH: ArmMESH : Jointslcsh:QH301-705.5Postural BalanceMESH: Biomechanics0303 health sciencesNeuroscience/Behavioral NeuroscienceEcology[ SDV.MHEP.PHY ] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]MESH: FeedbackMESH : AdultBiomechanical PhenomenaMathematical theoryMESH: JointsComputational Theory and MathematicsModeling and SimulationArmResearch ArticleGravitationMuscle ContractionComputer Science/Systems and Control TheoryAdultMESH : MaleMovementPhysical ExertionComputational Biology/Computational NeuroscienceMESH: Psychomotor PerformanceModels BiologicalMESH : ArmFeedbackMESH: Physical Exertion03 medical and health sciencesCellular and Molecular NeuroscienceMESH : Postural BalanceControl theory[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]GeneticsHumansNeuroscience/Theoretical NeuroscienceMolecular BiologyEcology Evolution Behavior and SystematicsSimulation030304 developmental biologyMESH: HumansMESH : HumansWork (physics)MESH: Models BiologicalMotor controlMESH: AdultMESH : Psychomotor PerformanceFunction (mathematics)Optimal controlMESH: MaleTerm (time)MESH : Range of Motion Articularlcsh:Biology (General)MESH : Muscle ContractionJoints030217 neurology & neurosurgeryMathematicsPsychomotor PerformancePLoS Computational Biology
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Growth hormone potentiates thyroid hormone effects on post-exercise phosphocreatine recovery in skeletal muscle.

2012

International audience; OBJECTIVE: The aim of the study was to determine the respective impact of thyroxine and growth hormone on in vivo skeletal mitochondrial function assessed via post exercise phosphocreatine recovery. DESIGN: The hind leg muscles of 32 hypophysectomized rats were investigated using (31)P nuclear magnetic resonance spectroscopy at rest and during the recovery period following a non tetanic stimulation of the sciatic nerve. Each rat was supplemented with hydrocortisone and was randomly assigned to one of the 4 groups: the group Hx was maintained in hypopituitarism., the group HxT was treated with 1 μg/100g/day of thyroxine (T4), the group HxG with 0.2 IU/kg/day of recomb…

MalePhosphocreatineThyroid hormonesEndocrinology Diabetes and MetabolismMESH: Random AllocationThyroid GlandSkeletal muscleHypopituitarismMESH: Physical Conditioning AnimalMESH: Drug SynergismNuclear magnetic resonancechemistry.chemical_compoundRandom Allocation0302 clinical medicineEndocrinologyMESH: Human Growth HormoneMESH: AnimalsMESH : Muscle Skeletal0303 health sciencesMESH: Muscle Skeletal[ INFO.INFO-IM ] Computer Science [cs]/Medical ImagingMESH : RatsHuman Growth HormoneThyroidDrug Synergismmedicine.anatomical_structuremedicine.drugmedicine.medical_specialtyMESH : Drug SynergismMESH: RatsMESH : MaleSomatotropin030209 endocrinology & metabolismMESH: PhosphocreatinePhosphocreatineMESH : Random Allocation03 medical and health sciencesIn vivoInternal medicine[ SDV.MHEP ] Life Sciences [q-bio]/Human health and pathologyPhysical Conditioning AnimalMESH : Thyroxinemedicine[INFO.INFO-IM]Computer Science [cs]/Medical ImagingAnimalsHumansMESH : PhosphocreatineMESH : Human Growth HormoneMitochondrionMESH : Physical Conditioning AnimalMuscle Skeletal030304 developmental biologyHydrocortisoneMESH: HumansMESH : HumansSkeletal muscleMESH : Thyroid GlandMESH: Thyroxinemedicine.diseaseMESH: MaleMESH: Thyroid GlandRatsThyroxineEndocrinologychemistryRatMESH : AnimalsTetanic stimulation[SDV.MHEP]Life Sciences [q-bio]/Human health and pathologyHormoneGrowth hormoneIGF research : official journal of the Growth Hormone Research Society and the International IGF Research Society
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