about
The role of AMP-activated protein kinase in the coordination of skeletal muscle turnover and energy homeostasisAutophagy is essential to support skeletal muscle plasticity in response to endurance exerciseEffects of chronic administration of clenbuterol on contractile properties and calcium homeostasis in rat extensor digitorum longus muscle.Effects of short-term oral salbutamol administration on exercise endurance and metabolism.Aerobic determinants of the decline in preferred walking speed in healthy, active 65- and 80-year-olds.Early activation of rat skeletal muscle IL-6/STAT1/STAT3 dependent gene expression in resistance exercise linked to hypertrophyModeling the responses to resistance training in an animal experiment studyMuscle Regeneration with Intermuscular Adipose Tissue (IMAT) Accumulation Is Modulated by Mechanical Constraints.Drug effect unveils inter-head cooperativity and strain-dependent ADP release in fast skeletal actomyosin.FoxO transcription factors: their roles in the maintenance of skeletal muscle homeostasis.Energy cost of different skating techniques in cross-country skiing.AMPK promotes skeletal muscle autophagy through activation of forkhead FoxO3a and interaction with Ulk1.Evidence that phosphate release is the rate-limiting step on the overall ATPase of psoas myofibrils prevented from shortening by chemical cross-linking.Effects of salbutamol and caffeine ingestion on exercise metabolism and performance.Autophagy and protein turnover signaling in slow-twitch muscle during exercise.Effect of acute and short-term oral salbutamol treatments on maximal power output in non-asthmatic athletes.Effect of inspiratory threshold loading on ventilatory kinetics during constant-load exercise.Early structural and functional signature of 3-day human skeletal muscle disuse using the dry immersion model.Perceived training intensity and performance changes quantification in judo.Effects of drafting on energy expenditure in in-line skating.The effect of prolonged submaximal exercise on gas exchange kinetics and ventilation during heavy exercise in humans.Addition of inspiratory resistance increases the amplitude of the slow component of O2 uptake kinetics.Does the mechanical work in running change during the VO2 slow component?Level ground and uphill cycling efficiency in seated and standing positions.Decrease in oxygen uptake at the end of a high-intensity submaximal running in humans.Assessment of wheelchair drag resistance using a coasting deceleration technique.Comparison of oxygen uptake kinetics during concentric and eccentric cycle exercise.Fatigue and fitness modelled from the effects of training on performance.Simplified deceleration method for assessment of resistive forces in cycling.AMP-activated protein kinase stabilizes FOXO3 in primary myotubes.Validity and reliability of the Polar S710 mobile cycling powermeter.Correlation between cross-bridge kinetics obtained from Trp fluorescence of myofibril suspensions and mechanical studies of single muscle fibers in rabbit psoas.Systems model and individual simulations of training strategies in elite short-track speed skatersModelling performance and skeletal muscle adaptations with exponential growth functions during resistance trainingChronic clenbuterol treatment compromises force production without directly altering skeletal muscle contractile machineryAcute supra-therapeutic oral terbutaline administration has no ergogenic effect in non-asthmatic athletesCycle rate variations in roller ski skating: effects on oxygen uptake and poling forces.Effects of acute ingestion of salbutamol during submaximal exerciseAlteration of neuromuscular function after a prolonged road cycling raceEffects of increased intensity of intermittent training in runners with differing VO2 kinetics
P50
Q27000081-D7AAA81B-EB48-4ADA-8C5B-A26958B22208Q27000625-5B6D14CF-AEF0-464F-B35B-C120EF9C91A7Q33817082-37F0DF8A-FC22-490B-9DFD-DC5A70BBD227Q33912383-1657C83D-4F9A-4653-A86F-EF54A2A7A1EEQ34282485-3E413317-5FB8-455A-A18B-5CCCFFB529EAQ34603074-B78699A6-BDE2-4EEA-8E29-C311FCED6344Q35074102-82D43A56-144D-49C8-B659-499E15360436Q35858476-294DB282-5030-420C-B8AF-05B4F4B31B99Q37371692-68FCB3A1-342D-42BF-B383-3F2EA611392EQ38162721-B5605F80-4096-45E9-B013-10677032D4CAQ39124571-8DFDB605-8EDB-4A92-AC40-0003CD4CA99AQ39456716-82F1C040-60C3-4C1F-A467-81A18A97454DQ44196669-6EDA8018-8DF6-4558-9A35-61111265AF47Q44221572-6E63F113-174C-4C51-B548-525030A29F4FQ45238955-FB06FB48-DA27-4B3A-984E-EDA7103B5AF9Q45300294-B41738DB-E6F4-48BE-83C0-F37C33247201Q47752255-83C4456E-2262-4ED9-9A31-278646F4CD76Q48044273-4D407E08-64B0-4AEE-857F-485E7C12F722Q51583337-CE4F23B1-C300-49EB-9CBB-FA1D84CB1DB5Q51643080-1DD1FCCE-7D2B-4611-A2AA-B4ADFE8B18EAQ51672673-19B21E82-103A-4B5D-8204-A1905C5C6464Q51685076-7DFD6770-3C91-46EF-8753-4652384B067EQ51689383-60BC08B5-8077-471E-AA20-5006CD9B2521Q51701615-4819A802-BF99-4904-900F-BAED0F3023F1Q51716822-5E31D9A9-9E45-4BF4-A3FF-1B679E18CA80Q51810561-83B1D1DD-FABE-4BC2-AD3A-5DCF70DD3CA3Q52053230-34A85687-123C-41B8-A6FA-7977233CA1BBQ52385552-7CDE881A-7F81-454E-9910-B5CA90F47A7FQ52416926-7242B7B4-6EBB-4CC6-B7D7-34C1E510C0E8Q52629796-D289AE09-29F9-4800-8807-A840D1DB9DD6Q52951144-87650AAD-4651-4413-A53F-5905118E8253Q53212341-0BCEDE4F-11DB-4367-B1EF-3E8F64727297Q61845032-6026B9B1-F11B-47AC-9F3D-105269A58F4EQ61845038-98C63208-8270-4D11-A6F3-0D27777880DAQ61845103-C2FBAC51-D95E-4944-9FEF-FEE103032B75Q61845134-91360826-58BB-4776-95C6-133ECD8F16C5Q64966314-FD827E4E-0B85-4E3A-9BFC-D89F8E120148Q73171378-8BDE76AB-F8DC-47C1-89DC-0DFEA0A4C9A2Q73379115-713C825F-5513-410B-880B-B530362B9476Q73539365-1DFC8B0C-C52A-4709-86BC-9E772E06B574
P50
description
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
name
Robin Candau
@ast
Robin Candau
@en
Robin Candau
@es
Robin Candau
@nl
type
label
Robin Candau
@ast
Robin Candau
@en
Robin Candau
@es
Robin Candau
@nl
prefLabel
Robin Candau
@ast
Robin Candau
@en
Robin Candau
@es
Robin Candau
@nl
P106
P31
P496
0000-0002-5930-8750