Search results for "static stretch"

showing 10 items of 13 documents

Effects of Stretching on Upper-Body Muscular Performance

2008

The purpose of this investigation was to examine the influence of upper-body static stretching and dynamic stretching on upper-body muscular performance. Eleven healthy men, who were National Collegiate Athletic Association Division I track and field athletes (age, 19.6 +/- 1.7 years; body mass, 93.7 +/- 13.8 kg; height, 183.6 +/- 4.6 cm; bench press 1 repetition maximum [1RM], 106.2 +/- 23.0 kg), participated in this study. Over 4 sessions, subjects participated in 4 different stretching protocols (i.e., no stretching, static stretching, dynamic stretching, and combined static and dynamic stretching) in a balanced randomized order followed by 4 tests: 30% of 1 RM bench throw, isometric ben…

AdultMaleOrthodonticsAMAXUpper bodyRepetition maximumPhysical Therapy Sports Therapy and RehabilitationGeneral MedicineIsometric exerciseAthletic PerformanceBench pressDynamic stretchingUpper ExtremityStatic stretchingMuscle Stretching ExercisesExercise TestHumansOrthopedics and Sports MedicineMuscle SkeletalThrowingMathematicsJournal of Strength and Conditioning Research
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Acute effects of short-duration isolated static stretching or combined with dynamic exercises on strength, jump and sprint performance

2013

Summary Objective This study aimed to investigate the acute effects of a short-duration isolated static stretching or combined with dynamic plyometric exercises on the performance of some anaerobic parameters (strength, jumping and sprinting). Methods During three distinct sessions and after a standardized warm-up, 15 participants randomly performed static stretching exercises alone, static stretching combined with plyometric exercises and no stretch. Total stretch duration was 20 seconds long per muscle group (quadriceps, hamstrings and calf muscles). Tests included maximal quadriceps muscle strength, countermovement jumps and 15 m sprints. Results Whatever the condition, maximal strength …

Acute effectsmedicine.medical_specialtymedicine.disease_causeStatic stretchingVertical jumpJumpingPhysical medicine and rehabilitationSprintJumpmedicinePhysical therapyPlyometricsOrthopedics and Sports MedicineAnaerobic exerciseMathematicsScience & Sports
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Postactivation potentiation can counteract declines in force and power that occur after stretching.

2016

Stretching can decrease a muscle's maximal force, whereas short but intense muscle contractions can increase it. We hypothesized that when combined, postactivation potentiation induced by reactive jumps would counteract stretch-induced decrements in drop jump (DJ) performance. Moreover, we measured changes in muscle twitch forces and ankle joint stiffness (KAnkle ) to examine underlying mechanisms. Twenty subjects completed three DJs and 10 electrically evoked muscle twitches of the triceps surae subsequent to four different conditioning activities and control. The conditioning activities were 10 hops, 20s of static stretching of the triceps surae muscle, 20s of stretching followed by 10 ho…

AdultMaletendonmuscle stretchPhysical Therapy Sports Therapy and RehabilitationStretch shortening cycleshear strainStatic stretching03 medical and health sciencesYoung Adult0302 clinical medicineTriceps surae muscleMuscle Stretching ExercisesmedicineHumansOrthopedics and Sports Medicinemyofascial force transmissionta315Muscle Skeletalactivation-dependentChemistryElectromyography030229 sport sciencesAnatomyElectric StimulationBiomechanical Phenomenamedicine.anatomical_structureTorqueJoint stiffnessBiophysicsPost activation potentiationJumpConditioningaponeurosismedicine.symptomAnkle030217 neurology & neurosurgeryAnkle JointMuscle ContractionScandinavian journal of medicinescience in sports
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Do Stretch Durations Affect Muscle Mechanical and Neurophysiological Properties?

2016

International audience; The aim of the study was to determine whether stretching durations influence acute changes of mechanical and neurophysiological properties of plantar flexor muscles. Plantar flexors of 10 active males were stretched in passive conditions on an isokinetic dynamometer. Different durations of static stretching were tested in 5 randomly ordered experimental trials (1, 2, 3, 4 and 10×30-s). Fascicle stiffness index, evoked contractile properties and spinal excitability (Hmax/Mmax) were examined before (PRE), immediately after (POST0) and 5 min after (POST5) stretching. No stretch duration effect was recorded for any variable. Moreover, whatever the stretching duration, st…

AdultMaleTime FactorsM waveStiffness indexPhysical Therapy Sports Therapy and RehabilitationPlantar flexionStatic stretchingYoung Adult03 medical and health sciencesstiffness0302 clinical medicineMuscle Stretching Exercises[SDV.MHEP.PHY]Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]medicineHumansOrthopedics and Sports MedicineH reflexMuscle Skeletalsoleusdose-responseFootChemistry[ SDV.MHEP.PHY ] Life Sciences [q-bio]/Human health and pathology/Tissues and Organs [q-bio.TO]030229 sport sciencesAnatomyNeurophysiologyFascicleTorqueIsokinetic dynamometermedicine.symptomH-reflex030217 neurology & neurosurgeryMuscle ContractionMuscle contractionBiomedical engineering
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Changes in neural drive to calf muscles during steady submaximal contractions after repeated static stretches

2021

Key points: Repeated static-stretching interventions consistently increase the range of motion about a joint and decrease total joint stiffness, but findings on the changes in muscle and connective-tissue properties are mixed. The influence of these stretch-induced changes on muscle function at submaximal forces is unknown. To address this gap in knowledge, the changes in neural drive to the plantar flexor muscles after a static-stretch intervention were estimated. Neural drive to the plantar flexor muscles during a low-force contraction increased after repeated static stretches. These findings suggest that adjustments in motor unit activity are necessary at low forces to accommodate reduct…

medicine.medical_specialtyContraction (grammar)neural drivePhysiologySpike trainIsometric exerciseStatic stretchingPhysical medicine and rehabilitationmotor unitIsometric ContractionMuscle Stretching ExercisesmedicineHumansMuscle SkeletalUnit functionbusiness.industryElectromyographymusculoskeletal systembody regionsMotor unitTorqueJoint stiffnessmedicine.symptomstretchbusinessRange of motionSettore M-EDF/01 - Metodi E Didattiche Delle Attivita' MotorieMuscle Contraction
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Influence of Aerobic Exercise After Static Stretching on Flexibility and Strength in Plantar Flexor Muscles

2020

Aerobic exercise could improve stretch-induced strength deficits. However, mechanisms of the improvement were unclear. The purpose of the study was to examine the effects of aerobic exercise after static stretching (SS) on flexibility and isometric strength in ankle plantar-flexor muscles. Fifteen healthy males received two interventions after SS of their ankle plantar-flexor muscles for 5 min. One was aerobic exercise for 10-min on a cycling ergometer, and the other was a 10-min rest as a control. Range of motion (ROM) of ankle dorsiflexion, passive torque at terminal ROM, muscle-tendon unit (MTU) stiffness, muscle tendon junction displacement, peak torque of ankle plantarflexion, and the …

musculoskeletal diseaseselectromyographymedicine.medical_specialtyFlexibility (anatomy)PhysiologyElectromyographyIsometric exerciselcsh:PhysiologyStatic stretchingstiffness03 medical and health sciences0302 clinical medicinePhysical medicine and rehabilitationPhysiology (medical)peak torquemedicineankle jointAerobic exerciseOriginal Researchlcsh:QP1-981medicine.diagnostic_testbusiness.industryaerobic execise030229 sport sciencesstretchingmusculoskeletal systembody regionsmedicine.anatomical_structureMuscle tendon junctionpassive torqueAnklebusinessRange of motion030217 neurology & neurosurgeryFrontiers in Physiology
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Neurophysiological insights on flexibility improvements through motor imagery

2017

International audience; The efficacy of motor imagery (MI) practice to facilitate muscle stretching remains controversial and the underlying neurophysiological mechanisms unexplored. We evaluated the effects of MI practice during a sit-and reach task. Healthy participants were randomly assigned to a MI practice (n = 15) or Control (n = 15) group and completed 2 blocks of 5 sit-and-reach trials. During the first block (B1), participants performed 5 maximal stretching trials of 10s. During the second block (B2), trials were divided into two consecutive parts: i) reproducing the maximum performance of B1 (10s, B2 part 1), and ii) attempting to outperform the maximum performance of B1 (10s, B2 …

AdultMalemedicine.medical_specialtyFlexibility (anatomy)Imagery PsychotherapyMovementhuman skeletal-musclestatic stretchElectromyographyfacilitation03 medical and health sciencesBehavioral NeuroscienceYoung AdultMotor performance0302 clinical medicinePhysical medicine and rehabilitationMotor imageryMovement imagerytranscranial magnetic stimulationmedicineHumansStretch reflexmental practiceMuscle Skeletalpassive stretchCommunicationBehaviorperceived exertionmedicine.diagnostic_testbusiness.industryElectromyographyStretch reflexcontractionMuscle activation030229 sport sciencesNeurophysiologymedicine.anatomical_structure[ SDV.NEU ] Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]Reflex[SDV.NEU]Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]corticospinal excitabilityPsychologybusinessstrength030217 neurology & neurosurgeryHamstring
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2020

Even though the acute effects of pre-exercise static stretching and dynamic muscle activity on muscular and functional performance have been largely investigated, their effects on the corticospinal pathway are still unclear. For that reason, this study examined the acute effects of 5×20 s of static stretching, dynamic muscle activity and a control condition on spinal excitability, corticospinal excitability and plantar flexor neuromuscular properties. Fifteen volunteers were randomly tested on separate days. Transcranial magnetic stimulation was applied to investigate corticospinal excitability by recording the amplitude of the motor-evoked potential (MEP) and the duration of the cortical s…

Soleus musclemedicine.medical_specialtyMultidisciplinaryPyramidal tractsmedicine.diagnostic_testbusiness.industry030229 sport sciencesElectromyographyIsometric exerciseStatic stretching03 medical and health sciencesGastrocnemius muscle0302 clinical medicinemedicine.anatomical_structureInternal medicinemedicineCardiologyFunctional electrical stimulationmedicine.symptombusiness030217 neurology & neurosurgeryMuscle contractionPLOS ONE
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2020

This study aimed to explore the acute effects of static stretching on the musculotendinous properties of two hamstring muscles. Twelve male volunteers underwent two testing sessions. One session was dedicated to the evaluation of the semitendinosus muscle before (PRE) and after (POST) static stretching (five sets of 30-s stretching), and the other session similarly explored the long head of biceps femoris muscle. In addition to the displacement of the myotendinous junction (MTJ), passive torque and maximal voluntary isometric torque (MVIT) were evaluated. MVIT (−8.3 ± 10.2%, p = 0.0036, d = 0.497) and passive torque (−28.4 ± 16.9%, p = 0.0003, d = 1.017) were significantly decreased POST st…

Hamstring injuryHamstring musclesbusiness.industryPhysical Therapy Sports Therapy and Rehabilitation030229 sport sciencesAnatomymedicine.diseaseBicepsStatic stretching03 medical and health sciences0302 clinical medicineBiceps femoris musclemedicineOrthopedics and Sports MedicineDisplacement (orthopedic surgery)Myotendinous junctionbusinessSemitendinosus muscle030217 neurology & neurosurgerySports
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The Relation Between Stretching Typology and Stretching Duration: The Effects on Range of Motion.

2018

AbstractDifferent stretching strategies and protocols are widely used to improve flexibility or maintain health, acting on the muscle tendon-unit, in order to improve the range of motion (ROM) of the joints. This review aims to evaluate the current body of literature in order to understand the relation between stretching typology and ROM, and secondly to evaluate if a relation exists between stretching volume (either as a single training session, weekly training and weekly frequency) and ROM, after long-term stretching. Twenty-three articles were considered eligible and included in the quantitative synthesis. All stretching typologies showed ROM improvements over a long-term period, however…

Typologymedicine.medical_specialtyFlexibility (anatomy)Time FactorsRelation (database)Physical Therapy Sports Therapy and RehabilitationPassive stretchingrange of motionStatic stretchingTendons03 medical and health sciences0302 clinical medicinePhysical medicine and rehabilitationMuscle Stretching ExercisesmedicineHumansOrthopedics and Sports MedicineRange of Motion ArticularMuscle SkeletalTendonMathematicspassive stretchingMuscle Stretching Exercise030229 sport sciencesflexibilityballistic stretchingmedicine.anatomical_structureactive stretchingDuration (music)static stretchinglong termstretchPNFRange of motion030217 neurology & neurosurgeryHumanInternational journal of sports medicine
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