Search results for "B100"

showing 4 items of 4 documents

Acute effects of different foam rolling volumes in the interset rest period on maximum repetition performance

2017

Background - Foam rolling (FR) is a ubiquitous intervention utilised for the purpose of acutely increasing the range of motion without subsequent decreases in performance. Thus, it is commonly used during the periworkout period—that is, prior to, during, or after an athlete's workout.\ud \ud Objective - This study investigated how different FR durations applied to the quadriceps during the interset rest periods affects the numbers of repetitions in the knee extension exercise.\ud \ud Methods - Twenty-five females completed four sets of knee extensions with 10 repetitions of maximum load to concentric failure on four occasions. Between each set, a 4-minute rest interval was implemented in wh…

Acute effectsmedicine.medical_specialtyB100Physical Therapy Sports Therapy and RehabilitationmassageConcentric03 medical and health sciencesself-myofascial release0302 clinical medicineRest (finance)Medicine030222 orthopedicsRepetition (rhetorical device)business.industrylcsh:RM1-950030229 sport sciencesConfidence intervalself-manual therapyRest periodlcsh:Therapeutics. PharmacologyPhysical therapyfatigueFoam rollingbusinessRange of motionResearch Paper
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Priming the Motor Cortex With Anodal Transcranial Direct Current Stimulation Affects the Acute Inhibitory Corticospinal Responses to Strength Trainin…

2019

Frazer, AK, Howatson, G, Ahtiainen, JP, Avela, J, Rantalainen, T, and Kidgell, DJ. Priming the motor cortex with anodal transcranial direct current stimulation affects the acute inhibitory corticospinal responses to strength training. J Strength Cond Res 33(2): 307-317, 2019-Synaptic plasticity in the motor cortex (M1) is associated with strength training (ST) and can be modified by transcranial direct current stimulation (tDCS). The M1 responses to ST increase when anodal tDCS is applied during training due to gating. An additional approach to improve the M1 responses to ST, which has not been explored, is to use anodal tDCS to prime the M1 before a bout of ST. We examined the priming effe…

Malecorticospinal silent periodmedicine.medical_treatmentstrength exercisePyramidal TractsIsometric exercise030204 cardiovascular system & hematologyTranscranial Direct Current Stimulation0302 clinical medicineElbowOrthopedics and Sports Medicineta315Cross-Over StudiesNeuronal PlasticityTranscranial direct-current stimulationMotor CortexGeneral Medicinemedicine.anatomical_structurestimulointiFemalecorticospinal excitabilityvoimaharjoitteluPriming (psychology)Motor cortexAdultmedicine.medical_specialtyStrength trainingkeskushermostoneuroplasticityeducationB100Physical Therapy Sports Therapy and RehabilitationInhibitory postsynaptic potentialta311203 medical and health sciencesYoung AdultPhysical medicine and rehabilitationDouble-Blind MethodIsometric ContractionNeuroplasticitymedicineHumansneuroplastisuusbusiness.industryResistance Training030229 sport sciencesEvoked Potentials MotorTranscranial magnetic stimulationaivokuoriNeuroplasticitytranscranial direct current stimulationbusinessJournal of strength and conditioning research
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Transcranial direct current stimulation improves isometric time to exhaustion of the knee extensors

2016

International audience; Transcranial direct current stimulation (tDCS) can increase cortical excitability of a targeted brain area, which may affect endurance exercise performance. However, optimal electrode placement for tDCS remains unclear. We tested the effect of two different tDCS electrode montages for improving exercise performance. Nine subjects underwent a control (CON), placebo (SHAM) and two different tDCS montage sessions in a randomized design. In one tDCS session, the anodal electrode was placed over the left motor cortex and the cathodal on contralateral forehead (HEAD), while for the other montage the anodal electrode was placed over the left motor cortex and cathodal electr…

Malemedicine.medical_treatmentIsometric exerciseFunctional LateralitytDCSRandom Allocation0302 clinical medicineHeart RateSingle-Blind Methodprefrontal cortexprimary motor cortexTranscranial direct-current stimulationexerciseGeneral NeuroscienceMotor Cortexvoluntary activationTranscranial Magnetic StimulationPeripheralmedicine.anatomical_structureMuscle FatiguePsychologyFemoral Nerveperformancemedicine.medical_specialtyShoulderintracortical inhibitionNeuroscience(all)B100brain stimulationPlacebo03 medical and health sciencesYoung AdultPhysical medicine and rehabilitationEndurance trainingIsometric ContractionHeart rateexcitabilitymedicineHumansneuromuscular functionMuscle Skeletalmagnetic stimulationhuman muscle fatigueLeg030229 sport sciencesEvoked Potentials MotorC600QPElectric Stimulationbody regionsBrain stimulation[ SDV.NEU ] Life Sciences [q-bio]/Neurons and Cognition [q-bio.NC]ForeheadPhysical therapyPerceptionsupraspinal factors030217 neurology & neurosurgery
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Induction of body weight loss through RNAi-knockdown of APOBEC1 gene expression in transgenic rabbits

2014

In the search of new strategies to fight against obesity, we targeted a gene pathway involved in energy uptake. We have thus investigated the APOB mRNA editing protein (APOBEC1) gene pathway that is involved in fat absorption in the intestine. The APOB gene encodes two proteins, APOB100 and APOB48, via the editing of a single nucleotide in the APOB mRNA by the APOBEC1 enzyme. The APOB48 protein is mandatory for the synthesis of chylomicrons by intestinal cells to transport dietary lipids and cholesterol. We produced transgenic rabbits expressing permanently and ubiquitously a small hairpin RNA targeting the rabbit APOBEC1 mRNA. These rabbits exhibited a moderately but significantly reduced …

perte de poidsobesityApolipoprotein BAgricultural BiotechnologyGene Expressionlcsh:MedicinetransgenesisSmall hairpin RNAAnimals Genetically Modified0302 clinical medicinesirnaRNA interferenceGene expressionGene Knockdown TechniquesBiologie de la reproductionMedicine and Health SciencesTransgenesIntestinal MucosaRNA Small Interferinglcsh:Science[SDV.BDD]Life Sciences [q-bio]/Development Biology2. Zero hunger0303 health sciencesGene knockdownReproductive BiologyMultidisciplinarybiologyGenetically Modified OrganismsBiologie du développementapobec1; obesity; editing apob; apob100; apob48; chylomicron; intestine; rabbit; sirna; transgenesis; knockdownchylomicronknockdownAgricultureInherited Metabolic DisordersDevelopment BiologyobésitéCholesterolPhenotypeTransgenic Engineering[ SDV.BDLR ] Life Sciences [q-bio]/Reproductive BiologyLiverapobapob48Gene Knockdown Techniquesanimal transgéniqueRNA Interferencelipids (amino acids peptides and proteins)RabbitsGenetic EngineeringResearch ArticleBiotechnologyexpression géniqueTransgeneAPOBEC-1 DeaminaseMolecular Sequence DatarabbitDiet High-Fat03 medical and health sciencesintestinCytidine DeaminaseWeight Loss[SDV.BDD] Life Sciences [q-bio]/Development BiologyAnimalsHumanslapinRNA Messenger[ SDV.BDD ] Life Sciences [q-bio]/Development BiologyintestineTriglycerides[SDV.BDLR] Life Sciences [q-bio]/Reproductive Biology030304 developmental biologyapobec1Base SequenceGenetically Modified AnimalsAPOBEC1editinglcsh:RBiology and Life Sciences[SDV.BDLR]Life Sciences [q-bio]/Reproductive BiologyMolecular biologyapob100DyslipidemiaMetabolic Disordersbiology.proteinlcsh:QRNA EditingApolipoprotein B-48030217 neurology & neurosurgery
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