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1 erate rhythmic forearm exercise (10% maximal voluntary contraction).
2 onal elbow torques from 0% to 20% of maximum voluntary contraction.
3 ic handgrip (20 s) at 10% and 70% of maximum voluntary contraction.
4 llows the cessation of a prolonged isometric voluntary contraction.
5 ic isometric calf exercise at 20% of maximum voluntary contraction.
6 target muscle was contracting at 10% maximum voluntary contraction.
7 g to zero at around one-third of the maximum voluntary contraction.
8 lling to zero at around one-third of maximum voluntary contraction.
9 e, and firing rate associated with sustained voluntary contractions.
10 ch motor units are recruited during repeated voluntary contractions.
11 muscle fatigue processes induced by maximal voluntary contractions.
12 itiate (GO) ballistic index finger isometric voluntary contractions.
13 he fatigue associated with sustained maximal voluntary contractions.
14 ed increases in function [i.e., 1-RM/maximal voluntary contraction (60 degrees )] and VL thickness (p
15 entric needle electrodes, ensuring by slight voluntary contraction and electrical nerve stimulation t
16 tric knee extension protocols involving both voluntary contraction and electrically stimulated contra
17 -8.4 kg) were measured for isometric maximum voluntary contraction and MAS of the knee flexors using
18 uing isometric handgrip (IHG) at 30% maximum voluntary contraction and postexercise muscle ischaemia
19 idated psychomotor performance test (maximum voluntary contraction and visuomotor pinch/release testi
20 of static one-legged exercise (20 % maximal voluntary contraction) and 7 min dynamic cycling (20 % m
21 of static one-legged exercise (20 % maximal voluntary contraction) and 7 min dynamic cycling (20 % m
23 ring rhythmic handgrip exercise (15% maximum voluntary contraction) and during a control non-exercise
24 years) performed finger flexion (7 % maximal voluntary contraction at 0.67 Hz) under cuff ischaemia.
25 in six men, determined experimentally using voluntary contractions at several combinations of ankle
26 neurones declines with time during a maximal voluntary contraction, at least for many muscles, it is
27 static one-legged contraction at 25% maximal voluntary contraction before (control) and after partial
28 grip exercise at 15%, 30% and 45% of maximal voluntary contraction by venous occlusion plethysmograph
29 ntracortical inhibition was decreased during voluntary contraction compared with rest but there was n
30 hirty 1-sec contractions/min) at 30% maximal voluntary contraction during six 1-minute stages: freely
31 rate rhythmic handgrip exercise (15% maximum voluntary contraction), during a control non-exercise va
32 Five subjects performed six bouts of rapid voluntary contractions every 1.5 s for 42 s (28 contract
34 isometric handgrip exercise (35% of maximal voluntary contraction) followed by postexercise ischaemi
35 grip sustained to fatigue at 40 % of maximum voluntary contraction, followed by 2 min of circulatory
36 y heating, 2 min IHG exercise at 40% maximal voluntary contraction, followed by 2 min post-exercise i
38 egorized as techniques that quantify maximum voluntary contraction force and those that assess evoked
39 t limit the repetitive evaluation of maximum voluntary contraction force in intensive care unit patie
40 fort level (10%, 25%, and 40% of the maximal voluntary contraction force of each individual finger),
43 petition maximum (1RM) and maximal isometric voluntary contraction force, body composition (dual-ener
45 tent static handgrip (SHG; at 45% of maximal voluntary contraction; four 5-second contractions per mi
46 corded from the vastus lateralis (VL) during voluntary contractions held at 25% maximal knee extensor
48 of rhythmic handgrip exercise at 20% maximal voluntary contraction in normoxia (NormEx) and isocapnic
49 ppress but not to execute rapid index finger voluntary contractions in individuals with SCI compared
50 e right FDI muscle at rest as well as during voluntary contraction increased for at least 10 min afte
51 lts show that (i) quadriceps volume, maximum voluntary contraction isometric torque and patellar tend
52 l loads relative to the individual's maximum voluntary contraction (MAS%MVC) and a single absolute lo
53 13 units during the first 30 s of a maximal voluntary contraction (mean train duration, 9.6 +/- 1.2
54 al magnetic stimulation (TMS) during maximum voluntary contraction (MVC) and corticospinal responsive
55 erior (TA) contraction at 10% of its maximal voluntary contraction (MVC) and, (3) a TA contraction at
56 uscle contractions at 10, 20 and 40% maximum voluntary contraction (MVC) before and during ascorbic a
57 sions at 10, 30, 50 and 70% of their maximum voluntary contraction (MVC) force in three sessions, eac
59 xamine the effect of a plantarflexor maximum voluntary contraction (MVC) on Achilles tendon moment ar
60 andgrip performed at 33 % or 45 % of maximal voluntary contraction (MVC) produced intensity-dependent
63 the muscle belly at rest and during maximum voluntary contraction (MVC) trials at ankle angles of -1
64 ntractions at 20, 40, 60, and 80% of maximal voluntary contraction (MVC) with 20 trials at each level
66 finger against resistance at 10-20 % maximum voluntary contraction (MVC), and (b) abduction of the in
67 voked and voluntary exercise at 30 % maximum voluntary contraction (MVC), followed by post-exercise c
73 monitored during (a) 15 s HG at 30% maximum voluntary contraction (MVC); (b) LBNP at -10 and -30 mmH
74 a fatigue task involving repetitive maximal voluntary contractions (MVC) of finger flexor muscles.
75 ultifinger maximal force production (maximal voluntary contraction, MVC) for two sites of force appli
77 d 18 older (65+ yrs) adults produced maximal voluntary contractions (MVCs) and steady submaximal forc
78 participants performed 200 handgrip maximal voluntary contractions (MVCs) with simultaneous recordin
79 maximal test (5 min of intermittent maximal voluntary contractions, MVCs), and a submaximal test (co
80 arm muscles can be selectively modulated by voluntary contraction of contralateral arm muscles, like
82 subjects performed three sets of 10 maximum voluntary contractions of the right quadriceps muscle.
86 tunnel syndrome demonstrated reduced maximum voluntary contraction pinch strength (P < 0.01) and a re
87 two different stimuli: moderate (15% maximal voluntary contraction) rhythmic handgrip exercise or ade
88 force development (32%, 512 +/- 260% maximum voluntary contraction/sec vs. 754 +/- 189% maximum volun
89 ary contraction/sec vs. 754 +/- 189% maximum voluntary contraction/sec, p < 0.01), and endurance time
90 for transcranial magnetic stimulation during voluntary contraction suggests that it first excites axo
92 ic handgrip performed at 25% and 40% maximum voluntary contraction, under control (no drug), parasymp
93 2, rhythmic handgrip exercise at 35% maximum voluntary contraction was performed with progressive upp
94 grip exercise at 15%, 30% and 45% of maximal voluntary contraction were slightly but not significantl
95 three respiratory cycles at 40 % of maximum voluntary contraction whereas BP did not change signific
96 r loads expressed as a percentage of maximum voluntary contraction, which are more suitable for sport
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