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Inactivity, age, and exercise: Single-muscle fiber power generation
Jong Hee Kim
, LaDora V. Thompson
Rehabilitation Science
Stem Cell Institute
Research output
:
Contribution to journal
›
Article
›
peer-review
11
Scopus citations
Overview
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Dive into the research topics of 'Inactivity, age, and exercise: Single-muscle fiber power generation'. Together they form a unique fingerprint.
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Keyphrases
Power Generation
100%
Myosin Heavy Chain (MyHC)
100%
Inactivity
100%
Single muscle Fiber
100%
Chain Type
100%
Non-weight Bearing
80%
Peak Power
80%
Aged Rats
60%
Normalized Power
60%
Older Adults
40%
Middle-aged
40%
Vmax
40%
Type I Fibers
40%
Maximal Force
40%
Type II Fibers
40%
Young Adult Rat
40%
Middle-aged Rats
40%
Exercise Intensity
20%
Size Function
20%
Adaptive Potential
20%
Age Groups
20%
Increased Vulnerability
20%
Treadmill
20%
Contractile Function
20%
Treadmill Exercise
20%
Weight-bearing
20%
Stimulus Intensity
20%
Muscle Damage
20%
Weight Groups
20%
Single Fiber
20%
Hindlimb Suspension
20%
Gastrocnemius
20%
Therapeutic Exercise
20%
Fiber Size
20%
Medial Gastrocnemius
20%
Medicine and Dentistry
Heavy Meromyosin
100%
Weight Bearing
100%
middle age
60%
Isometrics
40%
Gastrocnemius
40%
Exercise Intensity
20%
Kinesiotherapy
20%
Hindlimb
20%
Contractile Function
20%
Treadmill Exercise
20%
Muscle Injury
20%
Veterinary Science and Veterinary Medicine
Rat
100%
Muscle
100%
Non-weight Bearing
44%
Hindlimb
11%
Weight Bearing
11%
Muscle Injury
11%
Biochemistry, Genetics and Molecular Biology
Weight Bearing
100%
Heavy Meromyosin
100%
Maximum Reaction Velocity
40%
Exercise Intensity
20%
Neuroscience
Myosin Heavy Chain
100%
Food Science
Myosin
100%