A decreased mechanical efficiency of leg exercise has been describedcould resultfrom a decreased efficiency of skeletal muscle energy metabolism
elevation of FFAleadsto decreased IκB - α in the skeletal muscles of healthy subjects
the molecular mechanismsleadingto transient insulin resistance affecting skeletal muscle after limited muscle damage in human subjects
to increase availability of this incredibly important energy ingredientpositively influencingefficiency of work of skeletal muscles
activating Rev - erbα with SR9009causedincreased metabolic activity in the skeletal muscle of mice
lipid - inducedER stresscausesIR in skeletal muscle through the phosphoryla - tion of IRS1/2 in an IRE1a - JNK dependent manner
physical inactivityresultsin reduced metabolic efficiency in skeletal muscle tissue
Loss of AMPK β2causesextensive loss of AMPK activity in skeletal muscle
chronic hypoxialeadsto an inexorable loss of skeletal muscle mass in healthy subjects
muscle mitochondrial volume , which varies from ∼6 % in type I fibers to ∼4 % in type II fibers , and the wide - ranging mitochondrial enzymatic activity in slow- and fast - twitch fibers ( 14(passive) is also influenced byThe heterogeneity of skeletal muscle metabolic efficiency
Gustafsson T. PGC-1alpha mRNA expression(passive) is influenced byGustafsson T. PGC-1alpha mRNA expression
1297244511.PGC-1alpha mRNA expression(passive) is influenced by1297244511.PGC-1alpha mRNA expression
PGC-1α mRNA expression(passive) is influenced byPGC-1α mRNA expression
PGC-1a mRNA expression(passive) is influenced byPGC-1a mRNA expression
the pace of building muscle masspositively influencesthe pace of building muscle mass
in collateral sprouting and an increase in the motor unit size ( Edds , 1953resultin collateral sprouting and an increase in the motor unit size ( Edds , 1953
in inhibition of insulin - mediated glucose uptake and insulin resistance [ 48,49resultingin inhibition of insulin - mediated glucose uptake and insulin resistance [ 48,49