Reactive oxygen species (ROS) are generated in skeletal muscle both during the rest and
contractile activity. Myogenic cells are equipped with antioxidant enzymes, like superoxide …

The contractile activity, high oxygen consumption and metabolic rate of skeletal muscle
cause it to continuously produce moderate levels of oxidant species, such as reactive …

Muscle contraction results in generation of reactive oxygen and nitrogen species (RONS) at
a rate determined by the intensity, frequency, and duration of the exercise protocols …

Long periods of skeletal muscle inactivity promote a loss of muscle protein resulting in fiber
atrophy. This disuse-induced muscle atrophy results from decreased protein synthesis and …

Muscular exercise results in an increased production of radicals and other forms of reactive
oxygen species (ROS). Recent evidence suggests that radicals and other ROS are an …

The first reported reference to delayed onset muscle soreness (DOMS) was that by
Theodore Hough in 1902. Hough stated that when an untrained skeletal muscle performed …

Previous studies have demonstrated that skeletal muscles generate considerable reactive
oxygen during intense muscle contraction. However, the significance of this phenomenon …

Skeletal muscles comprise the largest organ system in the body and play an essential role in
body movement, breathing, and glucose homeostasis. Skeletal muscle is also an important …

Maintaining mobility is a critical element for the quality of life. Skeletal muscle, the primary
organ for locomotion, undergoes age‐associated deterioration in size, structure, and …

The pivotal observation that muscular exercise is associated with oxidative stress in humans
was first reported over 45 years ago. Soon after this landmark finding, it was discovered that …