Skeletal muscle mitochondrial capacity (mito), tissue blood flow (BF) capacity, and oxygen
exchange capacity (eg, DO 2) appear to be well matched. The different skeletal muscle fiber …

Mitochondria not only produce energy in the form of ATP to support the activities of cells
comprising the neurovascular unit, but mitochondrial events, such as depolarization and/or …

Mitochondria have diverse functions critical to whole-body metabolic homeostasis.
Endurance training alters mitochondrial activity, but systematic characterization of these …

Skeletal muscles require the proper production and distribution of energy to sustain their
work. To ensure this requirement is met, mitochondria form large networks within skeletal …

Purpose: Mitochondrial diseases (MD) are among the most prevalent neuromuscular
disorders. Unfortunately, no curative treatment is yet available. This study analyzed the …

White adipose tissue (WAT) is now considered an active endocrine organ and its
dysregulation predicts metabolic diseases. Much emphasis has recently been placed on the …

Mitochondrial biogenesis (ie, the expansion of the mitochondrial reticulum) is one of the
most well-established adaptations to exercise training in skeletal muscle. Since the first in …

Once thought of as toxic by-products of cellular metabolism, reactive oxygen species (ROS)
have been implicated in a large variety of cell-signaling processes. Several enzymatic …

Mitochondrial DNA (mtDNA) replication is thought to be an integral part of exercise-training-
induced mitochondrial adaptations. Thus, mtDNA level is often used as an index of …

Aim The optimal exercise intensity to improve endothelial function remains unclear, as well
as whether the addition of hypoxia could potentiate this function. Therefore, the aim of this …