We have studied the effect of nitric oxide (NO) and potassium cyanide (KCN) on oxidative
phosphorylation efficiency. Concentrations of NO or KCN that decrease resting oxygen …

To elucidate the role of nitric oxide (NO) in the regulation of mitochondrial function, the effect
of NO on energy transfer reactions was examined under different oxygen tensions …

Although the regulation of mitochondrial respiration and energy production in mammalian
tissues has been exhaustively studied and extensively reviewed, a clear understanding of …

Actively respiring animal and plant tissues experience hypoxia because of mitochondrial O2
consumption. Controlling oxygen balance is a critical issue that involves in mammals …

Mitochondrial biochemistry is complex, expanding from oxygen consumption, oxidative
phosphorylation, lipid catabolism, heme biosynthesis, to apoptosis, calcium homeostasis …

Nitric oxide (NO) has been a focus of intense scientific investigation over the past years. A
vast array of physiologic as well as pathophysiologic roles for NO have been described in …

An emerging and important site of action for nitric oxide (NO) within cells is the mitochondrial
inner membrane, where NO binds to and inhibits members of the electron transport chain …

Eukaryotic cells respond to low-oxygen concentrations by upregulating hypoxic nuclear
genes (hypoxic signaling). Although it has been shown previously that the mitochondrial …

Nitric oxide (nitrogen monoxide, NO) exerts a wide profile of its biological activities via
regulation of respiration and respiration-dependent functions. The presence of nitric oxide …

Nitric oxide can interact with a wide range of proteins including many that are involved in
metabolism. In this review we have summarized the effects of NO on glycolysis, fatty acid …