Acute oxygen (O2) sensing is essential for individuals to survive under hypoxic conditions. The carotid body (CB) is the main peripheral chemoreceptor, which contains excitable and O2-sensitive glomus cells with O2-regulated ion channels. Upon exposure to acute hypoxia, inhibition of K+ channels is the signal that triggers cell depolarization, transmitter release and activation of sensory fibers that stimulate the brainstem respiratory center to produce hyperventilation. The molecular mechanisms underlying O2 sensing by glomus cells have, however, remained elusive. Here we discuss recent data demonstrating that ablation of mitochondrial Ndufs2 gene selectively abolishes sensitivity of glomus cells to hypoxia, maintaining responsiveness to h...
Hypoxic chemotransduction in the carotid body requires release of excitatory transmitters from type ...
The molecular underpinnings of the oxygen sensitivity of the carotid body Type I cells are becoming ...
Carotid body glomus cells release transmitters in response to hypoxia due to the increase of excitab...
Carotid body glomus cells are multimodal arterial chemoreceptors able to sense and integrate changes...
Carotid body glomus cells are multimodal arterial chemoreceptors able to sense and integrate changes...
Acute O2 sensing by peripheral chemoreceptors is essential for mammalian homeostasis. Carotid body g...
SummaryO2 sensing is essential for mammalian homeostasis. Peripheral chemoreceptors such as the caro...
O2 sensing is essential for mammalian homeostasis. Peripheral chemoreceptors such as the carotid bod...
Oxygen (O2) is fundamental for cell and whole-body homeostasis. Our understanding of the adaptive pr...
Acute oxygen (O2) sensing is essential for adaptation of organisms to hypoxic environments or medica...
Acute cardiorespiratory responses to O2 deficiency are essential for physiological homeostasis. The ...
International Society for Arterial Chemoreception (ISAC XXI 2022).Acute oxygen (O2) sensing and adap...
Glomus cells in the carotid body (CB) and chromaffin cells in the adrenal medulla (AM) are essential...
The carotid body plays an important role in initiating protective responses to hypoxemia. The primar...
The carotid body plays an important role in initiating protective responses to hypoxemia. The primar...
Hypoxic chemotransduction in the carotid body requires release of excitatory transmitters from type ...
The molecular underpinnings of the oxygen sensitivity of the carotid body Type I cells are becoming ...
Carotid body glomus cells release transmitters in response to hypoxia due to the increase of excitab...
Carotid body glomus cells are multimodal arterial chemoreceptors able to sense and integrate changes...
Carotid body glomus cells are multimodal arterial chemoreceptors able to sense and integrate changes...
Acute O2 sensing by peripheral chemoreceptors is essential for mammalian homeostasis. Carotid body g...
SummaryO2 sensing is essential for mammalian homeostasis. Peripheral chemoreceptors such as the caro...
O2 sensing is essential for mammalian homeostasis. Peripheral chemoreceptors such as the carotid bod...
Oxygen (O2) is fundamental for cell and whole-body homeostasis. Our understanding of the adaptive pr...
Acute oxygen (O2) sensing is essential for adaptation of organisms to hypoxic environments or medica...
Acute cardiorespiratory responses to O2 deficiency are essential for physiological homeostasis. The ...
International Society for Arterial Chemoreception (ISAC XXI 2022).Acute oxygen (O2) sensing and adap...
Glomus cells in the carotid body (CB) and chromaffin cells in the adrenal medulla (AM) are essential...
The carotid body plays an important role in initiating protective responses to hypoxemia. The primar...
The carotid body plays an important role in initiating protective responses to hypoxemia. The primar...
Hypoxic chemotransduction in the carotid body requires release of excitatory transmitters from type ...
The molecular underpinnings of the oxygen sensitivity of the carotid body Type I cells are becoming ...
Carotid body glomus cells release transmitters in response to hypoxia due to the increase of excitab...