7 páginas. 7 figuras.-- et al.Hypoxia initiates the neurosecretory response of the carotid body (CB) by inhibiting one or more potassium channels in the chemoreceptor cells. Oxygen-sensitive K+ channels were first described in rabbit CB chemoreceptor cells, in which a transient outward K+ current was reported to be reversibly inhibited by hypoxia. Although progress has been made to characterize this current with electrophysiological and pharmacological tools, no attempts have been made to identify which Kv channel proteins are expressed in rabbit CB chemoreceptor cells and to determine their contribution to the native O2-sensitive K+ current. To probe the molecular identity of this current, we have used dominant-negative constructs to block...
MaxiK channels are a unique class of K+ channels activated by both voltage and intracellular Ca2+. D...
The carotid body (CB) is the principal arterial chemoreceptor that mediates the hyperventilatory res...
Oxygen sensing in many tissues is crucially dependent upon hypoxia-evoked suppression of K+ channel ...
Hypoxia initiates the neurosecretory response of the carotid body (CB) by inhibiting one or more pot...
Producción CientíficaHypoxia initiates the neurosecretory response of the carotid body (CB) by inhi...
Single K+ channel currents were recorded in excised membrane patches from dispersed chemoreceptor ce...
The carotid body (CB) is a primary chemosensory organ for arterial hypoxia. Inhibition of K channels...
The hypothesis that changes in environmental O2 tension (pO2) could affect the ionic conductances of...
Producción CientíficaThis report represents a relevant contribution to the study of oxygen sensing f...
AbstractType-I cells of rabbit carotid bodies were studied with the patch-clamp technique in the who...
One model of oxygen sensing by the carotid body is that hypoxia depolarises type 1 cells leading to ...
Producción CientíficaVoltage-gated K+ (KV) channels are protein complexes composed of ion-conducting...
O2 sensing is essential for mammalian homeostasis. Peripheral chemoreceptors such as the carotid bod...
Producción CientíficaThe ionic currents of carotid body type 1cells and their possible involvement i...
Chemosensing by type-1 cells of the carotid body involves a series of events which culminate in the ...
MaxiK channels are a unique class of K+ channels activated by both voltage and intracellular Ca2+. D...
The carotid body (CB) is the principal arterial chemoreceptor that mediates the hyperventilatory res...
Oxygen sensing in many tissues is crucially dependent upon hypoxia-evoked suppression of K+ channel ...
Hypoxia initiates the neurosecretory response of the carotid body (CB) by inhibiting one or more pot...
Producción CientíficaHypoxia initiates the neurosecretory response of the carotid body (CB) by inhi...
Single K+ channel currents were recorded in excised membrane patches from dispersed chemoreceptor ce...
The carotid body (CB) is a primary chemosensory organ for arterial hypoxia. Inhibition of K channels...
The hypothesis that changes in environmental O2 tension (pO2) could affect the ionic conductances of...
Producción CientíficaThis report represents a relevant contribution to the study of oxygen sensing f...
AbstractType-I cells of rabbit carotid bodies were studied with the patch-clamp technique in the who...
One model of oxygen sensing by the carotid body is that hypoxia depolarises type 1 cells leading to ...
Producción CientíficaVoltage-gated K+ (KV) channels are protein complexes composed of ion-conducting...
O2 sensing is essential for mammalian homeostasis. Peripheral chemoreceptors such as the carotid bod...
Producción CientíficaThe ionic currents of carotid body type 1cells and their possible involvement i...
Chemosensing by type-1 cells of the carotid body involves a series of events which culminate in the ...
MaxiK channels are a unique class of K+ channels activated by both voltage and intracellular Ca2+. D...
The carotid body (CB) is the principal arterial chemoreceptor that mediates the hyperventilatory res...
Oxygen sensing in many tissues is crucially dependent upon hypoxia-evoked suppression of K+ channel ...