Endothelium-derived hyperpolarizing factor responses in the rat middle cerebral artery are blocked by inhibiting IKCa channels alone, contrasting with peripheral vessels where block of both IKCa and SKCa is required. As the contribution of IKCa and SKCa to endothelium-dependent hyperpolarization differs in peripheral arteries, depending on the level of arterial constriction, we investigated the possibility that SKCa might contribute to equivalent hyperpolarization in cerebral arteries under certain conditions. METHODS: Rat middle cerebral arteries (approximately 175 microm) were mounted in a wire myograph. The effect of KCa channel blockers on endothelium-dependent responses to the protease-activated receptor 2 agonist, SLIGRL (20 micromol/...
Background In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depend...
In rat middle cerebral and mesenteric arteries the K(Ca)2.3 component of endothelium-dependent hyper...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of K(Ca)3.1 (IK(Ca)) channel...
BACKGROUND AND PURPOSE: Endothelium-derived hyperpolarizing factor responses in the rat middle cereb...
NO/prostanoid independent, EDHF-mediated hyperpolarization and dilation in rat middle cerebral arter...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of KCa3.1 (IKCa) channels an...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of KCa3.1 (IKCa) channels an...
BACKGROUND AND PURPOSE: NO/prostanoid independent, EDHF-mediated hyperpolarization and dilation in r...
Background: In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depen...
Background: In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depen...
BACKGROUND AND PURPOSE: In small arteries, small conductance Ca²⁺-activated K⁺ channels (SK(Ca)) and...
Activation of both small-conductance (SKCa) and intermediate-conductance (IKCa) Ca2+-activated K+ ch...
BACKGROUND AND PURPOSE: In small arteries, small conductance Ca²⁺-activated K⁺ channels (SK(Ca)) and...
<div><h3>Background</h3><p>In rat middle cerebral and mesenteric arteries the K<sub>Ca</sub>2.3 comp...
Activation of both small-conductance (SKCa) and intermediate-conductance (IKCa) Ca2+-activated K+ ch...
Background In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depend...
In rat middle cerebral and mesenteric arteries the K(Ca)2.3 component of endothelium-dependent hyper...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of K(Ca)3.1 (IK(Ca)) channel...
BACKGROUND AND PURPOSE: Endothelium-derived hyperpolarizing factor responses in the rat middle cereb...
NO/prostanoid independent, EDHF-mediated hyperpolarization and dilation in rat middle cerebral arter...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of KCa3.1 (IKCa) channels an...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of KCa3.1 (IKCa) channels an...
BACKGROUND AND PURPOSE: NO/prostanoid independent, EDHF-mediated hyperpolarization and dilation in r...
Background: In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depen...
Background: In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depen...
BACKGROUND AND PURPOSE: In small arteries, small conductance Ca²⁺-activated K⁺ channels (SK(Ca)) and...
Activation of both small-conductance (SKCa) and intermediate-conductance (IKCa) Ca2+-activated K+ ch...
BACKGROUND AND PURPOSE: In small arteries, small conductance Ca²⁺-activated K⁺ channels (SK(Ca)) and...
<div><h3>Background</h3><p>In rat middle cerebral and mesenteric arteries the K<sub>Ca</sub>2.3 comp...
Activation of both small-conductance (SKCa) and intermediate-conductance (IKCa) Ca2+-activated K+ ch...
Background In rat middle cerebral and mesenteric arteries the KCa2.3 component of endothelium-depend...
In rat middle cerebral and mesenteric arteries the K(Ca)2.3 component of endothelium-dependent hyper...
Arterial hyperpolarization to acetylcholine (ACh) reflects coactivation of K(Ca)3.1 (IK(Ca)) channel...