Tuning electrical conduction along endothelial tubes of resistance arteries through Ca(2+)-activated K(+) channels
about
The vascular conducted response in cerebral blood flow regulationIntegration and Modulation of Intercellular Signaling Underlying Blood Flow ControlCoordination of intercellular Ca(2+) signaling in endothelial cell tubes of mouse resistance arteries.Aging increases capacitance and spontaneous transient outward current amplitude of smooth muscle cells from murine superior epigastric arteries.Robust internal elastic lamina fenestration in skeletal muscle arteries.Activation of endothelial transient receptor potential C3 channel is required for small conductance calcium-activated potassium channel activation and sustained endothelial hyperpolarization and vasodilation of cerebral artery.Pressure-dependent regulation of Ca2+ signalling in the vascular endotheliumClusters of specialized detector cells provide sensitive and high fidelity receptor signaling in the intact endotheliumEndothelial SK3 channel-associated Ca2+ microdomains modulate blood pressure.Aging impairs electrical conduction along endothelium of resistance arteries through enhanced Ca2+-activated K+ channel activation.3D time-varying simulations of Ca2+ dynamics in arterial coupled cells: A massively parallel implementation.Isolation of microvascular endothelial tubes from mouse resistance arteries.Spreading the signal for vasodilatation: implications for skeletal muscle blood flow control and the effects of ageing.The complex contribution of NOS interneurons in the physiology of cerebrovascular regulation.A new angle on blood-CNS interfaces: a role for connexins?EDH: endothelium-dependent hyperpolarization and microvascular signalling.Calcium and electrical signaling in arterial endothelial tubes: New insights into cellular physiology and cardiovascular function.Conducted dilatation to ATP and K+ in rat skeletal muscle arteriolesConducted vasoreactivity: the dynamical point of view.Impact of Aging on Calcium Signaling and Membrane Potential in Endothelium of Resistance Arteries: A Role for Mitochondria.Widespread Coronary Dysfunction in the Absence of HDL Receptor SR-B1 in an Ischemic Cardiomyopathy Mouse Model.Biophysical properties of microvascular endothelium: Requirements for initiating and conducting electrical signals.Calcium and electrical dynamics in lymphatic endothelium.Chronic intermittent hypoxia accelerates coronary microcirculatory dysfunction in insulin-resistant Goto-Kakizaki rats.Rapid versus slow ascending vasodilatation: intercellular conduction versus flow-mediated signalling with tetanic versus rhythmic muscle contractions.Membrane potential governs calcium influx into microvascular endothelium: integral role for muscarinic receptor activation.The Role of Endothelial Ca2+ Signaling in Neurovascular Coupling: A View from the Lumen.Electrical dynamics of isolated cerebral and skeletal muscle endothelial tubes: Differential roles of G-protein-coupled receptors and K+ channels.
P2860
Q26860089-D73E4C45-9D3F-4053-8A70-3A738013D07CQ30361811-913FBADE-3B88-4639-B445-53278810FD18Q30528525-AC597E0D-2ECC-4298-96C6-2A055C4F7806Q33701962-2C0D6A96-DF49-4808-B56A-DAFB8B00F4AFQ34566572-418F1F3E-907C-4F1B-BE56-DEAE0C596BF9Q35026261-534201BF-7FE8-4382-A9E3-226E0B503CE0Q36439959-D67DDDDD-1493-4D5A-B6C1-D68BA8BB0443Q36812036-CE9B8044-1C1F-4A8F-BA42-0C3647EFA8C1Q36902564-DD122F07-3275-41BE-AE1A-F21AEF61C16EQ37161071-979FE610-CBE2-46F3-85B5-D2F49D902E91Q37631964-63FEE1CB-EA31-4930-BEB4-EBBDFAB1A6DCQ37710746-DF5E2402-4664-4E26-AC1C-CB32BEF22D1EQ38034464-8CBCB5A9-3F85-4572-8B2B-A65A90958473Q38036205-FACE33E4-09B3-46DE-91C2-F444186D2652Q38196154-09EBE8B9-2AC9-4957-B01A-ACE0F09CC359Q38692337-908D0342-45FF-4FA0-A104-9C88BC10A5ABQ38995845-097CEB19-CEF2-4A14-931D-8C3923A6168AQ40813751-BDF798EE-CCA6-4FB6-976F-AEFDC0CA414EQ42133259-BC07AFB6-63C2-4240-BAFF-CD3ED12A4BFDQ46375024-DC789467-E102-48B4-890B-F98EF8481259Q47159582-2938767B-D6F6-42C7-81C7-36D24481198FQ47368282-49923A58-50FD-403E-BC57-FEB1A0F3C83CQ47655919-0252C4B4-6842-4DF2-90EA-5B04B5700C75Q48215443-D75D35D6-4439-41DB-AF8B-14F14553D957Q48238993-C460E379-B88C-4794-8B49-1A87C441C07BQ53828601-B2413F20-F80D-4DF6-AB92-48DAC72865B0Q55024618-4B9A7E3C-2D40-4DF3-A812-BF785AAB68ACQ55053652-4E3F13EE-4172-4EF1-BBC0-B9C4336BCEF2
P2860
Tuning electrical conduction along endothelial tubes of resistance arteries through Ca(2+)-activated K(+) channels
description
2012 nî lūn-bûn
@nan
2012年の論文
@ja
2012年学术文章
@wuu
2012年学术文章
@zh-cn
2012年学术文章
@zh-hans
2012年学术文章
@zh-my
2012年学术文章
@zh-sg
2012年學術文章
@yue
2012年學術文章
@zh
2012年學術文章
@zh-hant
name
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@ast
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@en
type
label
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@ast
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@en
prefLabel
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@ast
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@en
P2860
P1433
P1476
Tuning electrical conduction a ...... Ca(2+)-activated K(+) channels
@en
P2093
Erik J Behringer
P2860
P304
P356
10.1161/CIRCRESAHA.111.262592
P577
2012-04-05T00:00:00Z