How structure, ca signals, and cellular communications underlie function in precapillary arterioles

Circulation Research

Volumn 105, Issue 8, 2009, Pages 803-810

  Borisova, Lyudmyla ^a   Wray, Susan ^a   Eisner, David A ^b   Burdyga, Theodor ^a  

^a UNIVERSITY OF LIVERPOOL   (United Kingdom)

^b UNIVERSITY OF MANCHESTER   (United Kingdom)

Author keywords

Calcium; Endothelium; Vascular smooth muscle

Indexed keywords

CALCIUM; RYANODINE;

ANIMAL CELL; ANIMAL EXPERIMENT; ANIMAL TISSUE; ARTERY; ARTICLE; BLOOD FLOW; CALCIUM SIGNALING; CALCIUM TRANSPORT; CELL COMMUNICATION; CELL STIMULATION; CONTROLLED STUDY; HEART MUSCLE CELL; MESENTERIC ARTERY; NONHUMAN; PRIORITY JOURNAL; RAT; ULTRASTRUCTURE; URETER; VAS DEFERENS;

ANIMALS; ARTERIOLES; CALCIUM SIGNALING; CELL COMMUNICATION; INOSITOL 1,4,5-TRISPHOSPHATE; MESENTERIC ARTERIES; RATS; RYANODINE RECEPTOR CALCIUM RELEASE CHANNEL; SARCOPLASMIC RETICULUM; SPLANCHNIC CIRCULATION;

EID: 70350132224     PISSN: 00097330     EISSN: 15244571     Source Type: Journal    
DOI: 10.1161/CIRCRESAHA.109.202960     Document Type: Article

References (38)

1. Duza T, Sarelius IH. Localized transient increases in endothelial cell Ca2+ in arterioles in situ: implications for coordination of vascular function. Am J Physiol Heart Circ Physiol. 2004;286:H2322-H2331.
2. Brekke JF, Jackson WF, Segal SS. Arteriolar smooth muscle Ca2+ dynamics during blood flow control in hamster cheek pouch. J Appl Physiol. 2006;101:307-315.
3. Granger HJ, Goodman AH, Granger DN. Role of resistance and exchange vessels in local microvascular control of skeletal muscle oxygenation in the dog. Circ Res. 1976;38:379-385.
4. Chilian WM, DeFily DV. Methodological approaches used for the study of the coronary microcirculation in situ. Blood Ves. 1991;28:236-244.
5. Low AM, Kotecha N, Neild TO, Kwan CY, Daniel EE. Relative contributions of extracellular Ca2+ and Ca2+ stores to smooth muscle contraction in arteries and arterioles of rat, guinea-pig, dog and rabbit. Clin Exp Pharmacol Physiol. 1996;23:310-316.
6. Cauvin C, Saida K, van Breemen C. Extracellular Ca2+ dependence and diltiazem inhibition of contraction in rabbit conduit arteries and mesenteric resistance vessels. Blood Ves. 1984;21:23-31.
7. Segal SS, Beny JL. Intracellular recording and dye transfer in arterioles during blood flow control. Am J Physiol. 1992;263:H1-H7.
8. Nilsson H, Aalkjaer C. Vasomotion: mechanisms and physiological importance. Mol Interv. 2003;3:79-89, 51.
9. Xia J, Duling BR. Electromechanical coupling and the conducted vasomotor response. Am J Physiol. 1995;269:H2022-H2030.
10. Davis MJ, Hill MA. Signaling mechanisms underlying the vascular myogenic response. Physiol Rev. 1999;79:387-423.
11. Tiefenbacher CP, Chilian WM. Heterogeneity of coronary vasomotion. Basic Res Cardiol. 1998;93:446-454.
12. Kasai Y, Yamazawa T, Sakurai T, Taketani Y, Iiono M. Endothelium- dependent frequency modulation of Ca2+ signalling in individual vascular smooth muscle cells of the rat. J Physiol Lond. 1997;504: 349-357.
13. Ohi Y, Takai N, Muraki K, Watanabe M, Imaizumi Y. Ca2+ images of smooth muscle cells and endothelial cells in one confocal plane in femoral artery segments of the rat. Jpn J Pharmacol. 2001;86:106-113.
14. Duncker DJ, Bache RJ. Regulation of coronary blood flow during exercise. Physiol Rev. 2008;88:1009-1086.
15. Villar IC, Francis S, Webb A, Hobbs AJ, Ahluwalia A. Novel aspects of endothelium-dependent regulation of vascular tone. Kidney Int. 2006;70: 840-853.
16. Sell M, Boldt W, Markwardt F. Desynchronising effect of the endothelium on intracellular Ca2+ concentration dynamics in vascular smooth muscle cells of rat mesenteric arteries. Cell Calcium. 2002;32:105-120.
17. Mauban JRH, Lamont C, Balke CW, Wier WG. Adrenergic stimulation of rat resistance arteries affects Ca2+ sparks, Ca2+ waves, and Ca2+ oscillations. Am J Physiol. 2001;280:H2399-H2405.
18. Boittin FX, Macrez N, Halet G, Mironneau J. Norepinephrine-induced Ca2+ waves depend on InsP3 and ryanodine receptor activation in vascular myocytes. Am J Physiol. 1999;277:C139-C151.
19. McSherry IN, Spitaler MM, Takano H, Dora KA. Endothelial cell Ca2+ increases are independent of membrane potential in pressurized rat mesenteric arteries. Cell Calcium. 2005;38:23-33.
20. Burdyga TV, Shmigol A, Eisner DA, Wray S. A new technique for simultaneous and in situ measurements of Ca signals in arteriolar smooth muscle and endothelial cells. Cell Calcium. 2003;34:27-33.
21. Burdyga T, Wray S. Action potential refractory period in ureter smooth muscle is set by Ca sparks and BK channels. Nature. 2005;436:559-562.
22. Rahman A, Hughes A, Matchkov V, Nilsson H, Aalkjaer C. Antiphase oscillations of endothelium and smooth muscle [Ca2+]i in vasomotion of rat mesenteric small arteries. Cell Calcium. 2007;42:536-547.
23. Lamont C, Wier WG. Different roles of ryanodine receptors and inositol (1,4,5)-trisphosphate receptors in adrenergically stimulated contractions of small arteries. Am J Physiol Heart Circ Physiol. 2004;287: H617-H625.
24. Versluis JP, Heslinga JW, Sipkema P, Westerhof N. Microvascular pressure measurement reveals a coronary vascular waterfall in arterioles larger than 110 microm. Am J Physiol Heart Circ Physiol. 2001;281: H1913-H1918.
25. Warshaw DM, Szarek JL, Hubbard MS, Evans JN. Pharmacology and force development of single freshly isolated bovine carotid artery smooth muscle cells. Circ Res. 1986;58:399-406.
26. Gustafsson H. Vasomotion and underlying mechanisms in small arteries. An in vitro study of rat blood vessels. Acta Physiol Scand Suppl. 1993; 614:1-44.
27. Segal SS, Welsh DG, Kurjiaka DT. Spread of vasodilatation and vasoconstriction along feed arteries and arterioles of hamster skeletal muscle. J Physiol. 1999;516(pt 1):283-291.
28. Kuo L, Davis MJ, Chilian WM. Longitudinal gradients for endothelium-dependent and -independent vascular responses in the coronary microcirculation. Circulation. 1995;92:518-525.
29. Hill MA, Zou H, Potocnik SJ, Meininger GA, Davis MJ. Signal transduction in smooth muscle. Invited Review: Arteriolar smooth muscle mechanotransduction: Ca2+ signaling pathways underlying myogenic reactivity. J Appl Physiol. 2001;91:973-983.
30. Komaru T, Tanikawa T, Sugimura A, Kumagai T, Sato K, Kanatsuka H, Shirato K. Mechanisms of coronary microvascular dilation induced by the activation of pertussis toxin-sensitive G proteins are vessel-size dependent. Heterogeneous involvement of nitric oxide pathway and ATP-sensitive K+ channels. Circ Res. 1997;80:1-10.
31. Sellke FW, Myers PR, Bates JN, Harrison DG. Influence of vessel size on the sensitivity of porcine coronary microvessels to nitroglycerin. Am J Physiol. 1990;258:H515-H520.
32. Tousoulis D, Davies GJ, Toutouzas PC. Vasomotion of coronary arteries: from nitrates to nitric oxide. Cardiovasc Drugs Ther. 1999;13:295-300. (Pubitemid 29427986)
33. Kurz MA, Lamping KG, Bates JN, Eastham CL, Marcus ML, Harrison DG. Mechanisms responsible for the heterogeneous coronary microvascular response to nitroglycerin. Circ Res. 1991;68:847-855.
34. Vanhoutte PM. Endothelium-dependent hyperpolarizations: the history. Pharmacol Res. 2004;49:503-508.
35. Serne EH, de Jongh RT, Eringa EC, IJzerman RG, de Boer MP, Ste-houwer CD. Microvascular dysfunction: causative role in the association between hypertension, insulin resistance and the metabolic syndrome? Essays Biochem. 2006;42:163-176.
36. Frisbee JC. Obesity, insulin resistance, and microvessel density. Microcirculation. 2007;14:289-298.
37. Yuan SY, Breslin JW, Perrin R, Gaudreault N, Guo M, Kargozaran H, Wu MH. Microvascular permeability in diabetes and insulin resistance. Microcirculation. 2007;14:363-373.
38. Koller A. Signaling pathways of mechanotransduction in arteriolar endothelium and smooth muscle cells in hypertension. Microcirculation. 2002;9:277-294.