Top Abstract Purchase Related
Home
>
Node
>
Subnode

Membrane mechanisms of regulating Ca ion concentration in smooth muscle cells. II. System of passive Ca2+ transport in smooth muscles

Babich, L.H.

Ukrains'kyi Biokhimichnyi Zhurnal 71(6): 11-16

1999

ISSN/ISBN: 0372-3909
PMID: 10820841
Document Number: 508216
The aim of this review is to summarize some current aspects on the membrane mechanisms of energy-independent Ca2+ transport in the smooth muscles. The emphasis is placed on the characteristics of voltage-gated and receptor-operated calcium channels of plasma membrane and two major Ca2+ release channels of sarco(endo)plasmic reticulum: one is activated by IP3 and sensitive to heparin and the other by Ca2+ and sensitive to ryanodine. A brief discussion of the electro- and pharmacomechanical coupling mechanisms in the smooth muscle is given.

Document emailed within 1 workday
Secure & encrypted payments

Shinlova, O.P.; Kosterin, S.A.; Veklich, T.A. 1996: Ruthenium red inhibits energy-dependent and passive Ca2+ transport in permeabilized smooth muscle cells Biokhimiia 61(8): 1440-1447
Guldemeester, A.; Stenmark, K.R.; Brough, G.H.; Stevens, T. 1999: Mechanisms regulating cAMP-mediated growth of bovine neonatal pulmonary artery smooth muscle cells American Journal of Physiology 276(6): L1010-L1017
Gurkovskaia, A.V.; Buryĭ, V.A.; Gokina, N.I.; Shuba, M.F. 1988: Membrane mechanisms of the excitatory action of serotonin on the smooth muscles of the rabbit pulmonary artery Biulleten' Eksperimental'noi Biologii i Meditsiny 105(2): 131-133
Babich, L.G.; Fomin, V.P.; Kosterin, S.A. 1990: Effect of the membrane potential on the Mg2+,ATP-dependent transport of Ca2+ across smooth muscle sarcolemma Biokhimiia 55(10): 1890-1901
Lin, C-long.; Zhang, Z-xiang.; Xu, Y-jian.; Ni, W.; Chen, S-xin. 2005: Focal adhesion kinase antisense oligodeoxynucleotides inhibit human pulmonary artery smooth muscle cells proliferation and promote human pulmonary artery smooth muscle cells apoptosis Chinese Medical Journal 118(1): 20-26
Weber, E.; Hämmerle, H.; Vatti, R.; Berti, G.; Betz, E. 1986: Co-cultivation of endothelial and smooth muscle cells on opposite sides of a porous membrane Applied Pathology 4(4): 246-252
Eggermont, J.A.; Vrolix, M.; Wuytack, F.; Raeymaekers, L.; Casteels, R. 1988: The (Ca2+-Mg2+)-ATPases of the plasma membrane and of the endoplasmic reticulum in smooth muscle cells and their regulation Journal of Cardiovascular Pharmacology 12(Suppl 5): S51-S55
Vaganova, M.E.; Perov, I.L.; Postnov, I.V. 1983: Relation between the number of vesicles in the vascular smooth muscle cells and extracellular calcium concentration Biulleten' Eksperimental'noi Biologii i Meditsiny 96(11): 115-118
Fayazi, A.H.; Lapidot, S.A.; Huang, B.K.; Tucker, R.W.; Phair, R.D. 1996: Resolution of the basal plasma membrane calcium flux in vascular smooth muscle cells American Journal of Physiology 270(6 Pt 2): H1972-H1978
Ohshima, K. 1981: Effects of various osmotic solutions on membrane properties of smooth muscle cells of the guinea pig ureter Investigative Urology 19(2): 79-84
Paquet, J.L.; Baudouin-Legros, M.; Meyer, P. 1989: Molecular mechanisms controlling the proliferation of aortic smooth muscle cells in spontaneously hypertensive rats Archives des Maladies du Coeur et des Vaisseaux 82(7): 1319-1321
Renault, M.A.; Jalvy, S.; Belloc, I.; Desgranges, C.; Gadeau, A.P. 2003: Mechanisms of regulation of osteopontin expression mediated by UTP, angiotensin Ii and PDGF in arterial smooth muscle cells Archives des Maladies du Coeur et des Vaisseaux 96(7-8): 796-799
Scannapieco, G.; Pauletto, P.; Pagnan, A.; Mattiello, A.; Biffanti, S.; Vescovo, G.; Jori, G. 1988: Cellular mechanisms of the accumulation of porphyrins in arteriosclerotic plaques: the role of vascular smooth muscle cells Cardiologia 33(3): 249-253
Peng, S.K.; Morin, R.J. 1987: Effects on membrane function by cholesterol oxidation derivatives in cultured aortic smooth muscle cells Artery 14(2): 85-99
Veklich, T.O.; Shkrabak, O.A.; Kosterin, S.O.; Rodik, R.V.; Cherenok, S.O.; Boĭko, S.O.; Boĭko, V.I.; Kal'chenko, V.I. 2006: The calixarenes C-97 and C-107 stimulate influence of ouabain on the Na+,K+-ATPase activity in plasmatic membrane of smooth muscle cells Ukrains'kyi Biokhimichnyi Zhurnal 78(6): 53-63
Abramets, I.I.; Shovtuta, V.I. 1975: Study of the changes in the membrane permeability of smooth muscle cells for Ca45 and Na22 isotopes under the action of catecholamines Farmakologiia i Toksikologiia 38(5): 543-547
Holman, M.E.; Neild, T.O.; Lang, R.J. 1990: On the passive properties of smooth muscle Progress in Clinical and Biological Research 327: 379-398
Li, L.; Liang, C.-z.; Zhang, X.-s.; Hao, Z.-y.; Fan, S.; Gu, Y. 2011: Intracellular calcium ion concentration in the prostate smooth muscle cells of chronic abacterial prostatitis rat models and normal controls Zhonghua Nan Ke Xue 17(3): 224-228
Li, Z.; Zhang, Q.; Zhao, S.; Wei, M.; Shenghui, Z.; Cong, H.; Ouda, H.; Odajima, K.; Takemura, H. 1997: Responsiveness of cytosolic free calcium concentration in cultured rat pulmonary arterial smooth muscle cells: confocal microscopic measurement Research Communications in Molecular Pathology and Pharmacology 97(1): 47-52
Zhao, L.-M.; Xu, Y.-J.; Zhang, Z.-X.; Ni, W.; Chen, S.-X. 2004: Effect of passive sensitization by serum from allergic asthmatic patients on the activity and expression of voltage-dependent delayed rectifier potassium channel in human bronchial smooth muscle cells Chinese Medical Journal 117(11): 1630-1636