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*LIDOCAINE
*SODIUM
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The Journal of General Physiology, Vol 81, 613-642, Copyright © 1983 by The Rockefeller University Press


Articles

Lidocaine block of cardiac sodium channels

BP Bean, CJ Cohen, and RW Tsien

Lidocaine block of cardiac sodium channels was studied in voltage-clamped rabbit purkinje fibers at drug concentrations ranging from 1 mM down to effective antiarrhythmic doses (5-20 mu M). Dose-response curves indicated that lidocaine blocks the channel by binding one-to-one, with a voltage-dependent K(d). The half-blocking concentration varied from more than 300 mu M, at a negative holding potential where inactivation was completely removed, to approximately 10 mu M, at a depolarized holding potential where inactivation was nearly complete. Lidocaine block showed prominent use dependence with trains of depolarizing pulses from a negative holding potential. During the interval between pulses, repriming of I (Na) displayed two exponential components, a normally recovering component (tau less than 0.2 s), and a lidocaine-induced, slowly recovering fraction (tau approximately 1-2 s at pH 7.0). Raising the lidocaine concentration magnified the slowly recovering fraction without changing its time course; after a long depolarization, this fraction was one-half at approximately 10 mu M lidocaine, just as expected if it corresponded to drug-bound, inactivated channels. At less than or equal to 20 mu M lidocaine, the slowly recovering fraction grew exponentially to a steady level as the preceding depolarization was prolonged; the time course was the same for strong or weak depolarizations, that is, with or without significant activation of I(Na). This argues that use dependence at therapeutic levels reflects block of inactivated channels, rather than block of open channels. Overall, these results provide direct evidence for the “modulated-receptor hypothesis” of Hille (1977) and Hondeghem and Katzung (1977). Unlike tetrodotoxin, lidocaine shows similar interactions with Na channels of heart, nerve, and skeletal muscle.
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Circ. Res., August 24, 1998; 83(4): 431 - 440.
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Mol. Pharmacol.Home page
G. K. Wang, C. Quan, and S.-Y. Wang
Local Anesthetic Block of Batrachotoxin-Resistant Muscle Na+ Channels
Mol. Pharmacol., August 1, 1998; 54(2): 389 - 396.
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Am. J. Physiol. Cell Physiol.Home page
R. L. Sah, R. G. Tsushima, and P. H. Backx
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Am J Physiol Cell Physiol, August 1, 1998; 275(2): C389 - C400.
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J. Neurophysiol.Home page
A. Scholz, N. Kuboyama, G. Hempelmann, and W. Vogel
Complex Blockade of TTX-Resistant Na+ Currents by Lidocaine and Bupivacaine Reduce Firing Frequency in DRG Neurons
J Neurophysiol, April 1, 1998; 79(4): 1746 - 1754.
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Proc. Natl. Acad. Sci. USAHome page
Y.-F. Xiao, S. N. Wright, G. K. Wang, J. P. Morgan, and A. Leaf
Fatty acids suppress voltage-gated Na+ currents in HEK293t cells transfected with the alpha -subunit of the human cardiac Na+ channel
PNAS, March 3, 1998; 95(5): 2680 - 2685.
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Am. J. Physiol. Heart Circ. Physiol.Home page
R. Dumaine and G. E. Kirsch
Mechanism of lidocaine block of late current in long Q-T mutant Na+ channels
Am J Physiol Heart Circ Physiol, February 1, 1998; 274(2): H477 - H487.
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J. Pharmacol. Exp. Ther.Home page
J.-H. Song, C.-S. Huang, K. Nagata, J. Z. Yeh, and T. Narahashi
Differential Action of Riluzole on Tetrodotoxin-Sensitive and Tetrodotoxin-Resistant Sodium Channels
J. Pharmacol. Exp. Ther., August 1, 1997; 282(2): 707 - 714.
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Circ. Res.Home page
J. Pu and P. A. Boyden
Alterations of Na+ Currents in Myocytes From Epicardial Border Zone of the Infarcted Heart : A Possible Ionic Mechanism for Reduced Excitability and Postrepolarization Refractoriness
Circ. Res., July 19, 1997; 81(1): 110 - 119.
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Mol. Pharmacol.Home page
C.-C. Kuo, R.-S. Chen, L. Lu, and R.-C. Chen
Carbamazepine Inhibition of Neuronal Na+ Currents: Quantitative Distinction from Phenytoin and Possible Therapeutic Implications
Mol. Pharmacol., June 1, 1997; 51(6): 1077 - 1083.
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J. Neurosci.Home page
J. W. Stocker, L. Nadasdi, R. W. Aldrich, and R. W. Tsien
Preferential Interaction of omega -Conotoxins with Inactivated N-type Ca2+ Channels
J. Neurosci., May 1, 1997; 17(9): 3002 - 3013.
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E. R. Liman and D. P. Corey
Electrophysiological Characterization of Chemosensory Neurons from the Mouse Vomeronasal Organ
J. Neurosci., August 1, 1996; 16(15): 4625 - 4637.
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Circ. Res.Home page
R.-H. An, R. Bangalore, S.Z. Rosero, and R.S. Kass
Lidocaine Block of LQT-3 Mutant Human Na+ Channels
Circ. Res., July 1, 1996; 79(1): 103 - 108.
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CirculationHome page
A. Olschewski, M.E. Brau, H. Olschewski, G. Hempelmann, and W. Vogel
ATP-Dependent Potassium Channel in Rat Cardiomyocytes Is Blocked by Lidocaine : Possible Impact on the Antiarrhythmic Action of Lidocaine
Circulation, February 15, 1996; 93(4): 656 - 659.
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Circ. Res.Home page
P. B. Bennett, C. Valenzuela, L.-Q. Chen, and R. G. Kallen
On the Molecular Nature of the Lidocaine Receptor of Cardiac Na+ Channels : Modification of Block by Alterations in the {alpha}-Subunit III-IV Interdomain
Circ. Res., September 1, 1995; 77(3): 584 - 592.
[Abstract] [Full Text]


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J. Biol. Chem.Home page
J. C. McPhee, D. S. Ragsdale, T. Scheuer, and W. A. Catterall
A Critical Role for Transmembrane Segment IVS6 of the Sodium Channel [IMAGE] Subunit in Fast Inactivation
J. Biol. Chem., May 19, 1995; 270(20): 12025 - 12034.
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J. Thorac. Cardiovasc. Surg.Home page
A. Ohkado, H. Cao-Danh, K. E. Sommers, and P. J. del Nido
Evaluation of highly buffered low-calcium solution for long-term preservation of the heartComparison with University of Wisconsin solution
J. Thorac. Cardiovasc. Surg., October 1, 1994; 108(4): 762 - 771.
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ScienceHome page
D. Ragsdale, J. McPhee, T Scheuer, and W. Catterall
Molecular determinants of state-dependent block of Na+ channels by local anesthetics
Science, September 16, 1994; 265(5179): 1724 - 1728.
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Circ. Res.Home page
P. J. Lee, A. Sunami, and H. A. Fozzard
Cardiac-Specific External Paths for Lidocaine, Defined by Isoform-Specific Residues, Accelerate Recovery From Use-Dependent Block
Circ. Res., November 23, 2001; 89(11): 1014 - 1021.
[Abstract] [Full Text] [PDF]



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