ELECTRIC POTENTIAL IN CYLINDRICAL SYNCYTIA AND MUSCLE FIBERSPESKOFF A.1979; BULL. MATH. BIOL.; GBR; DA. 1979; VOL. 41; NO 2; PP. 183-192; BIBL. 7 REF.Article

ELECTRIC POTENTIAL IN THREE-DIMENSIONAL ELECTRICALLY SYNCYTIAL TISSUESPESKOFF A.1979; BULL. MATH. BIOL.; GBR; DA. 1979; VOL. 41; NO 2; PP. 163-181; BIBL. 16 REF.Article

GREEN'S FUNCTION FOR LAPLACE'S EQUATION IN AN INFINITE CYLINDRICAL CELL.PESKOFF A.1974; J. MATH. PHYS.; U.S.A.; DA. 1974; VOL. 15; NO 12; PP. 2112-2120; BIBL. 20 REF.Article

INTERPRETATION OF SOME MICROELECTRODE MEASUREMENTS OF ELECTRICAL PROPERTIES OF CELLSPESKOFF A; EISENBERG KS.1973; ANN. REV. BIOPHYS. BIOENGNG; U.S.A.; DA. 1973; VOL. 2; PP. 65-79; BIBL. 41 REF.Serial Issue

THE TIME-DEPENDENT POTENTIAL IN A SPHERICAL CELLE USING MATCHED ASYMPTOTIC EXPANSIONS.PESKOFF A; EISENBERG RS.1975; J. MATH. BIOL.; GERM.; DA. 1975; VOL. 2; NO 3; PP. 277-300; BIBL. 13 REF.Article

POTENTIAL INDUCED IN A SPHERICAL CALL BY AN INTRACELLULAR POINT SOURCE AND AN EXTRACELLULAR POINT SINK.PESKOFF A; RAMIREZ DM.1975; J. MATH. BIOL.; GERM.; DA. 1975; VOL. 2; NO 4; PP. 301-316; BIBL. 4 REF.Article

MATCHED ASYMPTOTIC EXPANSIONS OF THE GREEN'S FUNCTION FOR THE ELECTRIC POTENTIAL IN AN INFINITE CYLINDRICAL CELL.PESKOFF A; EISENBERG RS; COLE JD et al.1976; S.I.A.M. J. APPL. MATH.; U.S.A.; DA. 1976; VOL. 30; NO 2; PP. 222-239; BIBL. 8 REF.Article

Electrodiffusion of ions approaching the mouth of a conducting membrane channelPESKOFF, A; BERS, D. M.Biophysical journal. 1988, Vol 53, Num 6, pp 863-875, issn 0006-3495Article

INTERCELLULAR COMMUNICATION IN NORMAL AND REGENERATING RAT LIVER: A QUANTITATIVE ANALYSISMEYER DJ; YANCEY SB; REVEL JP et al.1981; J. CELL BIOL.; ISSN 0021-9525; USA; DA. 1981; VOL. 91; NO 2; PART. 1; PP. 505-523; BIBL. 62 REF.Article

Role of the diadic cleft in myocardial contractile controlLANGER, G. A; PESKOFF, A.Circulation (New York, N.Y.). 1997, Vol 96, Num 10, pp 3761-3765, issn 0009-7322Article

Helicon waves in a flaring magnetic fieldARNUSH, D; PESKOFF, A.Plasma physics and controlled fusion. 1996, Vol 38, Num 2, pp 129-153, issn 0741-3335Article

Diffusion around a cardiac calcium channel and the role of surface bound calciumBERS, D. M; PESKOFF, A.Biophysical journal. 1991, Vol 59, Num 3, pp 703-721, issn 0006-3495Article

Reappraisal of diffusion, solubility, and consumption of oxygen in frog skeletal muscle, with applications to muscle energy balanceMAHLER, M; LOUY, C; HOMSLER, E et al.The Journal of general physiology. 1985, Vol 86, Num 1, pp 105-134, issn 0022-1295Article

Calcium at the surface of cardiac plasma membrane vesicles: cation binding, surface charge screening, and Na-Ca exchangeBERS, D. M; PHILIPSON, K. D; PESKOFF, A et al.The Journal of membrane biology (Print). 1985, Vol 85, Num 3, pp 251-261, issn 0022-2631Article

How does the Na⁺-Ca²⁺ exchanger work in the intact cardiac cell ?LANGER, G. A; PESKOFF, A; POST, J. A et al.Journal of molecular and cellular cardiology. 1993, Vol 25, Num 6, pp 637-639, issn 0022-2828Article

Sarcolemmal calcium binding sites in heart. II: Mathematical model for diffusion of calcium released from the sarcoplasmic reticulum into the diadic regionPESKOFF, A; POST, J. A; LANGER, G. A et al.The Journal of membrane biology (Print). 1992, Vol 129, Num 1, pp 59-69, issn 0022-2631Article

MONITORING TRANSIENT Ca²⁺ DYNAMICS WITH LARGE-CONDUCTANCE Ca²⁺-DEPENDENT K⁺ CHANNELS AT ACTIVE ZONES IN FROG SACCULAR HAIR CELLSSY, T; GRINNELL, A. D; PESKOFF, A et al.Neuroscience. 2010, Vol 165, Num 3, pp 715-722, issn 0306-4522, 8 p.Article