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A. Hodgkin (1939)
The relation between conduction velocity and the electrical resistance outside a nerve fibreThe Journal of Physiology, 94
(1951)
1951a). An analysis
(1941)
The efferent innervation of muscle
A. Harreveld, William Eerclchoff (1939)
The nerve supply of doubly and triply innervated crayfish muscles related to their functionJournal of Comparative Neurology, 70
B. Katz (1949)
NEURO‐MUSCULAR TRANSMISSION IN INVERTEBRATESBiological Reviews, 24
K. Cole (1949)
Some physical aspects of bioelectric phenomena.Proceedings of the National Academy of Sciences of the United States of America, 35 10
B. Katz (1947)
The effect of electrolyte deficiency on the rate of conduction in a single nerve fibreThe Journal of Physiology, 106
A. Hodgkin (1949)
Ionic Currents Underlying Activity in the Giant Axon of the Squid, 3
An analysis of the endplate potential recorded with an intracellular electrode
W. Holmes (1943)
Innervation of Crustacean MusclesNature, 151
A. Hodgkin (1938)
The Subthreshold Potentials in a Crustacean Nerve FibreProceedings of The Royal Society B: Biological Sciences, 126
R. Nó (1947)
A study of nerve physiology.Studies from the Rockefeller institute for medical research. Reprints. Rockefeller Institute for Medical Research, 132
De Nó, R. Lorente (1949)
On the effect of certain quaternary ammonium ions upon frog nerve. Part IIJournal of Cellular and Comparative Physiology, 33
S. Weidmann (1951)
Effect of current flow on the membrane potential of cardiac muscleThe Journal of Physiology, 115
H. Curtis, K. Cole (1938)
TRANSVERSE ELECTRIC IMPEDANCE OF THE SQUID GIANT AXONThe Journal of General Physiology, 21
Lowell Woodbury, Hans Hecht, A. Christopherson (1951)
Membrane resting and action potentials of single cardiac muscle fibers of the frog ventricle.The American journal of physiology, 164 2
B. Katz, S. Kuffler (1946)
Excitation of the nerve-muscle system in CrustaceaProceedings of the Royal Society of London. Series B - Biological Sciences, 133
B. Katz (1936)
Neuro‐muscular transmission in crabsThe Journal of Physiology, 87
A. Rollett
Untersuchungen über Contraction und Doppelbrechung der quergestreiften Muskelfasern
R. Nó (1950)
The ineffectiveness of the connective tissue sheath of nerve as a diffusion barrier.Journal of cellular and comparative physiology, 35 2
C. Pantin (1934)
On the Excitation of Crustacean Muscle. IThe Journal of Experimental Biology, 11
W. Nastuk, A. Hodgkin (1950)
The electrical activity of single muscle fibersJournal of Cellular and Comparative Physiology, 35
A. Hodgkin, W. Rushton (1946)
The electrical constants of a crustacean nerve fibreProceedings of the Royal Society of London. Series B - Biological Sciences, 133
BY Hodgkin (1951)
THE IONIC BASIS OF ELECTRICAL ACTIVITY IN NERVE AND MUSCLEBiological Reviews, 26
BY Hodgkin, B. Katz (1949)
The effect of sodium ions on the electrical activity of the giant axon of the squidThe Journal of Physiology, 108
A. Hodgkin (1947)
The membrane resistance of a non‐medullated nerve fibreThe Journal of Physiology, 106
K. Cole, A. Hodgkin (1939)
MEMBRANE AND PROTOPLASM RESISTANCE IN THE SQUID GIANT AXONThe Journal of General Physiology, 22
Bernhard Katz (1948)
The Electrical Properties of the Muscle Fibre MembraneProceedings of the Royal Society of London. Series B - Biological Sciences, 135
(1925)
Per la miglior conoscenza dele terminazione nervose nei muscoli somatici dei crostacei decapodi
Hodgkin Al, Huxley Af (1952)
A quantitative description of membrane current and its application to conduction and excitation in nerveBulletin of Mathematical Biology, 52
F. Offner, A. Weinberg, G. Young (1940)
Nerve conduction theory: Some mathematical consequences of Bernstein's modelBulletin of Mathematical Biology, 2
P. Fatt, B. Katz (1951)
Conduction of impulses in crustacean muscle fibres.The Journal of physiology, 115 1
J. Physiol. (I953) I20, I7I-204 THE ELECTRICAL PROPERTIES OF CRUSTACEAN FIBRES MUSCLE BY P. FATT AND B. KATZ From the Department of Biophysics, University London College, 21 October 1952) (Received been of special interest to physiologists because its Crustacean muscle has junctions show the properties of central nervous synapses. The myoneural and inhibitory nerve fibres which can be muscles are supplied by excitatory stimulated separately, and whose interaction can be studied at the level of As was pointed out in recent reviews (Wiersma, the nerve-muscle junction. information has been obtained about the 1941; Katz, 1949), much valuable the crustacean nerve-muscle system, but little progress has organization of by which antagonistic nerve impulses been made in elucidating the mechanisms on the muscle fibres. exert their effects As a first step, it seemed necessary to study the properties of crustacean from their nerve junctions. Hitherto, most of the muscle fibres, quite apart of the crustacean muscle membrane have remained elementary properties of difficulties in obtaining suitable fibre unexplored, largely because technical preparations. With the help of intracellular electrodes, this difficulty can be and in the present work extensive use has been made of this overcome, across the surface membrane of method,
The Journal of Physiology – Wiley
Published: Jan 28, 1953
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