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C. Franzini-armstrong (1970)
STUDIES OF THE TRIADThe Journal of Cell Biology, 47
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An electron microscopic study of muscle in hypertonic solutions
L. Costantin (1970)
The Role of Sodium Current in the Radial Spread of Contraction in Frog Muscle FibersThe Journal of General Physiology, 55
N. Feder, R. Sidman (1958)
Methods and Principles of Fixation by Freeze-SubstitutionThe Journal of Biophysical and Biochemical Cytology, 4
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Penetration of horseradish
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The osmotic properties of striated muscle fibers in hypertonic
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Muscle cell internal membranes as seen in thick
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High voltage electron
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B. Harris (1963)
Distribution and movement of muscle chlorideThe Journal of Physiology, 166
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Ultrastructural changes produced by hypertonicity in cat cardiac muscle.Journal of molecular and cellular cardiology, 3 2
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Freeze-substitution applied to the study of quick-frozen synapses
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High voltage electron microscopy of sarcoplasmic reticulum
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Elemental distribution in striated muscle
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Contractile activation in skeletal muscle.Progress in biophysics and molecular biology, 29 2
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Inward spread of activation in vertebrate muscle fibresThe Journal of Physiology, 212
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Volume Changes in Sarcoplasmic Reticulum of Rat Hearts Perfused with Hypertonic SolutionsCirculation Research, 40
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Net movements of Na, Li and Cl between sarcotubules
A. Harreveld, Jane Crowell (1964)
Electron microscopy after rapid freezing on a metal surface and substitution fixationThe Anatomical Record, 149
J. Howell (1974)
INTRACELLULAR BINDING OF RUTHENIUM RED IN FROG SKELETAL MUSCLEThe Journal of Cell Biology, 62
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The composition of the sarcoplasmic reticulum in situ: electron probe X-ray microanalysis of cryosections
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Subcellular localization of HRP efflux components
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A cryostat approach to ultrathin ‘dry’ frozen sections for electron microscopy: a morphological and X‐ray analytical studyJournal of Microscopy, 100
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Subcellular localization of HRP efflux components in frog skeletal muscle
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An analysis of volume changes in the T‐tubes of frog skeletal muscle exposed to sucroseThe Journal of Physiology, 222
N. Wallace, J. Sommer (1975)
Fusion of Sarcoplasmic Reticulum with Ruthenium Red, 33
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Evidence for Continuity Between the Central Elements of the Triads and Extracellular Space in Frog Sartorius MuscleNature, 202
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Freeze-substitution applied to the study of quick-frozen
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Action Potential in the Transverse Tubules and Its Role in the Activation of Skeletal MuscleThe Journal of General Physiology, 63
W. Freygang, S. Rapoport, L. Peachey (1967)
Some Relations between Changes in the Linear Electrical Properties of Striated Muscle Fibers and Changes in UltrastructureThe Journal of General Physiology, 50
G. Falk, P. Fatt (1964)
Linear electrical properties of striated muscle fibres observed with intracellular electrodesProceedings of the Royal Society of London. Series B. Biological Sciences, 160
M. Dydyńska, D. Wilkie, H. Huxley, S. Page (1963)
The osmotic properties of striated muscle fibres in hypertonic solutionsThe Journal of Physiology, 169
(1973)
Sodium and water contents of sarcoplasm
(1975)
Net movements of Na, Li and Cl between sarcotubules and extracellular space in rat ventricles
R. Birks, D. Davey (1969)
Osmotic responses demonstrating the extracellular character of the sarcoplasmic reticulumThe Journal of Physiology, 202
A. Somlyo, H. Shuman, A. Somlyo (1977)
Elemental distribution in striated muscle and the effects of hypertonicity: Electron probe analysis of cryo sectionsThe Journal of Cell Biology, 74
(1976)
Muscle cell internal membranes as seen in thick preparations by high voltage electron microscopy
C. Franzini-armstrong, K. Porter (1964)
SARCOLEMMAL INVAGINATIONS CONSTITUTING THE T SYSTEM IN FISH MUSCLE FIBERSThe Journal of Cell Biology, 22
E. Conway (1957)
Nature and significance of concentration relations of potassium and sodium ions in skeletal muscle.Physiological reviews, 37 1
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Cellular Cl concentration of amphibian skeletal and heart muscle in vivo
M. Forbes, B. Plantholt, N. Sperelakis (1977)
Cytochemical staining procedures selective for sarcotubular systems of muscle: modifications and applications.Journal of ultrastructure research, 60 3
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David Smith (1961)
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The organization of sarcoplasmic reticulum in frog muscle
(1978)
The T-system and sarcoplasmic reticulum of rat extensor digitorum longus muscles exposed to hypertonic solutions
Striated muscles from Rana pipiens have been exposed for variable periods of time to Ringer solutions made hypertonic by addition of either sucrose or sodium chloride. The muscles have been rapid‐frozen and then prepared for electron microscopy by either freeze‐substitution, freeze‐fracture or cryoultramicrotomy. The only compartment greatly affected by hypertonicity is the transverse tubular system, which is visibly swollen. None of the elements of the sarcoplasmic reticulum increase in size.
The Journal of Physiology – Wiley
Published: Oct 1, 1978
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