Biochemistry of Labyrinthine Fluids: Inorganic Substances

Fernández, Ceneida

doi:10.1001/archotol.1967.00760050224023

Cited by 29 publications

(6 citation statements)

References 41 publications

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“…(a) Endolymph and Perilymph Several authors have measured the electrolytic (e.g., Smith et a!., 1954;Citron et a!., 1956;Rauch, 1958Rauch, , 1964Rauch and Kostlin, 1958;Murray and Potts, 1961;Fernandez, 1967;reviewed by Trincker, 1962, and Lowenstein, 1974 and physical (e.g., Kaieda, 1930;Rossi, 1914;von Bekesy, 1960;Money eta!., 1966Money eta!., , 1971Steer, 1967;Steer eta!., 1967;ten Kate, 1969;ten Kate et a!., 1970) properties of the endolymph and perilymph, summarized results having been shown in Table 2-1 of Chapter 2. For the present purpose, note that the two fluids appear to be of slightly different density and that they are physically separate from one another.…”

Section: The Real Semicircular Canalmentioning

confidence: 99%

Mammalian Vestibular Physiology

Wilson¹,

Jones²

1979

696

203

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Ali rights reservedNo part of this book may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, microfllming, recording, or otherwise, without written permission from the Publisher PrefaceIt is easy to underrate the importance of a sensory system whose receptor is buried deep within the skull and of whose performance we are usually not aware. It is only when it malfunctions that we know we have a vestibular system! Unraveling the mechanisms by which activation of the vestibular labyrinth exerts its varied effects presents a great challenge, which increasing numbers of investigators are rushing to meet. At this time a period of transition appears to have been reached. On the one hand, physiological and anatomical techniques have provided extensive information about the properties of the receptor and of some of the pathways that link it to the musculature. On the other hand, extensive behavioral and psychophysical studies provide different insights into the mechanisms involved in vestibular reflexes. Until recently there has been relatively 1ittle interaction between the practitioners of these two widely different approaches. It has been our goal to assess and describe the progress that has been made in both areas and, when possible, to make a synthesis of the results. As will be seen, numerous questions are raised in the process, and we hope that they will help in pointing the way to further investigations.

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Section: The Real Semicircular Canalmentioning

confidence: 99%

Mammalian Vestibular Physiology

Wilson¹,

Jones²

1979

696

203

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“…After this study many authors have reported results of the chemical analysis of cochlear fluids in various animal species. These results have been reviewed by Maggio (1966) and Fernández (1967). Although there are variations in the reported data, it is consistently confirmed that both mammalian cochlear and vestibular endolymph contain a high K + and a low Na + concentration.…”

Section: Compositionmentioning

confidence: 76%

Cation Transport and Cochlear Function

Kuijpers

1969

Acta Oto-Laryngologica

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“…31 It was suggested that endolymph may be produced by exchange of inorganic ions across Reissner's membrane and by other tissues in the cochlear duct in addition to the stria vascularis. The NFKS appears to be involved in the secre-tion and absorption of endolymph and perilymph.…”

Section: Discussionmentioning

confidence: 99%

Immuno-Electron Microscopic Study of Keratin Distribution in the Cochlea Using Monoclonal Antibody

Shi¹,

Kobari²,

Ohtani³

et al. 1990

Ann Otol Rhinol Laryngol

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Keratin distribution in the cochlea has been studied immuno-electron microscopically by both pre-embedding and postembedding methods. Keratin immunoreactivity in the guinea pig cochlea was clearly demonstrated in Hensen's cells, the reticular lamina surrounding both outer and inner hair cells, outer and inner pillar cells, Claudius' cells, inner and external sulcus cells, interdental cells of the spiral limbus, Reissner's membrane, border cells, inner phalangeal cells, Deiters' cells, and spiral prominence cells. Keratin expression at the ultrastructural level showed a nonfilamentous keratin system in the cytoplasm of cochlear supporting cells.

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Biochemistry of Labyrinthine Fluids: Inorganic Substances

Cited by 29 publications

References 41 publications

Mammalian Vestibular Physiology

Mammalian Vestibular Physiology

Cation Transport and Cochlear Function

Immuno-Electron Microscopic Study of Keratin Distribution in the Cochlea Using Monoclonal Antibody

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