Literature DB >> 7460004

Retinal projections in European Salamandridae.

B Fritzsch.   

Abstract

The retinal projections to the brain were studied in three species of European Salamandridae using anterograde transport of horseradish peroxidase and autoradiography. The results obtained were basically identical for all species and confirmed earlir findings on the fiber supply to the preoptic nucleus and the basal optic neuropil. In the anterior thalamus projections to three distinct terminal fields are clearly visible: (i) the diffusely stained corpus geniculatum thalamicum, (ii) the neuropil of Bellonci, pars lateralis, and (iii) a dorsomedial terminal field, the neuropil of Bellonci, pars medialis. Caudal to these terminal fields is an almost terminal-free region, the lateral neuropil. In the posterior thalamus a medial terminal field, the uncinate field, and a laterally located terminal field, the posterior thalamic neuropil, are distinguishable. The tectum opticum displays as many as four dense layers of retinofugal fibers and terminals in the rostral part and, in addition, a more densely stained strip of neuropil running from rostral to caudal over the tectum. The extent of ipsilateral fibers is greater than previously reported in other urodele species. They supply the medial and the lateral parts of the neuropoil of Bellonci, the uncinate field, and reach the tectum opticum via the medial optic tract. Further, they form terminals in the innermost optic fiber layer throughout the rostral half of the ipsilateral tectum. A small proportion of ipsilateral fibers contributes very sparsely to all other thalamic terminal fields, leaving only the caudal part of the tectum and several layers of the rostral tectum completely free of a direct retinofugal fiber supply.

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Year:  1980        PMID: 7460004     DOI: 10.1007/bf00234791

Source DB:  PubMed          Journal:  Cell Tissue Res        ISSN: 0302-766X            Impact factor:   5.249


  17 in total

1.  Technical considerations on the use of horseradish peroxidase as a neuronal marker.

Authors:  J C Adams
Journal:  Neuroscience       Date:  1977       Impact factor: 3.590

2.  Application of cobalt-filling technique to show retinal projections in the frog.

Authors:  G Lázár
Journal:  Neuroscience       Date:  1978       Impact factor: 3.590

3.  A proposal for a common nomenclature for some optic nuclei in vertebrates and the evidence for a common origin of two such cell groups.

Authors:  S O Ebbesson
Journal:  Brain Behav Evol       Date:  1972       Impact factor: 1.808

4.  A route for direct retinal input to the preoptic hypothalamus: dendritic projections into the optic chiasm.

Authors:  J Silver; S Brand
Journal:  Am J Anat       Date:  1979-07

5.  Retinal projections in the Australian lungfish.

Authors:  R G Northcutt
Journal:  Brain Res       Date:  1980-03-03       Impact factor: 3.252

6.  On the organization of central visual pathways in vertebrates.

Authors:  S O Ebbesson
Journal:  Brain Behav Evol       Date:  1970       Impact factor: 1.808

7.  The ultrastructure of Wallerian degeneration in the severed optic nerve of the newt (Triturus viridescens).

Authors:  J E Turner; M Singer
Journal:  Anat Rec       Date:  1975-02

8.  An autoradiographic study of the retinal projection in Xenopus laevis with comparisons to Rana.

Authors:  R L Levine
Journal:  J Comp Neurol       Date:  1980-01-01       Impact factor: 3.215

9.  The blue reaction product in horseradish peroxidase neurohistochemistry: incubation parameters and visibility.

Authors:  M M Mesulam
Journal:  J Histochem Cytochem       Date:  1976-12       Impact factor: 2.479

10.  Optic fiber projections of the tiger salamander Ambystoma tigrinum.

Authors:  E R Gruberg
Journal:  J Hirnforsch       Date:  1973
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  12 in total

1.  Dissociation between the circadian rhythm of locomotor activity and the pineal clock in the Japanese newt.

Authors:  A Chiba; M Kikuchi; K Aoki
Journal:  J Comp Physiol A Neuroethol Sens Neural Behav Physiol       Date:  2003-07-03       Impact factor: 1.836

2.  Retinal projections in the caecilian Ichthyophis kohtaoensis (Amphibia, Gymnophiona).

Authors:  W Himstedt; G Manteuffel
Journal:  Cell Tissue Res       Date:  1985       Impact factor: 5.249

3.  Projections to the midbrain tectum in Salamandra salamandra L.

Authors:  T Finkenstädt; S O Ebbesson; J P Ewert
Journal:  Cell Tissue Res       Date:  1983       Impact factor: 5.249

4.  The pathway controlling the pupillary light reflex in urodeles.

Authors:  J Henning; W Himstedt
Journal:  Exp Brain Res       Date:  1994       Impact factor: 1.972

5.  Retinofugal projections in the eel, Anguilla anguilla L. (Teleostei), visualized by the cobalt-filling technique.

Authors:  P Ekström
Journal:  Cell Tissue Res       Date:  1982       Impact factor: 5.249

Review 6.  Gene, cell, and organ multiplication drives inner ear evolution.

Authors:  Bernd Fritzsch; Karen L Elliott
Journal:  Dev Biol       Date:  2017-09-01       Impact factor: 3.582

7.  Electrophysiology and anatomy of direction-specific pretectal units in Salamandra salamandra.

Authors:  G Manteuffel
Journal:  Exp Brain Res       Date:  1984       Impact factor: 1.972

8.  Development of retinofugal neuropil areas in the brain of the alpine newt, Triturus alpestris.

Authors:  G Rettig; B Fritzsch; W Himstedt
Journal:  Anat Embryol (Berl)       Date:  1981

9.  Development of the amphibian oculomotor complex: evidences for migration of oculomotor motoneurons across the midline.

Authors:  C Naujoks-Manteuffel; R Sonntag; B Fritzsch
Journal:  Anat Embryol (Berl)       Date:  1991

10.  Development of retinofugal neuropil areas in the brain of the alpine newt, Triturus alpestris. II. Topographic organization and formation of projections.

Authors:  G Rettig
Journal:  Anat Embryol (Berl)       Date:  1988
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