Literature DB >> 6189617

The origin of central pinealopetal nerve fibers in the Mongolian gerbil as demonstrated by the retrograde transport of horseradish peroxidase.

M Møller, H W Korf.   

Abstract

The location of perikarya and nerve fibers projecting via the habenular and posterior commissures from the brain into the pineal organ of the Mongolian gerbil was investigated by the use of the retrograde horseradish peroxidase (HRP)-tracing method. After microiontophoretic or hydraulic injection of the tracer into the superficial pineal gland via a glass micropipette, and after survival periods of 6 to 48 h, the animals were transcardially perfused and the brains processed for the histochemical demonstration of the enzyme. In the pineal stalk 15 to 20 nerve fibers, including 4 to 7 myelinated elements, were traced back to the brain. HRP-labeled perikarya were located in the medial and lateral habenular nuclei as well as in the nucleus of the posterior commissure. Few fibers projected rostrally to perikarya in the paraventricular nucleus of the hypothalamus. A striking and persistent finding was the labeling of fibers that, in the habenular area, bent laterad and continued ventral to the optic tract. These fibers originated from perikarya located in the dorsal nucleus of the lateral geniculate body. These results strongly suggest a central innervation of the pineal organ in the Mongolian gerbil originating from hypothalamic and limbic areas of the brain as well as from the optic system.

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Year:  1983        PMID: 6189617     DOI: 10.1007/bf00213805

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


  28 in total

1.  Pineal body: neuronal recording.

Authors:  N Dafny; R McClung
Journal:  Experientia       Date:  1975-03-15

Review 2.  Neural control of pineal function in mammals and birds.

Authors:  R Y Moore
Journal:  J Neural Transm Suppl       Date:  1978

3.  Peripheral sympathetic innervation and serotonin cells in the habenular region of the rat brain.

Authors:  A Björklund; C Owman; K A West
Journal:  Z Zellforsch Mikrosk Anat       Date:  1972

4.  The hypothalamic suprachiasmatic nucleus of rat: intrinsic anatomy.

Authors:  A N Van den Pol
Journal:  J Comp Neurol       Date:  1980-06-15       Impact factor: 3.215

5.  Electrophysiological evidence of photic, acoustic, and central input to the pineal body and hypothalamus.

Authors:  N Dafny
Journal:  Exp Neurol       Date:  1977-05       Impact factor: 5.330

6.  Nervous connections between the brain and the pineal gland in the cat (Felis catus) and the monkey (Cercopithecus aethiops).

Authors:  J T Nielsen; M Moller
Journal:  Cell Tissue Res       Date:  1975-08-25       Impact factor: 5.249

7.  Modes of protein and peptide uptake in the pineal gland of the Mongolian gerbil: an ultrastructural study.

Authors:  M G Welsh; A J Beitz
Journal:  Am J Anat       Date:  1981-12

8.  Electrophysiological study of evoked electrical activity in the pineal gland.

Authors:  J H Pazo
Journal:  J Neural Transm       Date:  1981       Impact factor: 3.575

9.  Evidence for a nervous connection between the brain and the pineal organ in the guinea pig.

Authors:  H W Korf; U Wagner
Journal:  Cell Tissue Res       Date:  1980       Impact factor: 5.249

10.  Afferent connections of the habenular nuclei in the rat. A horseradish peroxidase study, with a note on the fiber-of-passage problem.

Authors:  M Herkenham; W J Nauta
Journal:  J Comp Neurol       Date:  1977-05-01       Impact factor: 3.215

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  18 in total

1.  Synaptic junctions between sympathetic axon terminals and pinealocytes in the monkey Macaca fascicularis.

Authors:  E A Ling; S H Tan; W C Wong
Journal:  Anat Embryol (Berl)       Date:  1990

2.  Direct retinal projections of the "non-image forming" system to the hypothalamus, anterodorsal thalamus and basal telencephalon of mink (Mustela vison) brain.

Authors:  L Martinet; J Servière; J Peytevin
Journal:  Exp Brain Res       Date:  1992       Impact factor: 1.972

3.  Ultrastructure of the pineal gland of the monkey, Macaca fascicularis, with special reference to the presence of synaptic junctions on pinealocytes.

Authors:  E A Ling; S H Tan; T Y Yick; W C Wong
Journal:  Anat Embryol (Berl)       Date:  1989

4.  Efferent projections from the lateral geniculate nucleus to the pineal complex of the Mongolian gerbil (Meriones unguiculatus).

Authors:  J D Mikkelsen; B Cozzi; M Møller
Journal:  Cell Tissue Res       Date:  1991-04       Impact factor: 5.249

5.  Immunohistochemical localization of vasoactive intestinal peptide (VIP) in the circumventricular organs of the rat.

Authors:  J D Mikkelsen
Journal:  Cell Tissue Res       Date:  1989-02       Impact factor: 5.249

6.  Effects of aggressive encounters on pineal melatonin formation in male gerbils (Meriones unguiculatus, Cricetidae).

Authors:  T Heinzeller; B N Joshi; F Nürnberger; R J Reiter
Journal:  J Comp Physiol A       Date:  1988-11       Impact factor: 1.836

7.  Direct projections to the rat pineal gland via the stria medullaris thalami. An anterograde tracing study by use of horseradish peroxidase.

Authors:  S Reuss; M Møller
Journal:  Cell Tissue Res       Date:  1986       Impact factor: 5.249

8.  Tyrosine hydroxylase- and neuropeptide Y-immunoreactive nerve fibers in the pineal complex of untreated rats and rats following removal of the superior cervical ganglia.

Authors:  E T Zhang; J D Mikkelsen; M Møller
Journal:  Cell Tissue Res       Date:  1991-07       Impact factor: 5.249

9.  The capacity of central and peripheral catecholaminergic neurons to innervate the pineal organ and cerebral cortex of the rat: in vitro immunohistochemical observations.

Authors:  T Nonaka; M Araki; H Kimura; I Nagatsu; F Satoh; T Masuzawa
Journal:  Cell Tissue Res       Date:  1993-09       Impact factor: 5.249

10.  Central neural control of pineal melatonin synthesis in the rat.

Authors:  M Møller; S Reuss; J Olcese; J Stehle; L Vollrath
Journal:  Experientia       Date:  1987-02-15
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