Distribution of two splice variants of the glutamate transporter GLT-1 in the developing rat retina

The distributions of a carboxyl terminal splice variant of the glutamate transporter GLT‐1, referred to as GLT‐1B, and the carboxyl terminus of the originally described variant of GLT‐1, referred to hereafter as GLT‐1α, were examined using specific antisera. GLT‐1B was present in the retina at very...

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Veröffentlicht in:Journal of comparative neurology (1911) 2002-06, Vol.447 (4), p.323-330
Hauptverfasser: Reye, Peter, Sullivan, Robert, Pow, David V.
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description The distributions of a carboxyl terminal splice variant of the glutamate transporter GLT‐1, referred to as GLT‐1B, and the carboxyl terminus of the originally described variant of GLT‐1, referred to hereafter as GLT‐1α, were examined using specific antisera. GLT‐1B was present in the retina at very early developmental stages. Labelling was demonstrable at embryonic day 14, and strong labelling was evident by embryonic day 18. Such labelling was initially restricted to populations of cone photoreceptors, the processes of which extended through the entire thickness of the retina and appeared to make contact with the retinal ganglion cells. During postnatal development the GLT‐1B‐positive photoreceptor processes retracted to form the outer plexiform layer, and around postnatal day 7, GLT‐1B‐immunoreactive bipolar cells appeared. The pattern of labelling of bipolar cell processes within the inner plexiform layer changed during postnatal development. Two strata of strongly immunoreactive terminals were initially evident in the inner plexiform layer, but by adulthood these two bands were no longer evident and labelling was restricted to the somata and processes (but not synaptic terminals) of the bipolar cells, as well as the somata, processes, and terminals of cone photoreceptors. By contrast, GLT‐1α appeared late in postnatal development and was restricted mainly to a population of amacrine cells, although transient labelling was also associated with punctate elements in the outer plexiform layer, which may represent photoreceptor terminals. J. Comp. Neurol. 447:323–330, 2002. © 2002 Wiley‐Liss, Inc.
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GLT‐1B was present in the retina at very early developmental stages. Labelling was demonstrable at embryonic day 14, and strong labelling was evident by embryonic day 18. Such labelling was initially restricted to populations of cone photoreceptors, the processes of which extended through the entire thickness of the retina and appeared to make contact with the retinal ganglion cells. During postnatal development the GLT‐1B‐positive photoreceptor processes retracted to form the outer plexiform layer, and around postnatal day 7, GLT‐1B‐immunoreactive bipolar cells appeared. The pattern of labelling of bipolar cell processes within the inner plexiform layer changed during postnatal development. Two strata of strongly immunoreactive terminals were initially evident in the inner plexiform layer, but by adulthood these two bands were no longer evident and labelling was restricted to the somata and processes (but not synaptic terminals) of the bipolar cells, as well as the somata, processes, and terminals of cone photoreceptors. By contrast, GLT‐1α appeared late in postnatal development and was restricted mainly to a population of amacrine cells, although transient labelling was also associated with punctate elements in the outer plexiform layer, which may represent photoreceptor terminals. J. Comp. 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Comp. Neurol</addtitle><description>The distributions of a carboxyl terminal splice variant of the glutamate transporter GLT‐1, referred to as GLT‐1B, and the carboxyl terminus of the originally described variant of GLT‐1, referred to hereafter as GLT‐1α, were examined using specific antisera. GLT‐1B was present in the retina at very early developmental stages. Labelling was demonstrable at embryonic day 14, and strong labelling was evident by embryonic day 18. Such labelling was initially restricted to populations of cone photoreceptors, the processes of which extended through the entire thickness of the retina and appeared to make contact with the retinal ganglion cells. During postnatal development the GLT‐1B‐positive photoreceptor processes retracted to form the outer plexiform layer, and around postnatal day 7, GLT‐1B‐immunoreactive bipolar cells appeared. The pattern of labelling of bipolar cell processes within the inner plexiform layer changed during postnatal development. Two strata of strongly immunoreactive terminals were initially evident in the inner plexiform layer, but by adulthood these two bands were no longer evident and labelling was restricted to the somata and processes (but not synaptic terminals) of the bipolar cells, as well as the somata, processes, and terminals of cone photoreceptors. By contrast, GLT‐1α appeared late in postnatal development and was restricted mainly to a population of amacrine cells, although transient labelling was also associated with punctate elements in the outer plexiform layer, which may represent photoreceptor terminals. J. Comp. 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subjects Aging - metabolism
Alternative Splicing - physiology
amacrine
Amacrine Cells - cytology
Amacrine Cells - metabolism
Animals
Animals, Newborn
antibody
bipolar cell
Cell Differentiation - physiology
cone photoreceptor
Excitatory Amino Acid Transporter 2 - genetics
Excitatory Amino Acid Transporter 2 - metabolism
Fetus
Glutamic Acid - metabolism
Immunohistochemistry
Neural Pathways - cytology
Neural Pathways - metabolism
Presynaptic Terminals - metabolism
Presynaptic Terminals - ultrastructure
Protein Isoforms
Protein Structure, Tertiary - physiology
Rats
Rats, Inbred Strains - embryology
Rats, Inbred Strains - growth & development
Rats, Inbred Strains - metabolism
Retina - embryology
Retina - growth & development
Retina - metabolism
Retinal Cone Photoreceptor Cells - cytology
Retinal Cone Photoreceptor Cells - metabolism
Retinal Rod Photoreceptor Cells - cytology
Retinal Rod Photoreceptor Cells - metabolism
rod photoreceptor
Synaptic Transmission - physiology
synaptogenesis
title Distribution of two splice variants of the glutamate transporter GLT-1 in the developing rat retina
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