Literature DB >> 1374346

The postnatal spatial and temporal development of corticospinal projections in cats.

J M Alisky1, T D Swink, D L Tolbert.   

Abstract

Orthograde labeling and immunocytochemical techniques were used to study the postnatal spatial and temporal development of corticospinal projections in cats. Findings from the orthograde labeling studies indicate that there are three major phases in the spatial development of corticospinal projections: an early period (1-10 postnatal days) when cortical axons grow into the spinal gray from the white matter; an intermediate period (2-5 postnatal weeks) where corticospinal axons develop terminal arborizations in a rostral to caudal, medial to lateral and intermediate gray to dorsal and ventral horn sequence; and, a late period (6-7 postnatal weeks) during which some corticospinal projections are eliminated. The time period over which cortical axons grow into the spinal cord was determined immunocytochemically using a monoclonal antibody against a microtubule associated protein (MAP 1B) present in growing axons. The corticospinal tracts were strongly immunoreactive for MAP 1B during the first three postnatal weeks. MAP 1B immunostaining of these tracts started to decline in the fourth postnatal week and was completely absent by five weeks of age. These findings indicate that the postnatal development of corticospinal projections is spatially and temporally protracted in cats.

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Year:  1992        PMID: 1374346     DOI: 10.1007/bf02259101

Source DB:  PubMed          Journal:  Exp Brain Res        ISSN: 0014-4819            Impact factor:   1.972


  20 in total

1.  Descending pathways to the spinal cord, III: Sites of origin of the corticospinal tract.

Authors:  R J Nudo; R B Masterton
Journal:  J Comp Neurol       Date:  1990-06-22       Impact factor: 3.215

2.  The expression of phosphorylated and non-phosphorylated forms of MAP5 in the amphibian CNS.

Authors:  C Viereck; A Matus
Journal:  Brain Res       Date:  1990-02-05       Impact factor: 3.252

3.  Growth of the corticospinal tract and the development of placing reactions in the postnatal rat.

Authors:  J M Donatelle
Journal:  J Comp Neurol       Date:  1977-09-15       Impact factor: 3.215

4.  Postnatal redistribution of pericruciate motor cortical projections within the kitten spinal cord.

Authors:  E Theriault; W G Tatton
Journal:  Brain Res Dev Brain Res       Date:  1989-02-01

5.  Tetramethyl benzidine for horseradish peroxidase neurohistochemistry: a non-carcinogenic blue reaction product with superior sensitivity for visualizing neural afferents and efferents.

Authors:  M M Mesulam
Journal:  J Histochem Cytochem       Date:  1978-02       Impact factor: 2.479

6.  Axon growth: roles of microfilaments and microtubules.

Authors:  K M Yamada; B S Spooner; N K Wessells
Journal:  Proc Natl Acad Sci U S A       Date:  1970-08       Impact factor: 11.205

7.  Localization of an epitope of a microtubule-associated protein 1x in outgrowing axons of the developing rat central nervous system.

Authors:  R A Calvert; P L Woodhams; B H Anderton
Journal:  Neuroscience       Date:  1987-10       Impact factor: 3.590

8.  The postnatal development of corticotrigeminal projections in the cat.

Authors:  D L Tolbert; R C Dunn; G A Vogler
Journal:  J Comp Neurol       Date:  1984-10-01       Impact factor: 3.215

9.  The early development of corticobulbar and corticospinal systems. Studies using the North American opossum.

Authors:  G F Martin; T Cabana; J L Culberson; J J Curry; I Tschismadia
Journal:  Anat Embryol (Berl)       Date:  1980

10.  Corticospinal development in the North-American opossum: evidence for a sequence in the growth of cortical axons in the spinal cord and for transient projections.

Authors:  T Cabana; G F Martin
Journal:  Brain Res       Date:  1985-11       Impact factor: 3.252

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  12 in total

Review 1.  Harnessing activity-dependent plasticity to repair the damaged corticospinal tract in an animal model of cerebral palsy.

Authors:  John H Martin; Samit Chakrabarty; Kathleen M Friel
Journal:  Dev Med Child Neurol       Date:  2011-09       Impact factor: 5.449

2.  Motor Cortex Activity Organizes the Developing Rubrospinal System.

Authors:  Preston T J A Williams; John H Martin
Journal:  J Neurosci       Date:  2015-09-30       Impact factor: 6.167

Review 3.  How can corticospinal tract neurons contribute to ipsilateral movements? A question with implications for recovery of motor functions.

Authors:  Elzbieta Jankowska; Stephen A Edgley
Journal:  Neuroscientist       Date:  2006-02       Impact factor: 7.519

4.  Differential activity-dependent development of corticospinal control of movement and final limb position during visually guided locomotion.

Authors:  K M Friel; T Drew; J H Martin
Journal:  J Neurophysiol       Date:  2007-03-21       Impact factor: 2.714

Review 5.  Activity- and use-dependent plasticity of the developing corticospinal system.

Authors:  John H Martin; Kathleen M Friel; Iran Salimi; Samit Chakrabarty
Journal:  Neurosci Biobehav Rev       Date:  2007-05-17       Impact factor: 8.989

6.  Activity-dependent codevelopment of the corticospinal system and target interneurons in the cervical spinal cord.

Authors:  Samit Chakrabarty; Brandon Shulman; John H Martin
Journal:  J Neurosci       Date:  2009-07-08       Impact factor: 6.167

7.  Bilateral activity-dependent interactions in the developing corticospinal system.

Authors:  Kathleen M Friel; John H Martin
Journal:  J Neurosci       Date:  2007-10-10       Impact factor: 6.167

8.  Protracted postnatal development of corticospinal projections from the primary motor cortex to hand motoneurones in the macaque monkey.

Authors:  J Armand; S A Edgley; R N Lemon; E Olivier
Journal:  Exp Brain Res       Date:  1994       Impact factor: 1.972

9.  Postnatal development of corticospinal projections from motor cortex to the cervical enlargement in the macaque monkey.

Authors:  J Armand; E Olivier; S A Edgley; R N Lemon
Journal:  J Neurosci       Date:  1997-01-01       Impact factor: 6.167

10.  Postnatal development of a segmental switch enables corticospinal tract transmission to spinal forelimb motor circuits.

Authors:  Samit Chakrabarty; John H Martin
Journal:  J Neurosci       Date:  2010-02-10       Impact factor: 6.167

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