Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study
The corticotectal projections, together with the corticobulbar (corticoreticular) projections, work in parallel with the corticospinal tract (CST) to influence motoneurons in the spinal cord both directly and indirectly via the brainstem descending pathways. The tectospinal tract (TST) originates in...
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Frontiers Media S.A.
2019-05-01
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Online Access: | https://www.frontiersin.org/article/10.3389/fnana.2019.00050/full |
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record_format |
Article |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Michela Fregosi Michela Fregosi Michela Fregosi Michela Fregosi Alessandro Contestabile Alessandro Contestabile Alessandro Contestabile Alessandro Contestabile Simon Badoud Simon Badoud Simon Badoud Simon Badoud Simon Borgognon Simon Borgognon Simon Borgognon Simon Borgognon Jérôme Cottet Jérôme Cottet Jérôme Cottet Jérôme Cottet Jean-François Brunet Jocelyne Bloch Martin E. Schwab Eric M. Rouiller |
spellingShingle |
Michela Fregosi Michela Fregosi Michela Fregosi Michela Fregosi Alessandro Contestabile Alessandro Contestabile Alessandro Contestabile Alessandro Contestabile Simon Badoud Simon Badoud Simon Badoud Simon Badoud Simon Borgognon Simon Borgognon Simon Borgognon Simon Borgognon Jérôme Cottet Jérôme Cottet Jérôme Cottet Jérôme Cottet Jean-François Brunet Jocelyne Bloch Martin E. Schwab Eric M. Rouiller Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study Frontiers in Neuroanatomy non-human primate anterograde tracing motor cortex brainstem Parkinson spinal cord injury |
author_facet |
Michela Fregosi Michela Fregosi Michela Fregosi Michela Fregosi Alessandro Contestabile Alessandro Contestabile Alessandro Contestabile Alessandro Contestabile Simon Badoud Simon Badoud Simon Badoud Simon Badoud Simon Borgognon Simon Borgognon Simon Borgognon Simon Borgognon Jérôme Cottet Jérôme Cottet Jérôme Cottet Jérôme Cottet Jean-François Brunet Jocelyne Bloch Martin E. Schwab Eric M. Rouiller |
author_sort |
Michela Fregosi |
title |
Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study |
title_short |
Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study |
title_full |
Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study |
title_fullStr |
Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study |
title_full_unstemmed |
Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing Study |
title_sort |
corticotectal projections from the premotor or primary motor cortex after cortical lesion or parkinsonian symptoms in adult macaque monkeys: a pilot tracing study |
publisher |
Frontiers Media S.A. |
series |
Frontiers in Neuroanatomy |
issn |
1662-5129 |
publishDate |
2019-05-01 |
description |
The corticotectal projections, together with the corticobulbar (corticoreticular) projections, work in parallel with the corticospinal tract (CST) to influence motoneurons in the spinal cord both directly and indirectly via the brainstem descending pathways. The tectospinal tract (TST) originates in the deep layers of the superior colliculus. In the present study, we analyzed the corticotectal projections from two motor cortical areas, namely the premotor cortex (PM) and the primary motor cortex (M1) in eight macaque monkeys subjected to either a cortical lesion of the hand area in M1 (n = 4) or Parkinson’s disease-like symptoms PD (n = 4). A subgroup of monkeys with cortical lesion was subjected to anti-Nogo-A antibody treatment whereas all PD monkeys were transplanted with Autologous Neural Cell Ecosystems (ANCEs). The anterograde tracer BDA was used to label the axonal boutons both en passant and terminaux in the ipsilateral superior colliculus. Individual axonal boutons were charted in the different layers of the superior colliculus. In intact animals, we previously observed that corticotectal projections were denser when originating from PM than from M1. In the present M1 lesioned monkeys, as compared to intact ones the corticotectal projection originating from PM was decreased when treated with anti-Nogo-A antibody but not in untreated monkeys. In PD-like symptoms’ monkeys, on the other hand, there was no consistent change affecting the corticotectal projection as compared to intact monkeys. The present pilot study overall suggests that the corticotectal projection is less affected by M1 lesion or PD symptoms than the corticoreticular projection previously reported in the same animals. |
topic |
non-human primate anterograde tracing motor cortex brainstem Parkinson spinal cord injury |
url |
https://www.frontiersin.org/article/10.3389/fnana.2019.00050/full |
work_keys_str_mv |
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doaj-25b6646e1a2648baac24d289e6e5ea122020-11-25T02:18:32ZengFrontiers Media S.A.Frontiers in Neuroanatomy1662-51292019-05-011310.3389/fnana.2019.00050449659Corticotectal Projections From the Premotor or Primary Motor Cortex After Cortical Lesion or Parkinsonian Symptoms in Adult Macaque Monkeys: A Pilot Tracing StudyMichela Fregosi0Michela Fregosi1Michela Fregosi2Michela Fregosi3Alessandro Contestabile4Alessandro Contestabile5Alessandro Contestabile6Alessandro Contestabile7Simon Badoud8Simon Badoud9Simon Badoud10Simon Badoud11Simon Borgognon12Simon Borgognon13Simon Borgognon14Simon Borgognon15Jérôme Cottet16Jérôme Cottet17Jérôme Cottet18Jérôme Cottet19Jean-François Brunet20Jocelyne Bloch21Martin E. Schwab22Eric M. Rouiller23Section of Medicine, Department of Neurosciences and Movement Sciences, Faculty of Science and Medicine, University of Fribourg, Fribourg, SwitzerlandFribourg Cognition Center, Fribourg, SwitzerlandPlatform of Translational Neurosciences, Fribourg, SwitzerlandSwiss Primate Competence Center for Research (SPCCR), Fribourg, SwitzerlandSection of Medicine, Department of Neurosciences and Movement Sciences, Faculty of Science and Medicine, University of Fribourg, Fribourg, SwitzerlandFribourg Cognition Center, Fribourg, SwitzerlandPlatform of Translational Neurosciences, Fribourg, SwitzerlandSwiss Primate Competence Center for Research (SPCCR), Fribourg, SwitzerlandSection of Medicine, Department of Neurosciences and Movement Sciences, Faculty of Science and Medicine, University of Fribourg, Fribourg, SwitzerlandFribourg Cognition Center, Fribourg, SwitzerlandPlatform of Translational Neurosciences, Fribourg, SwitzerlandSwiss Primate Competence Center for Research (SPCCR), Fribourg, SwitzerlandSection of Medicine, Department of Neurosciences and Movement Sciences, Faculty of Science and Medicine, University of Fribourg, Fribourg, SwitzerlandFribourg Cognition Center, Fribourg, SwitzerlandPlatform of Translational Neurosciences, Fribourg, SwitzerlandSwiss Primate Competence Center for Research (SPCCR), Fribourg, SwitzerlandSection of Medicine, Department of Neurosciences and Movement Sciences, Faculty of Science and Medicine, University of Fribourg, Fribourg, SwitzerlandFribourg Cognition Center, Fribourg, SwitzerlandPlatform of Translational Neurosciences, Fribourg, SwitzerlandSwiss Primate Competence Center for Research (SPCCR), Fribourg, SwitzerlandCell Production Center (CPC), Lausanne University Hospital (CHUV), Lausanne, SwitzerlandDepartment of Neurosurgery, Lausanne University Hospital (CHUV), Lausanne, SwitzerlandBrain Research Institute, University of Zurich, Zurich, SwitzerlandSection of Medicine, Department of Neurosciences and Movement Sciences, Faculty of Science and Medicine, University of Fribourg, Fribourg, SwitzerlandThe corticotectal projections, together with the corticobulbar (corticoreticular) projections, work in parallel with the corticospinal tract (CST) to influence motoneurons in the spinal cord both directly and indirectly via the brainstem descending pathways. The tectospinal tract (TST) originates in the deep layers of the superior colliculus. In the present study, we analyzed the corticotectal projections from two motor cortical areas, namely the premotor cortex (PM) and the primary motor cortex (M1) in eight macaque monkeys subjected to either a cortical lesion of the hand area in M1 (n = 4) or Parkinson’s disease-like symptoms PD (n = 4). A subgroup of monkeys with cortical lesion was subjected to anti-Nogo-A antibody treatment whereas all PD monkeys were transplanted with Autologous Neural Cell Ecosystems (ANCEs). The anterograde tracer BDA was used to label the axonal boutons both en passant and terminaux in the ipsilateral superior colliculus. Individual axonal boutons were charted in the different layers of the superior colliculus. In intact animals, we previously observed that corticotectal projections were denser when originating from PM than from M1. In the present M1 lesioned monkeys, as compared to intact ones the corticotectal projection originating from PM was decreased when treated with anti-Nogo-A antibody but not in untreated monkeys. In PD-like symptoms’ monkeys, on the other hand, there was no consistent change affecting the corticotectal projection as compared to intact monkeys. The present pilot study overall suggests that the corticotectal projection is less affected by M1 lesion or PD symptoms than the corticoreticular projection previously reported in the same animals.https://www.frontiersin.org/article/10.3389/fnana.2019.00050/fullnon-human primateanterograde tracingmotor cortexbrainstemParkinsonspinal cord injury |