A population code for spatial representation in the zebrafish telencephalon.
Spatial learning in teleost fish requires an intact telencephalon...
Télencéphale : Questions médicales fréquentes
Questions fréquentes et termes MeSH associés
Diagnostic 5
#1
Comment diagnostiquer une anomalie du télencéphale ?
Un IRM cérébral est souvent utilisé pour visualiser les anomalies du télencéphale.
#2
Quels tests neurologiques sont utilisés ?
Des tests d'évaluation cognitive et des examens neurologiques sont réalisés.
#3
Quels signes cliniques indiquent un problème ?
Des troubles de la mémoire, des changements de comportement ou des convulsions peuvent indiquer un problème.
#4
Le télencéphale peut-il être affecté par des infections ?
Oui, des infections comme l'encéphalite peuvent affecter le télencéphale.
#5
Quels examens complémentaires sont utiles ?
Des tests sanguins et des électroencéphalogrammes peuvent compléter le diagnostic.
Symptômes 5
#1
Quels sont les symptômes d'une lésion du télencéphale ?
Les symptômes incluent des troubles de la mémoire, des difficultés de langage et des changements de personnalité.
#2
Comment se manifestent les troubles moteurs ?
Ils peuvent se manifester par une faiblesse musculaire ou des mouvements involontaires.
#3
Les troubles sensoriels sont-ils fréquents ?
Oui, des troubles sensoriels comme des engourdissements peuvent survenir.
#4
Peut-on avoir des crises épileptiques ?
Oui, des lésions au télencéphale peuvent provoquer des crises épileptiques.
#5
Quels changements de comportement peuvent survenir ?
Des changements d'humeur, d'agressivité ou d'apathie peuvent être observés.
Prévention 5
#1
Comment prévenir les lésions cérébrales ?
Éviter les traumatismes crâniens et adopter un mode de vie sain peut aider.
#2
Les vaccinations peuvent-elles aider ?
Oui, certaines vaccinations peuvent prévenir des infections affectant le cerveau.
#3
Quel rôle joue l'alimentation ?
Une alimentation équilibrée peut soutenir la santé cérébrale et prévenir des troubles.
#4
L'exercice physique est-il bénéfique ?
Oui, l'exercice régulier améliore la circulation sanguine et la santé cérébrale.
#5
Comment gérer le stress pour protéger le cerveau ?
Des techniques de gestion du stress comme la méditation peuvent être bénéfiques.
Traitements 5
#1
Quels traitements sont disponibles pour les lésions ?
Le traitement peut inclure la rééducation, la médication ou la chirurgie selon la gravité.
#2
Comment traiter les crises épileptiques ?
Les médicaments antiépileptiques sont souvent prescrits pour contrôler les crises.
#3
La thérapie cognitive est-elle utile ?
Oui, la thérapie cognitive peut aider à améliorer les fonctions cognitives affectées.
#4
Quels médicaments sont utilisés pour les troubles de l'humeur ?
Des antidépresseurs ou des stabilisateurs de l'humeur peuvent être prescrits.
#5
La chirurgie est-elle une option ?
Oui, la chirurgie peut être envisagée pour retirer des tumeurs ou des lésions.
Complications 5
#1
Quelles complications peuvent survenir après une lésion ?
Des complications incluent des troubles cognitifs persistants et des crises récurrentes.
#2
Les infections peuvent-elles être une complication ?
Oui, des infections secondaires peuvent survenir après une lésion cérébrale.
#3
Comment les troubles de la mémoire évoluent-ils ?
Ils peuvent s'aggraver avec le temps, affectant la qualité de vie.
#4
Les troubles de l'humeur peuvent-ils persister ?
Oui, des troubles de l'humeur peuvent devenir chroniques après une lésion.
#5
Quelles sont les conséquences à long terme ?
Les conséquences peuvent inclure des déficits cognitifs et des limitations fonctionnelles.
Facteurs de risque 5
#1
Quels sont les facteurs de risque pour les lésions cérébrales ?
Les traumatismes crâniens, les infections et les antécédents familiaux sont des facteurs de risque.
#2
L'âge influence-t-il le risque ?
Oui, le risque de troubles cérébraux augmente avec l'âge.
#3
Le mode de vie joue-t-il un rôle ?
Oui, un mode de vie sédentaire et une mauvaise alimentation augmentent le risque.
#4
Les maladies cardiovasculaires sont-elles un facteur ?
Oui, elles augmentent le risque de troubles cérébraux et de lésions.
#5
Le stress chronique est-il un facteur de risque ?
Oui, le stress chronique peut contribuer à des troubles cérébraux.
Contenu validé par Dr Olivier Menir
Expert en Médecine, Optimisation des Parcours de Soins et Révision Médicale
Validation scientifique effectuée le 15/04/2026
Contenu vérifié selon les dernières recommandations médicales
Sous-catégories
61 au total
└─
Cerveau
CerebrumD054022 -
A08.186.211.200.885.287
└─
Bandelette diagonale de Broca
Diagonal Band of BrocaD020667 -
A08.186.211.200.885.380
└─
Capsule externe
External CapsuleD066271 -
A08.186.211.200.885.382
└─
Bulbe olfactif
Olfactory BulbD009830 -
A08.186.211.200.885.388
└─
Septum du cerveau
Septum of BrainD020665 -
A08.186.211.200.885.750
└─
Commissures du télencéphale
Telencephalic CommissuresD066245 -
A08.186.211.200.885.800
└─└─
Noyaux gris centraux
Basal GangliaD001479 -
A08.186.211.200.885.287.249
└─└─
Cortex cérébral
Cerebral CortexD002540 -
A08.186.211.200.885.287.500
└─└─
Cortex olfactif
Olfactory CortexD066194 -
A08.186.211.200.885.287.750
└─└─
Noyaux du septum
Septal NucleiD012686 -
A08.186.211.200.885.750.800
└─└─
Septum pellucidum
Septum PellucidumD012688 -
A08.186.211.200.885.750.814
└─└─
Commissure antérieure du cervelet
Anterior Commissure, BrainD066240 -
A08.186.211.200.885.800.500
└─└─
Corps calleux
Corpus CallosumD003337 -
A08.186.211.200.885.800.750
└─└─└─
Amygdale (système limbique)
AmygdalaD000679 -
A08.186.211.200.885.287.249.152
└─└─└─
Claustrum
ClaustrumD000079482 -
A08.186.211.200.885.287.249.320
└─└─└─
Corps strié
Corpus StriatumD003342 -
A08.186.211.200.885.287.249.487
└─└─└─
Substance innominée
Substantia InnominataD013377 -
A08.186.211.200.885.287.249.880
└─└─└─
Lobe frontal
Frontal LobeD005625 -
A08.186.211.200.885.287.500.270
└─└─└─
Hippocampe
HippocampusD006624 -
A08.186.211.200.885.287.500.345
└─└─└─
Cortex insulaire
Insular CortexD000087623 -
A08.186.211.200.885.287.500.364
└─└─└─
Lobe limbique
Limbic LobeD065726 -
A08.186.211.200.885.287.500.382
└─└─└─
Néocortex
NeocortexD019579 -
A08.186.211.200.885.287.500.420
└─└─└─
Lobe occipital
Occipital LobeD009778 -
A08.186.211.200.885.287.500.571
└─└─└─
Lobe pariétal
Parietal LobeD010296 -
A08.186.211.200.885.287.500.670
└─└─└─
Cortex sensorimoteur
Sensorimotor CortexD066191 -
A08.186.211.200.885.287.500.814
└─└─└─
Lobe temporal
Temporal LobeD013702 -
A08.186.211.200.885.287.500.863
└─└─└─
Prosencéphale basal
Basal ForebrainD066187 -
A08.186.211.200.885.287.750.374
└─└─└─
Cortex entorhinal
Entorhinal CortexD018728 -
A08.186.211.200.885.287.750.562
└─└─└─
Tubercule olfactif
Olfactory TubercleD066208 -
A08.186.211.200.885.287.750.656
└─└─└─
Cortex piriforme
Piriform CortexD066195 -
A08.186.211.200.885.287.750.750
└─└─└─└─
Groupe nucléaire basolatéral
Basolateral Nuclear ComplexD066272 -
A08.186.211.200.885.287.249.152.500
└─└─└─└─
Noyau central de l'amygdale
Central Amygdaloid NucleusD066274 -
A08.186.211.200.885.287.249.152.750
└─└─└─└─
Groupe nucléaire cortico-médial
Corticomedial Nuclear ComplexD066276 -
A08.186.211.200.885.287.249.152.875
└─└─└─└─
Globus pallidus
Globus PallidusD005917 -
A08.186.211.200.885.287.249.487.397
└─└─└─└─
Néostriatum
NeostriatumD017072 -
A08.186.211.200.885.287.249.487.550
└─└─└─└─
Striatum ventral
Ventral StriatumD066328 -
A08.186.211.200.885.287.249.487.775
└─└─└─└─
Noyau basal de Meynert
Basal Nucleus of MeynertD020532 -
A08.186.211.200.885.287.249.880.100
└─└─└─└─
Cortex préfrontal
Prefrontal CortexD017397 -
A08.186.211.200.885.287.500.270.700
└─└─└─└─
Région CA1 de l'hippocampe
CA1 Region, HippocampalD056547 -
A08.186.211.200.885.287.500.345.099
└─└─└─└─
Région CA2 de l'hippocampe
CA2 Region, HippocampalD056651 -
A08.186.211.200.885.287.500.345.149
└─└─└─└─
Région CA3 de l'hippocampe
CA3 Region, HippocampalD056654 -
A08.186.211.200.885.287.500.345.174
└─└─└─└─
Gyrus denté
Dentate GyrusD018891 -
A08.186.211.200.885.287.500.345.200
└─└─└─└─
Fornix (encéphale)
Fornix, BrainD020712 -
A08.186.211.200.885.287.500.345.600
└─└─└─└─
Gyrus du cingulum
Gyrus CinguliD006179 -
A08.186.211.200.885.287.500.382.500
└─└─└─└─
Gyrus parahippocampique
Parahippocampal GyrusD020534 -
A08.186.211.200.885.287.500.382.750
└─└─└─└─
Cortex moteur
Motor CortexD009044 -
A08.186.211.200.885.287.500.814.624
└─└─└─└─
Cortex somatosensoriel
Somatosensory CortexD013003 -
A08.186.211.200.885.287.500.814.906
└─└─└─└─
Cortex visuel
Visual CortexD014793 -
A08.186.211.200.885.287.500.814.953
└─└─└─└─
Cortex auditif
Auditory CortexD001303 -
A08.186.211.200.885.287.500.863.297
└─└─└─└─
Cortex périrhinal
Perirhinal CortexD000071039 -
A08.186.211.200.885.287.500.863.574
└─└─└─└─
Faisceau unciné
Uncinate FasciculusD000083382 -
A08.186.211.200.885.287.500.863.712
└─└─└─└─
Centre de Wernicke
Wernicke AreaD065813 -
A08.186.211.200.885.287.500.863.850
└─└─└─└─
Ilots de Calleja
Islands of CallejaD020670 -
A08.186.211.200.885.287.750.656.500
└─└─└─└─└─
Noyau caudé
Caudate NucleusD002421 -
A08.186.211.200.885.287.249.487.550.184
└─└─└─└─└─
Putamen
PutamenD011699 -
A08.186.211.200.885.287.249.487.550.784
└─└─└─└─└─
Noyau accumbens
Nucleus AccumbensD009714 -
A08.186.211.200.885.287.249.487.775.500
└─└─└─└─└─
Aire de Broca
Broca AreaD065711 -
A08.186.211.200.885.287.500.270.700.500
└─└─└─└─└─
Cortex préfrontal dorsolatéral
Dorsolateral Prefrontal CortexD000087643 -
A08.186.211.200.885.287.500.270.700.750
└─└─└─└─└─
Cortex péri-amygdalien
Periamygdaloid CortexD066277 -
A08.186.211.200.885.287.500.382.750.612
└─└─└─└─└─
Cortex visuel primaire
Primary Visual CortexD000087642 -
A08.186.211.200.885.287.500.814.953.500
└─└─└─└─└─└─
Organum vasculosum
Organum VasculosumD066278 -
A08.186.211.200.885.287.500.814.695.249.500
Auteurs principaux
Ester Desfilis
4 publications dans cette catégorie
Affiliations :
- Laboratory of Evolutionary and Developmental Neurobiology, Department of Experimental Medicine, Lleida's Institute for Biomedical Research-Dr. Pifarré Foundation (IRBLleida), University of Lleida, Lleida, Spain.
Publications dans "Télencéphale" :
-
Adult neurogenesis in the telencephalon of the lizard
Frontiers in neuroscience 2023-02-23
-
Mapping of corticotropin-releasing factor, receptors, and binding protein mRNA in the chicken telencephalon throughout development.
The Journal of comparative neurology 2023-07-02
-
Distinct Subdivisions in the Transition Between Telencephalon and Hypothalamus Produce Otp and Sim1 Cells for the Extended Amygdala in Sauropsids.
Frontiers in neuroanatomy 2022-05-12
-
A novel telencephalon-opto-hypothalamic morphogenetic domain coexpressing Foxg1 and Otp produces most of the glutamatergic neurons of the medial extended amygdala.
The Journal of comparative neurology 2021-01-13
Stephanie Fong
4 publications dans cette catégorie
Affiliations :
- Department of Zoology, Stockholm University, Stockholm, Sweden.
Publications dans "Télencéphale" :
-
Rapid mosaic brain evolution under artificial selection for relative telencephalon size in the guppy (
Science advances 2021-11-10
-
Experimental expansion of relative telencephalon size improves the main executive function abilities in guppy.
PNAS nexus 2023-06-20
-
Eye size does not change with artificial selection on relative telencephalon size in guppies (Poecilia reticulata).
Brain, behavior and evolution 2024-07-23
-
Artificial mosaic brain evolution of relative telencephalon size improves inhibitory control abilities in the guppy (Poecilia reticulata).
Evolution; international journal of organic evolution 2021-11-30
Niclas Kolm
4 publications dans cette catégorie
Affiliations :
- Department of Zoology, Stockholm University, Stockholm, Sweden.
Publications dans "Télencéphale" :
-
Rapid mosaic brain evolution under artificial selection for relative telencephalon size in the guppy (
Science advances 2021-11-10
-
Experimental expansion of relative telencephalon size improves the main executive function abilities in guppy.
PNAS nexus 2023-06-20
-
Eye size does not change with artificial selection on relative telencephalon size in guppies (Poecilia reticulata).
Brain, behavior and evolution 2024-07-23
-
Artificial mosaic brain evolution of relative telencephalon size improves inhibitory control abilities in the guppy (Poecilia reticulata).
Evolution; international journal of organic evolution 2021-11-30
Jovica Ninkovic
3 publications dans cette catégorie
Affiliations :
- Institute of Stem Cell Research, Helmholtz Center Munich, 85764 Neuherberg, Germany.
- Graduate School of Systemic Neuroscience, Biomedical Center, Faculty of Medicine, LMU Munich, 82152 Planegg, Germany.
Publications dans "Télencéphale" :
-
Granulins Regulate Aging Kinetics in the Adult Zebrafish Telencephalon.
Cells 2020-02-03
-
Electroporation Method for In Vivo Delivery of Plasmid DNA in the Adult Zebrafish Telencephalon.
Journal of visualized experiments : JoVE 2019-09-13
-
Fluorescence-Activated Cell Sorting-Based Isolation and Characterization of Neural Stem Cells from the Adult Zebrafish Telencephalon.
Methods in molecular biology (Clifton, N.J.)
Andreas Nieder
3 publications dans cette catégorie
Affiliations :
- Animal Physiology Unit, Institute of Neurobiology, University of Tübingen, 72076 Tübingen, Germany. Electronic address: andreas.nieder@uni-tuebingen.de.
Publications dans "Télencéphale" :
-
Categorical representation of abstract spatial magnitudes in the executive telencephalon of crows.
Current biology : CB 2023-05-02
-
Association neurons in the crow telencephalon link visual signs to numerical values.
Proceedings of the National Academy of Sciences of the United States of America 2023-10-30
-
Cell-type specific pallial circuits shape categorical tuning responses in the crow telencephalon.
Communications biology 2022-03-25
Mirjam Amcoff
3 publications dans cette catégorie
Affiliations :
- Department of Zoology, Stockholm University, Stockholm, Sweden.
Publications dans "Télencéphale" :
-
Rapid mosaic brain evolution under artificial selection for relative telencephalon size in the guppy (
Science advances 2021-11-10
-
Experimental expansion of relative telencephalon size improves the main executive function abilities in guppy.
PNAS nexus 2023-06-20
-
Artificial mosaic brain evolution of relative telencephalon size improves inhibitory control abilities in the guppy (Poecilia reticulata).
Evolution; international journal of organic evolution 2021-11-30
Jolien Van Houcke
3 publications dans cette catégorie
Affiliations :
- Department of Biology, Laboratory of Neuroplasticity and Neuroproteomics, KU Leuven, Leuven, Belgium.
Publications dans "Télencéphale" :
-
Aging impairs the essential contributions of non-glial progenitors to neurorepair in the dorsal telencephalon of the Killifish Nothobranchius furzeri.
Aging cell 2021-08-24
-
A Robust and Reproducible Method to Study Neurorepair after Stab Injury in the African Turquoise Killifish Telencephalon.
Cold Spring Harbor protocols 2023-03-15
-
Single-cell sequencing unveils the impact of aging on the progenitor cell diversity in the telencephalon of the female killifish N. furzeri.
Aging cell 2024-07-01
Valerie Mariën
3 publications dans cette catégorie
Affiliations :
- Department of Biology, Laboratory of Neuroplasticity and Neuroproteomics, KU Leuven, Leuven, Belgium.
Publications dans "Télencéphale" :
-
Aging impairs the essential contributions of non-glial progenitors to neurorepair in the dorsal telencephalon of the Killifish Nothobranchius furzeri.
Aging cell 2021-08-24
-
A Robust and Reproducible Method to Study Neurorepair after Stab Injury in the African Turquoise Killifish Telencephalon.
Cold Spring Harbor protocols 2023-03-15
-
Single-cell sequencing unveils the impact of aging on the progenitor cell diversity in the telencephalon of the female killifish N. furzeri.
Aging cell 2024-07-01
Lutgarde Arckens
3 publications dans cette catégorie
Affiliations :
- Department of Biology, Laboratory of Neuroplasticity and Neuroproteomics, KU Leuven, Leuven, Belgium.
- KU Leuven Brain Institute, Leuven, Belgium.
Publications dans "Télencéphale" :
-
Aging impairs the essential contributions of non-glial progenitors to neurorepair in the dorsal telencephalon of the Killifish Nothobranchius furzeri.
Aging cell 2021-08-24
-
A Robust and Reproducible Method to Study Neurorepair after Stab Injury in the African Turquoise Killifish Telencephalon.
Cold Spring Harbor protocols 2023-03-15
-
Single-cell sequencing unveils the impact of aging on the progenitor cell diversity in the telencephalon of the female killifish N. furzeri.
Aging cell 2024-07-01
Antonio Abellán
3 publications dans cette catégorie
Affiliations :
- Department of Experimental Medicine, Universitat de Lleida, Lleida, Spain.
- Laboratory of Evolutionary and Developmental Neurobiology, Lleida's Institute for Biomedical Research-Dr. Pifarré Foundation (IRBLleida), Lleida, Catalonia, Spain.
Publications dans "Télencéphale" :
-
Mapping of corticotropin-releasing factor, receptors, and binding protein mRNA in the chicken telencephalon throughout development.
The Journal of comparative neurology 2023-07-02
-
Distinct Subdivisions in the Transition Between Telencephalon and Hypothalamus Produce Otp and Sim1 Cells for the Extended Amygdala in Sauropsids.
Frontiers in neuroanatomy 2022-05-12
-
A novel telencephalon-opto-hypothalamic morphogenetic domain coexpressing Foxg1 and Otp produces most of the glutamatergic neurons of the medial extended amygdala.
The Journal of comparative neurology 2021-01-13
Loreta Medina
3 publications dans cette catégorie
Affiliations :
- Department of Experimental Medicine, Universitat de Lleida, Lleida, Spain.
- Laboratory of Evolutionary and Developmental Neurobiology, Lleida's Institute for Biomedical Research-Dr. Pifarré Foundation (IRBLleida), Lleida, Catalonia, Spain.
Publications dans "Télencéphale" :
-
Mapping of corticotropin-releasing factor, receptors, and binding protein mRNA in the chicken telencephalon throughout development.
The Journal of comparative neurology 2023-07-02
-
Distinct Subdivisions in the Transition Between Telencephalon and Hypothalamus Produce Otp and Sim1 Cells for the Extended Amygdala in Sauropsids.
Frontiers in neuroanatomy 2022-05-12
-
A novel telencephalon-opto-hypothalamic morphogenetic domain coexpressing Foxg1 and Otp produces most of the glutamatergic neurons of the medial extended amygdala.
The Journal of comparative neurology 2021-01-13
Takako Kikkawa
2 publications dans cette catégorie
Affiliations :
- Department of Developmental Neuroscience, Tohoku University Graduate School of Medicine, Sendai, 980-8575, Japan.
Publications dans "Télencéphale" :
-
A Transcriptomic Dataset of Embryonic Murine Telencephalon.
Scientific data 2024-06-05
-
Dmrt genes participate in the development of Cajal-Retzius cells derived from the cortical hem in the telencephalon.
Developmental dynamics : an official publication of the American Association of Anatomists 2020-02-12
Noriko Osumi
2 publications dans cette catégorie
Affiliations :
- Department of Developmental Neuroscience, Tohoku University Graduate School of Medicine, Sendai, 980-8575, Japan. noriko.osumi.c7@tohoku.ac.jp.
Publications dans "Télencéphale" :
-
A Transcriptomic Dataset of Embryonic Murine Telencephalon.
Scientific data 2024-06-05
-
Dmrt genes participate in the development of Cajal-Retzius cells derived from the cortical hem in the telencephalon.
Developmental dynamics : an official publication of the American Association of Anatomists 2020-02-12
Gaurav Majumdar
2 publications dans cette catégorie
Affiliations :
- Bio-Imaging Lab, Department of Biomedical Sciences, University of Antwerp, Antwerp, Belgium.
Publications dans "Télencéphale" :
-
Molecular correlates of hypothalamic development in songbird ontogeny in comparison with the telencephalon.
FASEB journal : official publication of the Federation of American Societies for Experimental Biology 2020-02-13
-
DNA Methylation Regulates Transcription Factor-Specific Neurodevelopmental but Not Sexually Dimorphic Gene Expression Dynamics in Zebra Finch Telencephalon.
Frontiers in cell and developmental biology 2021-03-19
Louis Coussement
2 publications dans cette catégorie
Affiliations :
- Biobix: Laboratory of Bioinformatics and Computational Genomics, Department of Data Analysis and Mathematical Modelling, Ghent University, Ghent, Belgium.
Publications dans "Télencéphale" :
-
Molecular correlates of hypothalamic development in songbird ontogeny in comparison with the telencephalon.
FASEB journal : official publication of the Federation of American Societies for Experimental Biology 2020-02-13
-
DNA Methylation Regulates Transcription Factor-Specific Neurodevelopmental but Not Sexually Dimorphic Gene Expression Dynamics in Zebra Finch Telencephalon.
Frontiers in cell and developmental biology 2021-03-19
Tim De Meyer
2 publications dans cette catégorie
Affiliations :
- Biobix: Laboratory of Bioinformatics and Computational Genomics, Department of Data Analysis and Mathematical Modelling, Ghent University, Ghent, Belgium.
Publications dans "Télencéphale" :
-
Molecular correlates of hypothalamic development in songbird ontogeny in comparison with the telencephalon.
FASEB journal : official publication of the Federation of American Societies for Experimental Biology 2020-02-13
-
DNA Methylation Regulates Transcription Factor-Specific Neurodevelopmental but Not Sexually Dimorphic Gene Expression Dynamics in Zebra Finch Telencephalon.
Frontiers in cell and developmental biology 2021-03-19
Wim Vanden Berghe
2 publications dans cette catégorie
Affiliations :
- Laboratory of Protein Chemistry, Proteomics and Epigenetic Signaling (PPES), Department of Biomedical Sciences, University of Antwerp, Antwerp, Belgium.
Publications dans "Télencéphale" :
-
Molecular correlates of hypothalamic development in songbird ontogeny in comparison with the telencephalon.
FASEB journal : official publication of the Federation of American Societies for Experimental Biology 2020-02-13
-
DNA Methylation Regulates Transcription Factor-Specific Neurodevelopmental but Not Sexually Dimorphic Gene Expression Dynamics in Zebra Finch Telencephalon.
Frontiers in cell and developmental biology 2021-03-19
Annemie Van Der Linden
2 publications dans cette catégorie
Affiliations :
- Bio-Imaging Lab, Department of Biomedical Sciences, University of Antwerp, Antwerp, Belgium.
Publications dans "Télencéphale" :
-
Molecular correlates of hypothalamic development in songbird ontogeny in comparison with the telencephalon.
FASEB journal : official publication of the Federation of American Societies for Experimental Biology 2020-02-13
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DNA Methylation Regulates Transcription Factor-Specific Neurodevelopmental but Not Sexually Dimorphic Gene Expression Dynamics in Zebra Finch Telencephalon.
Frontiers in cell and developmental biology 2021-03-19
Jacques Balthazart
2 publications dans cette catégorie
Affiliations :
- Laboratory of Behavioral Neuroendocrinology, GIGA Neuroscience, University of Liege, Liege, Belgium.
Publications dans "Télencéphale" :
-
Molecular correlates of hypothalamic development in songbird ontogeny in comparison with the telencephalon.
FASEB journal : official publication of the Federation of American Societies for Experimental Biology 2020-02-13
-
DNA Methylation Regulates Transcription Factor-Specific Neurodevelopmental but Not Sexually Dimorphic Gene Expression Dynamics in Zebra Finch Telencephalon.
Frontiers in cell and developmental biology 2021-03-19
Nikistratos Siskos
2 publications dans cette catégorie
Affiliations :
- Laboratory of Developmental Biology & Molecular Neurobiology, Department of Molecular Biology & Genetics, Democritus University of Thrace, Alexandroupolis, Greece.
Publications dans "Télencéphale" :
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Genoarchitectonic Compartmentalization of the Embryonic Telencephalon: Insights From the Domestic Cat.
Frontiers in neuroanatomy 2021-12-16
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Characterization of the Abracl-Expressing Cell Populations in the Embryonic Mammalian Telencephalon.
Biomolecules 2023-08-31
Sources (13 au total)
A comparison of telencephalon composition among chickens, junglefowl, and wild galliforms.
Domestication is the process of modifying animals for human benefit through selective breeding in captivity. One of the traits that often diverges is the size of the brain and its constituent regions;... We compared the quantitative neuroanatomy of the telencephalon of white leghorn chickens with red junglefowl, their wild counterpart, and several wild galliform species. We focused specifically on the... Relative telencephalon size was larger in chickens than in junglefowl and ruffed grouse (Bonasa umbellus). The relative size of telencephalic regions did not differ between chickens and junglefowl but... From this suite of comparisons, we conclude that chickens do not follow a pattern of widespread decreases in telencephalic region sizes that is often viewed as typical of domestication. Instead, chick...
Contribution and functional connectivity between cerebrum and cerebellum on sub-lexical and lexical-semantic processing of verbs.
Language comprehension involves both sub-lexical (e.g., phonological) and lexical-semantic processing. We conducted a task using functional magnetic resonance imaging (fMRI) to compare the processing ...
Molecular organization of neuronal cell types and neuromodulatory systems in the zebrafish telencephalon.
The function of neuronal networks is determined not only by synaptic connectivity but also by neuromodulatory systems that broadcast information via distributed connections and volume transmission. To...
Darpp-32 is regulated by dopamine and is required for the formation of GABAergic neurons in the developing telencephalon.
DARPP-32 (dopamine and cAMP-regulated phosphoprotein Mr. 32 kDa) is a phosphoprotein that is modulated by multiple receptors integrating intracellular pathways and playing roles in various physiologic...
Evolution of Telencephalon Anterior-Posterior Patterning through Core Endogenous Network Bifurcation.
How did the complex structure of the telencephalon evolve? Existing explanations are based on phenomena and lack a first-principles account. The Darwinian dynamics and endogenous network theory-establ...
Spatially resolved cell atlas of the teleost telencephalon and deep homology of the vertebrate forebrain.
The telencephalon has undergone remarkable diversification and expansion throughout vertebrate evolution, exhibiting striking differences in structural and functional complexity. Nevertheless, fundame...
Experimental expansion of relative telencephalon size improves the main executive function abilities in guppy.
Executive functions are a set of cognitive control processes required for optimizing goal-directed behavior. Despite more than two centuries of research on executive functions, mostly in humans and no...
Eye size does not change with artificial selection on relative telencephalon size in guppies (Poecilia reticulata).
Variation in eye size is sometimes closely associated with brain morphology. Visual information, detected by the retina, is transferred to the optic tectum to coordinate eye and body movements towards... Here, we use male and female guppies artificially selected for small- and large-relative-telencephalon-size to test if artificial selection on telencephalon size results in changes in eye size. In add... We found no evidence that eye size changes with artificial selection on telencephalon size. Eye size was similar in both absolute and relative terms between the two selection regimes, but was larger i... Our study suggests that eye size and visual perception in guppies does not change rapidly with strong artificial selection on telencephalon size....
Single-cell sequencing unveils the impact of aging on the progenitor cell diversity in the telencephalon of the female killifish N. furzeri.
The African turquoise killifish (Nothobranchius furzeri) combines a short lifespan with spontaneous age-associated loss of neuro-regenerative capacity, an intriguing trait atypical for a teleost. The ...