Search results for "Comparative Neuroanatomy"

showing 3 items of 3 documents

Adaptive Function and Brain Evolution

2012

Comparing brains is not a mere intellectual exercise but also helps to understand how the brain enables adaptive behavioral strategies to cope with an ever-changing world and how this complex organ has evolved during the phylogeny. For instance, comparative neurobiology helps understanding the specific features of our species, an issue that attracted scientists since the time of Santiago Ramon y Cajal. Following this tradition, 20 years ago Hans ten Donkelaar and Gerhard Roth started the European Conferences on Comparative Neurobiology (ECCN). This e-book includes some of the contributions to the last meeting, the sixth ECCN (Valencia, Spain; April 22-24 2010), plus selected works by severa…

Brain developmentMathematicsofComputing_GENERALNeuroscience (miscellaneous)GeneralLiterature_MISCELLANEOUSbrainstemlcsh:RC321-571lcsh:QM1-695Adaptive functioningInformationSystems_GENERALCellular and Molecular NeuroscienceComparative Neuroanatomylcsh:Neurosciences. Biological psychiatry. NeuropsychiatryDCN NN - Brain networks and neuronal communicationGeneralLiterature_REFERENCE(e.g.dictionariesencyclopediasglossaries)Cerebral CortexEvolutionary NeuroscienceCognitive scienceBrain DevelopmentEvolutionary neurosciencelcsh:Human anatomyNeuroanatomyEditorialForebrainAnatomyPsychologyClassicsFrontiers in Neuroanatomy
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Septal complex of the telencephalon of lizards: III. Efferent connections and general discussion.

1998

The projections of the septum of the lizard Podarcis hispanica (Lacertidae) were studied by combining retrograde and anterograde neuroanatomical tracing. The results confirm the classification of septal nuclei into three main divisions. The nuclei composing the central septal division (anterior, lateral, medial, dorsolateral, and ventrolateral nuclei) displayed differential projections to the basal telencephalon, preoptic and anterior hypothalamus, lateral hypothalamic area, dorsal hypothalamus, mammillary complex, dorsomedial anterior thalamus, ventral tegmental area, interpeduncular nucleus, raphe nucleus, torus semicircularis pars laminaris, reptilian A8 nucleus/ substantia nigra and cen…

Interpeduncular nucleusterritorial behaviorMicroinjectionscomparative neuroanatomyThalamusHypothalamusBiotinBiologyLimbic systemNeurons Efferentlimbic systemThalamusmedicineLimbic SystemAnimalsPhytohemagglutininsHorseradish PeroxidaseFluorescent DyesMedial septal nucleusHabenulaBehavior AnimalGeneral NeuroscienceVentral Tegmental AreaSeptal nucleiDextransLizardsAnatomyreptilesmedicine.anatomical_structurenervous systemHypothalamusSeptal NucleiRaphe nucleiTerritorialityNucleusNeuroscienceThe Journal of comparative neurology
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The pallial amygdala of amniote vertebrates: evolution of the concept, evolution of the structure

2002

Embryological studies indicate that the amygdala includes pallial structures, namely the cortical amygdala (olfactory and vomeronasal) and the basolateral complex deep to it. In squamate reptiles, the cortical amygdala includes secondary olfactory (the ventral anterior amygdala) and vomeronasal centres (the nucleus sphericus). In birds, the situation is far less clear, due to the relative underdevelopment of the chemosensory systems. The basolateral amygdala of squamate reptiles includes two ventropallial structures: the posterior dorsal ventricular ridge and the lateral amygdala. Like their mammalian counterparts, these centres give rise to glutamatergic projections to the striatal (centro…

Vomeronasal organstriatumStriatumAmygdalaBirdsGlutamatergicLimbic systemlimbic systemNeural PathwaysmedicineAnimalsMammalsbiologyGeneral NeuroscienceReptilesComparative neuroanatomyAnatomyAmygdalabiology.organism_classificationBiological EvolutionHomologycortexmedicine.anatomical_structurenervous systemHypothalamusVertebratesAmnioteNeurosciencepsychological phenomena and processesBasolateral amygdalaBrain Research Bulletin
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