Biological Bulletin · 2006 · 241 citations · 63 references
Life SciencesEvolutionary BiologyNeuroscienceMemoryNeurophysiologySynaptic PlasticityBrain EvolutionComparative Behavioral NeuroscienceComparative NeurophysiologyLearning In AnimalsLearning-related PlasticityVertebrate Brain OrganizationCephalopod Nervous System Comparative AnatomyCephalopod NeurobiologyComparative Neural DevelopmentLong-term Synaptic PlasticityMemory EvolutionNervous System EvolutionNeural Plasticity EvolutionVertebrate Brain Evolution
Comparative analysis of brain function in invertebrates with sophisticated behaviors, such as the octopus, may advance our understanding of the evolution of the neural processes that mediate complex behaviors. Until the last few years, this approach was infeasible due to the lack of neurophysiological tools for testing the neural circuits mediating learning and memory in the brains of octopus and other cephalopods. Now, for the first time, the adaptation of modern neurophysiological methods to the study of the central nervous system of the octopus allows this avenue of research. The emerging results suggest that a convergent evolutionary process has led to the selection of vertebrate-like neural organization and activity-dependent long-term synaptic plasticity. As octopuses and vertebrates are very remote phylogenetically, this convergence suggests the importance of the shared properties for the mediation of learning and memory.
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THE ANATOMY OF THE NERVOUS SYSTEM OF OCTOPUS VULGARIS
D. R. Newth · Journal of Neurology Neurosurgery & Psychiatry · 1972 · 444 citations · Full text
Medicine, Anatomy, Neuroscience +10
Observational Learning in <i>Octopus vulgaris</i>
Graziano Fiorito, P. Scotto · Science · 1992 · 345 citations
Life Sciences, Biology, Zoology +12