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2015, Neuroscience and Biobehavioral ReviewsCitation Excerpt :In sensory cortices and hippocampus, this switch is strongly dependent on experience and neuronal activity (Yashiro and Philpot, 2008). These two factors do not appear to guide prefrontal development in a similar fashion as the PFC lacks direct thalamocortical innervation from the sensory thalamus with the exception of the mediodorsal nucleus of the thalamus (Conde et al., 1990; Ferguson and Gao, 2015; Giguere and Goldman-Rakic, 1988; Ray and Price, 1992). Although physiological properties and cognitive functions associated with the PFC are unique from other brain regions, we can utilize reports on the development of these other regions as a framework to guide our understanding of prefrontal development.
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2015, Progress in NeurobiologyCitation Excerpt :Nonetheless, advocates for rodent-primate frontal homology have argued that since any single feature uniquely defining primate dlPFC is tenuous, a more informative way to define primate PFC for evaluating rodent-primate homology is in the relative strengths of its connections with multiple cortical and sub-cortical structures (Uylings and van Eden, 1990). In this vein, it has been argued that rodent Fr2 and ACd are homologous with primate dlPFC (and/or the FEF specifically) because as in the primate, rodent Fr2 and ACd exhibit relatively stronger reciprocal connections with the mediodorsal nuclei than with other thalamic nuclei, such as the ventrolateral or ventromedial nuclei (Uylings et al., 2003, but see Condé et al., 1990). Given this controversy about whether certain rodent frontal structures are more appropriately designated as homologous with primate PFC or primate PMC, it is interesting to consider the characteristics of the primate FEF (the most posterior extent of dlPFC) and its potential rodent homologue.
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