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The avian subpallium and autonomic nervous system
2022, Sturkie's Avian PhysiologyNeurochemical compartmentalization within the pigeon basal ganglia
2016, Journal of Chemical NeuroanatomyCitation Excerpt :The avian striatum, like the mammalian striatum, develops from a Dlx1/2-rich and Nkx2.1-poor neuroepithelium (Fernandez et al., 1998; Puelles et al., 2000). The mammalian striatum contains neurochemically and hodologically distinct striosomes (or patches) dispersed within the striatal matrix, but such a segregation of patches within the striatal matrix is not obvious in birds (Karten and Dubbeldam, 1973; Brauth et al., 1978; Reiner et al., 1983, 1994, 1998a; Bottjer et al., 1989; Bottjer, 1993; Castro and Ball, 1994; Grisham and Arnold, 1994; Medina and Reiner, 1995; Soha et al., 1996; Durstewitz et al., 1999; Luo and Perkel, 1999). The matrix compartment of mammalian striatum is further divided into functional territories (termed T1-T3 by Morel et al., 2002) that are distinguished by their neuropil content of different markers, in particular CALB and PARV (Morel et al., 2002; François et al., 1994; Holt et al., 1997; Joel and Weiner, 1997; Prensa et al., 2003; Riedel et al., 2002).
The Conservative Evolution of the Vertebrate Basal Ganglia
2016, Handbook of Behavioral NeuroscienceCitation Excerpt :The pallium in birds contains the same subdivisions as in reptiles but is considerably expanded, with its dorsal part enlarged into a medially situated sensorimotor region called the Wulst (comparable to reptile dorsal cortex) and the DVR (consisting of the mesopallium and nidopallium) juxtaposed to a basocaudal motor output area called the arcopallium. The Wulst, DVR, and arcopallium give rise to a massive excitatory input to the avian striatum (Brauth et al., 1978; Davies et al., 1997; Dubbeldam and Visser, 1987; Dubbeldam et al., 1997; Karten and Dubbeldam, 1973; Karten et al., 1973; Nottebohm et al., 1976; Veenman and Reiner, 1996; Veenman et al., 1995b; Wild, 1987b, 1989; Wild et al., 1993; Zeier and Karten, 1971). As in mammals, the avian “corticostriatal” projection largely ends on the heads of the dendritic spines of striatal projection neurons and utilizes the excitatory neurotransmitter glutamate (Adam and Csillag, 2006; Csillag et al., 1997; Laverghetta et al., 2006; Veenman and Reiner, 1996).
The Avian Subpallium and Autonomic Nervous System
2015, Sturkie's Avian Physiology: Sixth EditionThe avian subpallium: New insights into structural and functional subdivisions occupying the lateral subpallial wall and their embryological origins
2011, Brain ResearchCitation Excerpt :As in mammals, the “corticostriatal” projection utilizes glutamate, an excitatory amino acid neurotransmitter (Csillag et al., 1997; Ding and Perkel, 2004; Ding et al., 2003; Farries et al., 2005a; Reiner et al., 2001; Veenman and Reiner, 1996). More lateral MSt receives pallial input from somatic regions, such as those involved in somatosensory, visual, auditory and motor function (Brauth et al., 1978; Karten and Dubbeldam, 1973; Nottebohm et al., 1976; Veenman et al., 1995; Wild, 1987; Wild et al., 1993). By contrast, medial MSt appears more viscerolimbic, since its pallial input arises from such regions as hippocampus and olfactory bulb.