Elsevier

Brain Research

Volume 64, 21 December 1973, Pages 446-450
Brain Research

Correlation between sagittal projection zones of climbing and mossy fibre paths in cat cerebellar anterior lobe

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  • Optogenetics in the cerebellum: Purkinje cell-specific approaches for understanding local cerebellar functions

    2013, Behavioural Brain Research
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    We then discuss the potential of Purkinje cell-specific, optogenetic approaches for elucidation of local cerebellar functions. Anatomical and physiological data have provided lines of evidences that indicate the existence of longitudinal zones within the cerebellar cortex [3,4,32–35]. In the rat cerebellar cortex, there are several longitudinal zones that are defined by the anatomical patterns of inferior olive climbing fiber inputs and Purkinje corticonuclear outputs [36–38] (Fig. 1).

  • Heterogeneity of calretinin expression in the avian cerebellar cortex of pigeons and relationship with zebrin II

    2013, Journal of Chemical Neuroanatomy
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    It is well established that the fundamental architecture of the cerebellar cortex consists of parasagittal zones (Voogd and Bigare, 1980). These zones are evident with respect to patterns of climbing and mossy fibre inputs, Purkinje cell efferents, and Purkinje cell response properties (Voogd, 1967; Voogd et al., 1969; Oscarsson, 1969; Ekerot and Larson, 1973; Andersson and Oscarsson, 1978a,b; Matsushita et al., 1984, 1991; Gerrits et al., 1985; Llinas and Sasaki, 1989; Sato and Kawasaki, 1991; Akintunde and Eisenman, 1994; De Zeeuw et al., 1994; Ji and Hawkes, 1994; Wylie et al., 1994, 1995, 2003; Voogd and Glickstein, 1998; Ruigrok, 2003; Winship and Wylie, 2003; Sugihara and Shinoda, 2004; Voogd and Wylie, 2004; Apps and Garwicz, 2005). In addition to hodology and physiology, a sagittal compartmentation of the cerebellar cortex is also shown by the expression of numerous molecular markers (for review, see Hawkes and Gravel, 1991; Herrup and Kuemerle, 1997; Armstrong and Hawkes, 2000; Apps and Hawkes, 2009), the most thoroughly studied of which is zebrin II (ZII) (aldolase C; Brochu et al., 1990; Ahn et al., 1994; Hawkes and Herrup, 1995).

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    2007, Evolution of Nervous Systems
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  • An anatomical model of cerebellar modules

    1997, Progress in Brain Research
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This work was supported by grants from the Medical Faculty, University of Lund and the Swedish Medical Research Council (Project Nr B74-04X-1013-09B).

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