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RING HA, SERRA-MESTRES J: Neuropsychiatry of the basal ganglia J Neurol Neurosurg Psychiatry 72:12, 2001 SEGAWA M, HOSAKA A, MIYAGAWA F, et al: Hereditary progressive dystonia with marked diurnal uctuation Adv Neurol 14:215, 1976 STANDAERT DG, YOUNG AB: Treatment of central nervous system degenerative disorders, in Goodman & Gilman s, The Pharmacological Basis of Therapeutics, 10th ed New York, McGraw Hill, 2001, pp 549 568 THACH WT JR, MONTGOMERY EB JR: Motor system, in Pearlman AL, Collins RC (eds): Neurobiology of Disease New York, Oxford University Press, 1992, pp 168 196 VAN WOERKOM W: La cirrhose hepatique avec alterations dans les centres nerveux evoluant chez des sujets d age moyen Nouv Iconogr Saltpetri ere 7:41, 1914 ` VERNINO S, TUITE P, ADLER CH, et al: Paraneoplastic chorea associated with CRMP-5 neuronal antibody and lung carcinoma Ann Neurol 51: 25, 2002 WATTS RL, KOLLER WC (eds): Movement Disorders: Neurologic Principles and Practice, 2nd ed New York, McGraw-Hill, 2004

WHITTIER JR, METTLER FA: Studies on the subthalamus of the rhesus monkey J Comp Neurol 90:281, 319, 1949 WICHMANN T, DELONG M: Physiology of the basal ganglia and pathophysiology of movement disorders of basal ganglia origin, in Watts RL, Koller WC (eds): Movement Disorders: Neurologic Principles and Practice, 2nd ed New York, McGraw-Hill, 2004, pp 101 112 WILSON SAK: Disorders of motility and of muscle tone, with special reference to corpus striatum: The Croonian Lectures Lancet 2:1, 53, 169, 215, 1925 WOOTEN GF, LOPES MBS, HARRIS WO, et al: Pallidoluysian atrophy: Dystonia and basal ganglia functional anatomy Neurology 43:1764, 1993 YANAGISAWA N, GOTO A: Dystonia musculorum deformans: Analysis with electromyography J Neurol Sci 13:39, 1971 YOUNG AB, PENNEY JB: Biochemical and functional organization of the basal ganglia, in Jankovic J, Tolosa ES: Parkinson s Disease and Movement Disorders, 3rd ed Baltimore, Lippincott, Williams & Wilkins, 1998, pp 1 11 ZEMAN W: Pathology of the torsion dystonias (dystonia musculorum deformans) Neurology 20:79, 1970

The cerebellum, principally a motor organ, is responsible for the coordination of movements, especially skilled voluntary ones; the control of posture and gait, and the regulation of muscular tone The mechanisms by which these functions are accomplished have been the subject of intense investigation by anatomists and physiologists Their studies have yielded a mass of data, testimony to the complexity of the organization of the cerebellum and its afferent and efferent connections A coherent picture of cerebellar function is now emerging, although it is not yet possible, with a few notable exceptions, to relate each of the symptoms of cerebellar disease to a derangement of a discrete anatomic or functional unit of the cerebellum Knowledge of cerebellar function has been derived mainly from the study of natural and experimental ablative lesions and to a lesser extent from stimulation of the cerebellum, which produces little in the way of movement or alterations of induced movement Notably, none of the motor activities of the cerebellum reach conscious kinesthetic perception; its main role is to assist in the initiation and modulation of willed movements that are generated in the cerebral hemispheres The following outline of cerebellar structure and function has of necessity been simpli ed; a full account can be found in the writings of Jansen and Brodal, Gilman, and Thach and colleagues, listed at the end of this chapter

The classic studies of the comparative anatomy and ber connections of the cerebellum have led to its subdivision into three parts (Fig 5-1): (1) The occulonodular lobe, located inferiorly, which is phylogenetically Central lobule the oldest portion of the cerebellum and is Lingula Anterior lobe much the same in all animals (hence archi(Paleocerebellum or Primary fissure cerebellum) It is separated from the main Spinocerebellum) t g An dran e Posterior superior mass of the cerebellum, or corpus cerebelli, a ul fissure Qu Lob Si by the posterolateral ssure (2) The anterior Culmen Lo mp ar bu le st gul lobe, or paleocerebellum, which is the porle Po ran le Su d u tion of the corpus cerebelli rostral to the priSemperior ua Lob Declive Q Lob ilunar mary ssure In lower animals, the anterior CRUS I ule Horizontal Folium lobe constitutes most of the cerebellum, but fissure Tuber in humans it is relatively small, consisting of ior r r Posterior lobe Pyramis Infe iluna CRUS II the anterosuperior vermis and the contiguous (Neocerebellum or le Sem bule bu pontocerebellum) paravermian cortex (3) The posterior lobe, Lo lo Uvula or neocerebellum, consisting of the middle Prepyramidal divisions of the vermis and their large lateral fissure extensions The major portions of the human Floccuodular lobe Posterolateral fissure cerebellar hemispheres fall into this, the larg(Archicerebellum or Nodulus Flocculus Vestibulocerebellum) est, subdivision This anatomic subdivision corresponds Paraflocculus roughly with the distribution of cerebellar Figure 5-1 Diagram of the cerebellum, illustrating the major ssures, lobes, and lobules and the function, based on the arrangement of its af- major phylogenetic divisions (left)

Of all the tools within the BOBJ-BI environment, none is as recognizable as Crystal Reports, which has been available for quite some time My initial introduction to Crystal Reports was around 2000, when SAP BW was using this as a preferred third-party tool After its initial owner, Crystal Decisions was bought by Business Objects in 2003, the partnership between Crystal and SAP didn t expand as initially thought and the development of the integration between Crystal and SAP stopped With the acquisition of Business Objects by SAP in 2007, we are back to using the functionality and formatting of the Crystal Reports toolset to help with the standard formatted reports Having worked with both the Report Designer in SAP BI and Crystal Reports in BOBJ, I believe SAP is definitely moving in the right direction Crystal Reports is a very robust reporting system and can definitely satisfy your needs when it comes to generating standard, formatted reports for governmental agencies, and any required reports for stakeholders If I were to look at just one item for comparison the ability to use changes that have been made to the underlying query that supports the formatted report I would immediately give the

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