In Retrospect: Brodmann's Brain
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Function of Cerebral Cortex
FUNCTION OF CEREBRAL CORTEX Course: Neuropsychology CC-6 (M.A PSYCHOLOGY SEM II); Unit I By Dr. Priyanka Kumari Assistant Professor Institute of Psychological Research and Service Patna University Contact No.7654991023; E-mail- [email protected] The cerebral cortex—the thin outer covering of the brain-is the part of the brain responsible for our ability to reason, plan, remember, and imagine. Cerebral Cortex accounts for our impressive capacity to process and transform information. The cerebral cortex is only about one-eighth of an inch thick, but it contains billions of neurons, each connected to thousands of others. The predominance of cell bodies gives the cortex a brownish gray colour. Because of its appearance, the cortex is often referred to as gray matter. Beneath the cortex are myelin-sheathed axons connecting the neurons of the cortex with those of other parts of the brain. The large concentrations of myelin make this tissue look whitish and opaque, and hence it is often referred to as white matter. The cortex is divided into two nearly symmetrical halves, the cerebral hemispheres . Thus, many of the structures of the cerebral cortex appear in both the left and right cerebral hemispheres. The two hemispheres appear to be somewhat specialized in the functions they perform. The cerebral hemispheres are folded into many ridges and grooves, which greatly increase their surface area. Each hemisphere is usually described, on the basis of the largest of these grooves or fissures, as being divided into four distinct regions or lobes. The four lobes are: • Frontal, • Parietal, • Occipital, and • Temporal. -
Neuroscience in Nazi Europe Part II: Resistance Against the Third Reich Lawrence A
HISTORICAL REVIEW Neuroscience in Nazi Europe Part II: Resistance against the Third Reich Lawrence A. Zeidman ABSTRACT: Previously, I mentioned that not all neuroscientists collaborated with the Nazis, who from 1933 to 1945 tried to eliminate neurologic and psychiatric disease from the gene pool. Oskar and Cécile Vogt openly resisted and courageous ly protested against the Nazi regime and its policies, and have been discussed previously in the neurology literature. Here I discuss Alexander Mitscherlich, Haakon Saethre, Walther Spielmeyer, Jules Tinel, and Johannes Pompe. Other neuroscientists had ambivalent roles, including Hans Creutzfeldt, who has been discussed previously. Here, I discuss Max Nonne, Karl Bonhoeffer, and Oswald Bumke. The neuroscientists who resisted had different backgrounds and moti vations that likely influenced their behavior, but this group undoubtedly saved lives of colleagues, friends, and patients, or at least prevented forced sterilizations. By recognizing and understanding the actions of these heroes of neuroscience, we pay homage and realize how ethics and morals do not need to be compromised even in dark times. RÉSUMÉ: Neuroscience en Europe sous domination nazie, 2e partie : résistance contre le Troisième Reich. J’ai mentionné antéri eurement que tous les neuroscientifiques n’avaient pas collaboré avec les nazis qui, de 1933 à 1945, ont tenté d’éliminer la maladie neurologique et psychiatrique du patrimoine génétique. Oskar et Cécile Vogt se sont opposés ouvertement et ont protesté courageusement contre le régime nazi et ses politiques. Ce sujet a déjà été exposé dans la littérature neurologique. Je discute ici d’Alexander Mitscherlich, de Haakon Saethre, de Walther Spielmeyer, de Jules Tinel et de Johannes Pompe. -
1 Korbinian Brodmann's Scientific Profile, and Academic Works
BRAIN and NERVE 69 (4):301-312,2017 Topics Korbinian Brodmann’s scientific profile, and academic works Mitsuru Kawamura Honorary Director, Okusawa Hospital & Clinics, 2-11-11, Okusawa, Setagaya-ku, Tokyo, 1580083, Japan E-mail: [email protected] Abstract Brodmann’s classic maps of localisation in cerebral cortex are both well known and of current value. However, his original 1909 monograph is not widely read by neurologists. Furthermore, he reproduced his maps in 1910 and 1914 with a number of important changes. The 1914 version also excludes areas 12-16 and 48-51 in human brain while areas 1-52 are described in animal brain. Here, we provide a detailed explanation of the different versions, and review Brodmann's academic profile and work. Key words: Brodmann’s map; missing numbers; Brodmann’s profile; Brodmann’s works; infographics Introduction The following paper is based on a Japanese language version (BRAIN and NERVE, April 2017) by MK. Recently I developed a passion for the design of charts and diagrams and enjoy looking through books on infographics. The design of visual information has made remarkable progress in recent years. Furthermore, figures, tables, and graphic records are on the agenda at every editorial meeting of Brain And Nerve. The maps of Korbinian Brodmann (1868-1918) were first published in German in 19091, and I believe they rightly belongs to infographics since they localise neuroanatomical information onto human and animal brain – monkey, for example – using the techniques of histology and comparative anatomy. Unlike the cerebellar cortex, which has a generally uniform three-layer structure throughout, most of the cerebral cortex has a six-layer structure of regionally diverse patterns. -
Außenseiter: Cécile Und Oskar Vogts Hirnforschung Um 1900 Satzinger, Helga 2011
Repositorium für die Geschlechterforschung Außenseiter: Cécile und Oskar Vogts Hirnforschung um 1900 Satzinger, Helga 2011 https://doi.org/10.25595/241 Veröffentlichungsversion / published version Sammelbandbeitrag / collection article Empfohlene Zitierung / Suggested Citation: Satzinger, Helga: Außenseiter: Cécile und Oskar Vogts Hirnforschung um 1900, in: Bleker, Johanna; Hulverscheidt, Marion; Lenning, Petra (Hrsg.): Visiten. Berliner Impulse zur Entwicklung der modernen Medizin (Berlin: Kulturverlag Kadmos, 2011), 179-195. DOI: https://doi.org/10.25595/241. Nutzungsbedingungen: Terms of use: Dieser Text wird unter einer CC BY 4.0 Lizenz (Namensnennung) This document is made available under a CC BY 4.0 License zur Verfügung gestellt. Nähere Auskünfte zu dieser Lizenz finden (Attribution). For more information see: Sie hier: https://creativecommons.org/licenses/by/4.0/deed.en https://creativecommons.org/licenses/by/4.0/deed.de www.genderopen.de Johanna Bleker, Marion Hulverscheidt, Petra Lennig (Hg.) Visiten Berliner Impulse zur Entwicklung der modernen Medizin Mit Beiträgen von Thomas Beddies, Johanna Bleker, Gottfried Bogusch, Miriam Eilers, Christoph Gradmann, Rainer Herrn, Petra Lennig, Ilona Marz, Helga Satzinger, Heinz-Peter Schmiedebach und Thomas Schnalke Kulturverlag Kadmos Berlin Inhalt Vorwort . 7 Einleitung . 9 Auf dem Weg zur naturwissenschaftlichen Medizin 1810–1870 Heinz-Peter Schmiedebach Grenzverschiebungen. Zur Berliner Psychiatrie im 19. Jahrhundert................ 19 Ilona Marz Stiefkind der Medizin? Die Anfänge der akademischen Zahnheilkunde in Berlin ............................... 37 Petra Lennig Benötigen Ärzte Philosophie? Die Diskussion um das Philosophicum 1825−1861 . 55 Gottfried Bogusch Wissenschaftler, Lehrer, Sammler. Der erste Berliner Universitätsanatom Karl Asmund Rudolphi.. 73 Johanna Bleker »Schönlein ist angekommen!« Der Begründer der klinischen Methode in Berlin 1840−1859.................. 89 Thomas Schnalke Die Zellenfrage. -
Oskar Vogt: the First Myeloarchitectonic Map Of
Communication • DOI: 10.2478/v10134-010-0005-z • Translational Neuroscience • 1(1) • 2010 • 72–94 Translational Neuroscience OSKAR VOGT: THE FIRST MYELOARCHITECTONIC MAP OF Miloš Judaš1 THE HUMAN FRONTAL CORTEX Maja Cepanec1,2 Abstract 1University of Zagreb School of The aim of this paper is threefold: (a) to provide the translation in English of Oskar Vogt’s seminal 1910 paper Medicine, Croatian Institute for Brain describing the first myeloarchitectonic map of the human frontal cortex, introduced by a brief historical review Research, Šalata 12, 10000 Zagreb, of Cécile & Oskar Vogt’s contribution to neuroscience; (b) to provide an annotated bibliography of major works of Croatia cortical cytoarchitectonics and myeloarchitectonics in the tradition of the Brodmann-Vogt architectonic school 2University of Zagreb, Faculty of (Supplement 2); and (c) to provide an annotated bibliography of major works of the Russian architectonic school Education and Rehabilitation Sciences, Department of Speech and which was founded by Oskar Vogt (Supplement 3). Language Pathology, Developmental Neurolinguistics Lab, 10000 Zagreb, Keywords Croatia Brodmann-Vogt architectonic school • cytoarchictonics • myeloarchitectonics cerebral cortex • Russian architectonic school • history of neuroscience Received 04 March 2010 © Versita Sp. z o.o. Accepted 20 March 2010 1. Introduction (the chief of the university psychiatric clinic) In the Spruce Mountains (Fichtelbirge) who firmly believed that mental disorders had region, there was an exclusive resort called Cécile and Oskar Vogt were pioneers of an anatomical basis. Oskar Vogt graduated as Alexandersbad, and in the summer of 1896 modern neuroscience who opened new a physician in 1893, and in 1894 obtained his Vogt accepted position there as a physician horizons and pointed to directions for future doctorate in medicine from Jena University, to (Kurarzt). -
Brodmann's Cortical Maps
Postinfectious moyamoya syndrome 259 6 Palacio S, Hart RG, Vollmer DG, et al. Late-developing 9 Asherson R, Cervera R. Antiphospholipid antibodies and infections. Ann cerebral arteropathy after pyogenic meningitis. Arch Neurol Rheum Dis 2003;62:388–93. 2003;60:431–33. 10 Hosoda Y, Ikeda E, Hirose S. Histopathological studies on spontaneous 7 Cunningham MW. Pathogenesis of group A streptococcal infections. Clin occlusion of the circle of Willis (cerebrovascular moyamoya disease). Clin Microbiol Rev 2000;13:470–511. Neurol Neurosurg 1997;99(suppl 2):s203–s208. 8 Snider L, Swedo S. Post-streptococcal autoimmune disorders of the central 11 Fukui M, Kono S, Sueishi K, et al. Moyamoya disease. Neuropathology nervous system. Curr Opin Neurol 2003;16:359–65. 2000;20:s61–s64. HISTORICAL NOTE .......................................................................................... doi: 10.1136/jnnp.2004.037200 Brodmann’s cortical maps icq d’Azyr, a physician and artist, described the brain’s ‘‘First and foremost we still lack clear criteria for the convolutions in 1786, noting differences in morphology recognition of anatomically equivalent cellular Vin other animals. Magendie had written similarly. elements…There has been occasional talk of ‘sensory Early attempts to correlate the cerebral anatomy to func- cells’ located in particular regions, or of sensorial ‘special tion by observed neurological deficits began in the 1820s, the cells’. People have invented acoustic or optical special cells result of the work of Franz Gall,1 Bouillaud, Robert Todd, and even a ‘memory’ cell, and have not shied away from Rolando, and many others (references in).2 Pierre Gratiolet the fantastic ‘psychic cell’.’’ and Francois Leuret mapped the folds and fissures of the cerebral cortex, and named the frontal, temporal, parietal, and occipital lobes. -
Nikolay Vladimirovich Timofeeff-Ressovsky (1900-1981
Copyright 2001 by the Genetics Society of America Perspectives Anecdotal, Historical and Critical Commentaries on Genetics Edited by James F. Crow and William F. Dove Nikolay Vladimirovich Timofeeff-Ressovsky (1900±1981): Twin of the Century of Genetics Vadim A. Ratner Institute of Cytology & Genetics of the Siberian Branch of the Russian Academy of Sciences, Novosibirsk 630090, Russia Don't treat science with savage seriousness. N. V. Timofeeff-Ressovsky ikolay Vladimirovich Timofeeff-Ressovsky born Moscow University, participated in various intellectual N September 7, 1900, would now be 100 years old. circles, sang as a ®rst bass in the Moscow military chorus, He was of the same age as the ªCentury of Genetics.º was a load-carrying worker, and ®nished Moscow Univer- This is especially notable now, at the border between sity in 1922. Later he talked about this grim period two millennia, ªa time to cast away stones, and a time (Timofeeff-Ressovsky 2000, p. 106): ªI think, never- to gather stones together.º It is remarkable that the theless, that all in all the life was merry±very few hungry, personality and fate of Nikolay V. Timofeeff-Ressovsky, very few frozen. Rather, people were young, healthy, N.V., re¯ect the most crucial, tragic, and dramatic events and vigorous.º of the century. In 1922 N.V. began his work as a scientist at the Insti- N. V.'s roots were in the nineteenth century, in Rus- tute of Experimental Biology with Professor N. K. Kolt- sian history and classics. His genealogy is living Russian sov. Nikolay Konstantinovich Koltsov was an outstanding history: It contains the Cossaks of the legendary Cossak ®gure in Russian biological science. -
Behavioral Neuroanatomy: Large-Scale Networks, Association
M. - MAR S E L M E SU LAM Faced with an anatomical fact proven beyond doubt, any physiological result that stands in contradiction to it loses all its meaning. ... So, first anatomy and then physiology; but if first physiology, then not without ana tomy. —BERNHARD VON GUDDEN(1824-1886), QUOTED BY KORBINIAN BRODMANN, IN LAU RENCE GAREY ‘S TRANSLATION I. INTRODUCTION The human brain displays marked regional variations in architecture, connectivity, neurochemistrv, and physiology. This chapter explores the relevance of these re- gional variations to cognition and behavior. Some topics have been included mostly for the sake of completeness and continuity. Their coverage is brief, either because the available information is limited or because its relevance to behavior and cog- nition is tangential. Other subjects, such as the processing of visual information, are reviewed in extensive detail, both because a lot is known and also because the information helps to articulate general principles relevant to all other domains of behavior. Experiments on laboratory primates will receive considerable emphasis, espe- cially in those areas of cerebral connectivity and physiology where relevant infor- mation is not yet available in the human. Structural homologies across species are always incomplete, and many complex behaviors, particularly those that are of greatest interest to the clinician and cognitive neuroscientist, are either rudimentary or absent in other animals. Nonetheless, the reliance on animal data in this chapter is unlikely to be too misleading since the focus will be on principles rather than specifics and since principles of organization are likely to remain relatively stable across closely related species. -
Brodmann, Korbinian
12/15/12 Ev ernote Web Brodmann, Korbinian Saturday, December 15 2012, 10:50 AM Korbinian Brodmann (1868-1918) Citation: Garey, L (2002) History of Neuroscience: Korbinian Brodmann (1868-1918), IBRO History of Neuroscience [http://www.ibro.info/Pub/Pub_Main_Display.asp?LC_Docs_ID=3521] Accessed: date Laurence Garey This article began as the Introduction to my translation of Brodmann's Localisation in the Cerebral Cortex (1994), and then appeared in shorter form in IBRO News (1995). I should like to thank Professor Karl Zilles for permitting me to use Figure 3 from the C and O Vogt Archive, at the Brain Research Institute, University of Düsseldorf, and for helping identify the subjects. I also acknowledge some material from the excellent website of Marc Nagel http://www.korbinian- brodmann.de/ and the support of the Brodmann Museum in Liggersdorf. In 1909 the Johann Ambrosius Barth Verlag in Leipzig printed the first edition of Brodmann's famous book Vergleichende Lokalisationslehre der Grosshirnrinde in ihren Prinzipien dargestellt auf Grund des Zellenbaues, one of the major "classics" of the neurological world. To this day it forms the basis for "localisation" of function in the cerebral cortex, with Brodmann's "areas" still widely used. Indeed, his famous "maps" of the cerebral cortex of man, monkeys and other mammals must be among the most commonly reproduced figures in neurobiological publishing. In spite of this, few people have ever seen a copy of the book, and even fewer have actually read it! So who was Brodmann? Korbinian Brodmann was born on 17 November 1868 in Liggersdorf, Hohenzollern, the son of a farmer (Figure 2). -
Genes and Men
Genes and Men 50 Years of Research at the Max Planck Institute for Molecular Genetics Genes and Men 50 Years of Research at the Max Planck Institute for Molecular Genetics contents 4 Preface martin vingron 6 Molecular biology in Germany in the founding period of the Max Planck Institute for Molecular Genetics hans-jörg rheinberger 16 some questions to olaf pongs und volkmar braun 18 From the Kaiser Wilhelm Institute of Anthropology, Human Heredity and Eugenics to the Max Planck Institute for Molecular Genetics carola sachse 32 some questions to kenneth timmis und reinhard lührmann 34 Remembering Heinz Schuster and 30 years of the Max Planck Institute for Molecular Genetics karin moelling 48 some questions to regine kahmann und klaus bister 50 Ribosome research at the Max Planck Institute for Molecular Genetics in Berlin-Dahlem – The Wittmann era knud h. nierhaus 60 some questions to tomas pieler und albrecht bindereif 62 “ I couldn’t imagine anything better.” thomas a. trautner interviewed by ralf hahn 74 some questions to claus scheidereit und adam antebi 76 50 years of research at the Max Planck Institute for Molecular Genetics – The transition towards human genetics karl sperling 90 some questions to ann ehrenhofer-murray und andrea vortkamp 92 Genome sequencing and the pathway from gene sequences to personalized medicine russ hodge 106 some questions to edda klipp und ulrich stelzl 108 Transformation of biology to an information science jens g. reich 120 some questions to sylvia krobitsch und sascha sauer 122 Understanding the rules behind genes catarina pietschmann 134 some questions to ho-ryun chung und ulf ørom 136 Time line about the development of molecular biology and the Max Planck Institute for Molecular Genetics 140 Imprint preface research in molecular biology and genetics has undergone a tremen- dous development since the middle of the last century, marked in particular by the discovery of the structure of DNA by Watson and Crick and the interpretation of the genetic code by Holley, Khorana and Nirenberg. -
Anterior Prefrontal Cortex: Insights Into Function from Anatomy and Neuroimaging
REVIEWS ANTERIOR PREFRONTAL CORTEX: INSIGHTS INTO FUNCTION FROM ANATOMY AND NEUROIMAGING Narender Ramnani* and Adrian M. Owen‡ The anterior prefrontal cortex (aPFC), or Brodmann area 10, is one of the least well understood regions of the human brain. Work with non-human primates has provided almost no indications as to the function of this area. In recent years, investigators have attempted to integrate findings from functional neuroimaging studies in humans to generate models that might describe the contribution that this area makes to cognition. In all cases, however, such explanations are either too tied to a given task to be plausible or too general to be theoretically useful. Here, we use an account that is consistent with the connectional and cellular anatomy of the aPFC to explain the key features of existing models within a common theoretical framework. The results indicate a specific role for this region in integrating the outcomes of two or more separate cognitive operations in the pursuit of a higher behavioural goal. Although the importance of the prefrontal cortex the selection, comparison and judgement of stimuli (PFC) for higher-order cognitive functions is largely held in short-term and long-term memory6, holding undisputed, it is unclear how (and whether) functions non-spatial information ‘online’2,12, task switching13, are divided within this region. Cytoarchitectonic sub- reversal learning14,stimulus selection15,the specification divisions are thought to correspond well with func- of retrieval cues10 and the ‘elaboration encoding’ of tional boundaries, although there is little agreement information into episodic memory16,17. Finally, the about the functions of specific subregions (for review, orbitofrontal cortex has been implicated in processes that see REF.1). -
A Short History of European Neuroscience - from the Late 18Th to the Mid 20Th Century
A Short History of European Neuroscience - from the late 18th to the mid 20th century - Authors: Dr. Helmut Keenmann, Chair of the FENS History of European Neuroscience Commi8ee (2010-July 2014) & Dr Nicholas Wade, Member of the FENS History of European Neuroscience Commi8ee (2010-July 2014) Neuroscience, as a discipline, emerged as a consequence of the endeavours of many who conspired to illuminate the structure of the nervous system, the manner of communicaon within it, its links to reflexes and its relaon to more complex behaviour. Neuroscience emerged from the biological sciences because conceptual building blocks were isolated, and the ways in which they can be arranged were explored. The foundaons on which the structure could be securely based were the cell and neuron doctrines on the biological side, and morphology and electrophysiology on the func9onal side. The morphological doctrines were dependent on the development of microtomes and achromac microscopes and of appropriate staining methods so that the sec9ons of anatomical specimens could be examined in greater detail. Electrophysiology provided the conceptual modern framework on which the no9on of the nervous func9on was envisioned as depending on an ongoing flux of electrical signals along the nervous pathways at both central and peripheral levels. These aspects of the history of neuroscience will be explored under headings of electrical excitability, the neuron, glia, neurotransmiAers, brain func9on and localizaon, circuits and diseases. A general account of developments in neuroscience up to 1900 can be found in the FENS supported project at hp:// neuroportraits.eu/, while the Neuroscience by Caricature in Europe throughout the ages – another FENS funded project – illustrates a history of Neuroscience through the use of caricature on facts and people.