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The Schizophrenia in the Main Character of a Beautiful Mind Movie Directed by Ron Howard
Wanastra Vol X No.1, Maret 2018 The Schizophrenia in The Main Character of A Beautiful Mind Movie Directed by Ron Howard Sri Arfani1, Safitri2 1,2ABA BSI Jakarta Jl. Salemba Tengah No. 45. Jakarta Pusat Email: [email protected], [email protected] Abstract - In literary works character and characterization are important elements because they built the story. Character is a person represented in a movie, story or other narrative work. In the movie, the character can be used as a field to be analyzed, one of which is psychology. Psychology discussed in this paper in term of psychological illness that is schizophrenia. The objective of this analyze is to know the schizophrenia that experienced by main character, John Nash that taken from A Beautiful Mind movie. The Analyses are kinds of schizophrenia, the struggles of Nash, and the moral value that we can get from this movie. There are 3 Kinds of schizophrenia that showed in this movie. First, is about paranoid schizophrenia. The symptoms of paranoid are hallucinations and delusions. Second is about disorganized schizophrenia. There are symptoms that experienced by disorganized schizophrenia: disorganized speech and disorganized behavior. Third is about undifferentiated schizophrenia. The symptoms are seeming lack of interest in the world: social withdrawal. As the result of schizophrenia that experienced by John Nash, he experience of better alteration. At the end, Nash win the Nobel Prize. Although his hallucination friends never gone, but he never think about it. Key Words : Character, Psychological Disorder, Schizophrenia, A Beautiful Mind Movie I. INTRODUCTION resercher want to discuss, the main characters has a psychology disorder. -
Donald Knuth Fletcher Jones Professor of Computer Science, Emeritus Curriculum Vitae Available Online
Donald Knuth Fletcher Jones Professor of Computer Science, Emeritus Curriculum Vitae available Online Bio BIO Donald Ervin Knuth is an American computer scientist, mathematician, and Professor Emeritus at Stanford University. He is the author of the multi-volume work The Art of Computer Programming and has been called the "father" of the analysis of algorithms. He contributed to the development of the rigorous analysis of the computational complexity of algorithms and systematized formal mathematical techniques for it. In the process he also popularized the asymptotic notation. In addition to fundamental contributions in several branches of theoretical computer science, Knuth is the creator of the TeX computer typesetting system, the related METAFONT font definition language and rendering system, and the Computer Modern family of typefaces. As a writer and scholar,[4] Knuth created the WEB and CWEB computer programming systems designed to encourage and facilitate literate programming, and designed the MIX/MMIX instruction set architectures. As a member of the academic and scientific community, Knuth is strongly opposed to the policy of granting software patents. He has expressed his disagreement directly to the patent offices of the United States and Europe. (via Wikipedia) ACADEMIC APPOINTMENTS • Professor Emeritus, Computer Science HONORS AND AWARDS • Grace Murray Hopper Award, ACM (1971) • Member, American Academy of Arts and Sciences (1973) • Turing Award, ACM (1974) • Lester R Ford Award, Mathematical Association of America (1975) • Member, National Academy of Sciences (1975) 5 OF 44 PROFESSIONAL EDUCATION • PhD, California Institute of Technology , Mathematics (1963) PATENTS • Donald Knuth, Stephen N Schiller. "United States Patent 5,305,118 Methods of controlling dot size in digital half toning with multi-cell threshold arrays", Adobe Systems, Apr 19, 1994 • Donald Knuth, LeRoy R Guck, Lawrence G Hanson. -
Modified Moments for Indefinite Weight Functions [2Mm] (A Tribute
Modified Moments for Indefinite Weight Functions (a Tribute to a Fruitful Collaboration with Gene H. Golub) Martin H. Gutknecht Seminar for Applied Mathematics ETH Zurich Remembering Gene Golub Around the World Leuven, February 29, 2008 Martin H. Gutknecht Modified Moments for Indefinite Weight Functions My education in numerical analysis at ETH Zurich My teachers of numerical analysis: Eduard Stiefel [1909–1978] (first, basic NA course, 1964) Peter Läuchli [b. 1928] (ALGOL, 1965) Hans-Rudolf Schwarz [b. 1930] (numerical linear algebra, 1966) Heinz Rutishauser [1917–1970] (follow-up numerical analysis course; “selected chapters of NM” [several courses]; computer hands-on training) Peter Henrici [1923–1987] (computational complex analysis [many courses]) The best of all worlds? Martin H. Gutknecht Modified Moments for Indefinite Weight Functions My education in numerical analysis (cont’d) What did I learn? Gauss elimination, simplex alg., interpolation, quadrature, conjugate gradients, ODEs, FDM for PDEs, ... qd algorithm [often], LR algorithm, continued fractions, ... many topics in computational complex analysis, e.g., numerical conformal mapping What did I miss to learn? (numerical linear algebra only) QR algorithm nonsymmetric eigenvalue problems SVD (theory, algorithms, applications) Lanczos algorithm (sym., nonsym.) Padé approximation, rational interpolation Martin H. Gutknecht Modified Moments for Indefinite Weight Functions My first encounters with Gene H. Golub Gene’s first two talks at ETH Zurich (probably) 4 June 1971: “Some modified eigenvalue problems” 28 Nov. 1974: “The block Lanczos algorithm” Gene was one of many famous visitors Peter Henrici attracted. Fall 1974: GHG on sabbatical at ETH Zurich. I had just finished editing the “Lectures of Numerical Mathematics” of Heinz Rutishauser (1917–1970). -
Ζ−1 Using Theorem 1.2
UC San Diego UC San Diego Electronic Theses and Dissertations Title Ihara zeta functions of irregular graphs Permalink https://escholarship.org/uc/item/3ws358jm Author Horton, Matthew D. Publication Date 2006 Peer reviewed|Thesis/dissertation eScholarship.org Powered by the California Digital Library University of California UNIVERSITY OF CALIFORNIA, SAN DIEGO Ihara zeta functions of irregular graphs A dissertation submitted in partial satisfaction of the requirements for the degree Doctor of Philosophy in Mathematics by Matthew D. Horton Committee in charge: Professor Audrey Terras, Chair Professor Mihir Bellare Professor Ron Evans Professor Herbert Levine Professor Harold Stark 2006 Copyright Matthew D. Horton, 2006 All rights reserved. The dissertation of Matthew D. Horton is ap- proved, and it is acceptable in quality and form for publication on micro¯lm: Chair University of California, San Diego 2006 iii To my wife and family Never hold discussions with the monkey when the organ grinder is in the room. |Sir Winston Churchill iv TABLE OF CONTENTS Signature Page . iii Dedication . iv Table of Contents . v List of Figures . vii List of Tables . viii Acknowledgements . ix Vita ...................................... x Abstract of the Dissertation . xi 1 Introduction . 1 1.1 Preliminaries . 1 1.2 Ihara zeta function of a graph . 4 1.3 Simplifying assumptions . 8 2 Poles of the Ihara zeta function . 10 2.1 Bounds on the poles . 10 2.2 Relations among the poles . 13 3 Recovering information . 17 3.1 The hope . 17 3.2 Recovering Girth . 18 3.3 Chromatic polynomials and Ihara zeta functions . 20 4 Relations among Ihara zeta functions . -
Transactions American Mathematical Society
TRANSACTIONS OF THE AMERICAN MATHEMATICAL SOCIETY EDITED BY A. A. ALBERT OSCAR ZARISKI ANTONI ZYGMUND WITH THE COOPERATION OF RICHARD BRAUER NELSON DUNFORD WILLIAM FELLER G. A. HEDLUND NATHAN JACOBSON IRVING KAPLANSKY S. C. KLEENE M. S. KNEBELMAN SAUNDERS MacLANE C. B. MORREY W. T. REID O. F. G. SCHILLING N. E. STEENROD J. J. STOKER D. J. STRUIK HASSLER WHITNEY R. L. WILDER VOLUME 62 JULY TO DECEMBER 1947 PUBLISHED BY THE SOCIETY MENASHA, WIS., AND NEW YORK 1947 Reprinted with the permission of The American Mathematical Society Johnson Reprint Corporation Johnson Reprint Company Limited 111 Fifth Avenue, New York, N. Y. 10003 Berkeley Square House, London, W. 1 First reprinting, 1964, Johnson Reprint Corporation PRINTED IN THE UNITED STATES OF AMERICA TABLE OF CONTENTS VOLUME 62, JULY TO DECEMBER, 1947 Arens, R. F., and Kelley, J. L. Characterizations of the space of con- tinuous functions over a compact Hausdorff space. 499 Baer, R. Direct decompositions. 62 Bellman, R. On the boundedness of solutions of nonlinear differential and difference equations. 357 Bergman, S. Two-dimensional subsonic flows of a compressible fluid and their singularities. 452 Blumenthal, L. M. Congruence and superposability in elliptic space.. 431 Chang, S. C. Errata for Contributions to projective theory of singular points of space curves. 548 Day, M. M. Polygons circumscribed about closed convex curves. 315 Day, M. M. Some characterizations of inner-product spaces. 320 Dushnik, B. Maximal sums of ordinals. 240 Eilenberg, S. Errata for Homology of spaces with operators. 1. 548 Erdös, P., and Fried, H. On the connection between gaps in power series and the roots of their partial sums. -
Modeling Ddos Attacks by Generalized Minimum Cut Problems
Modeling DDoS Attacks by Generalized Minimum Cut Problems Qi Duan, Haadi Jafarian and Ehab Al-Shaer Jinhui Xu Department of Software and Information Systems Department of Computer Science and Engineering University of North Carolina at Charlotte State University of New York at Buffalo Charlotte, NC, USA Buffalo, NY, USA Abstract—Distributed Denial of Service (DDoS) attack is one applications in many different areas [24]–[26], [32]. In this of the most preeminent threats in Internet. Despite considerable paper, we investigate two important generalizations of the progress on this problem in recent years, a remaining challenge minimum cut problem and their applications in link/node cut is to determine its hardness by adopting proper mathematical models. In this paper, we propose to use generalized minimum based DDoS attacks. The first generalization is denoted as cut as basic tools to model various types of DDoS attacks. the Connectivity Preserving Minimum Cut (CPMC) problem, Particularly, we study two important extensions of the classical which is to find the minimum cut that separates a pair (or pairs) minimum cut problem, called Connectivity Preserving Minimum of source and destination nodes and meanwhile preserve the Cut (CPMC) and Threshold Minimum Cut (TMC), to model large- connectivity between the source and its partner node(s). The scale DDoS attacks. In the CPMC problem, a minimum cut is sought to separate a source node from a destination node second generalization is denoted as the Threshold Minimum and meanwhile preserve the connectivity between the source Cut (TMC) problem in which a minimum cut is sought to and its partner node(s). -
J´Ozef Marcinkiewicz
JOZEF¶ MARCINKIEWICZ: ANALYSIS AND PROBABILITY N. H. BINGHAM, Imperial College London Pozna¶n,30 June 2010 JOZEF¶ MARCINKIEWICZ Life Born 4 March 1910, Cimoszka, Bialystok, Poland Student, 1930-33, University of Stefan Batory in Wilno (professors Stefan Kempisty, Juliusz Rudnicki and Antoni Zygmund) 1931-32: taught Lebesgue integration and trigono- metric series by Zygmund MA 1933; military service 1933-34 PhD 1935, under Zygmund 1935-36, Fellowship, U. Lw¶ow,with Kaczmarz and Schauder 1936, senior assistant, Wilno; dozent, 1937 Spring 1939, Fellowship, Paris; o®ered chair by U. Pozna¶n August 1939: in England; returned to Poland in anticipation of war (he was an o±cer in the reserve); already in uniform by 2 September Second lieutenant, 2nd Battalion, 205th In- fantry Regiment Defence of Lwo¶w12 - 21 September 1939; Lwo¶wsurrendered to Red (Soviet) Army Prisoner of war 25 September ("temporary in- ternment" by USSR); taken to Starobielsk Presumed executed Starobielsk, or Kharkov, or Kozielsk, or Katy¶n;Katy¶nMassacre commem- orated on 10 April Work We outline (most of) the main areas in which M's influence is directly seen today, and sketch the current state of (most of) his areas of in- terest { all in a very healthy state, an indication of M's (and Z's) excellent mathematical taste. 55 papers 1933-45 (the last few posthumous) Collaborators: Zygmund 15, S. Bergman 2, B. Jessen, S. Kaczmarz, R. Salem Papers (analysed by Zygmund) on: Functions of a real variable Trigonometric series Trigonometric interpolation Functional operations Orthogonal systems Functions of a complex variable Calculus of probability MATHEMATICS IN POLAND BETWEEN THE WARS K. -
Ihara Zeta Functions
Audrey Terras 2/16/2004 fun with zeta and L- functions of graphs Audrey Terras U.C.S.D. February, 2004 IPAM Workshop on Automorphic Forms, Group Theory and Graph Expansion Introduction The Riemann zeta function for Re(s)>1 ∞ 1 −1 ζ ()sp== 1 −−s . ∑ s ∏ () n=1 n pprime= Riemann extended to all complex s with pole at s=1. Functional equation relates value at s and 1-s Riemann hypothesis duality between primes and complex zeros of zeta See Davenport, Multiplicative Number Theory. 1 Audrey Terras 2/16/2004 Graph of |Zeta| Graph of z=| z(x+iy) | showing the pole at x+iy=1 and the first 6 zeros which are on the line x=1/2, of course. The picture was made by D. Asimov and S. Wagon to accompany their article on the evidence for the Riemann hypothesis as of 1986. A. Odlyzko’s Comparison of Spacings of Zeros of Zeta and Eigenvalues of Random Hermitian Matrix. See B. Cipra, What’s Happening in Math. Sciences, 1998-1999. 2 Audrey Terras 2/16/2004 Dedekind zeta of an We’ll algebraic number field F, say where primes become prime more ideals p and infinite product of about number terms field (1-Np-s)-1, zetas Many Kinds of Zeta Np = norm of p = #(O/p), soon O=ring of integers in F but not Selberg zeta Selberg zeta associated to a compact Riemannian manifold M=G\H, H = upper half plane with arc length ds2=(dx2+dy2)y-2 , G=discrete group of real fractional linear transformations primes = primitive closed geodesics C in M of length −+()()sjν C ν(C), Selberg Zs()=− 1 e (primitive means only go Zeta = ∏ ∏( ) around once) []Cj≥ 0 Reference: A.T., Harmonic Analysis on Symmetric Duality between spectrum ∆ on M & lengths closed geodesics in M Spaces and Applications, I. -
Representations of Finite Groups
Mathematisches Forschungsinstitut Oberwolfach Report No. 15/2006 Representations of Finite Groups Organised by Alexander S. Kleshchev (Eugene) Markus Linckelmann (Aberdeen) Gunter Malle (Kaiserslautern) Jeremy Rickard (Bristol) March 26th – April 1st, 2006 Abstract. The workshop ”Representations of finite groups” was organized by A. Kleshchev (Eugene), M. Linckelmann (Aberdeen), G. Malle (Kaiser- slautern) and J. Rickard (Bristol). It covered a wide variety of aspects of the representation theory of finite groups and related objects like Hecke algebras. Mathematics Subject Classification (2000): 20-06 20Cxx. Introduction by the Organisers The meeting was organized by A. Kleshchev (Eugene), M. Linckelmann (Ab- erdeen), G. Malle (Kaiserslautern) and J. Rickard (Bristol). This meeting was attended by over 50 participants with broad geographic representation. It covered a wide variety of aspects of the representation theory of finite groups and related objects like Hecke algebras. This workshop was sponsored by a project of the Eu- ropean Union which allowed us to invite in addition to established researchers also a couple of young people working on a PhD in representation theory. In eleven longer lectures of 40 minutes each and twentytwo shorter contributions of 30 min- utes each, recent progress in representation theory was presented and interesting new research directions were proposed. Besides the lectures, there was plenty of time for informal discussion between the participants, either continuing ongoing research cooperation or starting new projects. The topics of the talks came roughly from two major areas: on the one hand side, the investigation of representation theoretic properties of general finite groups and related objects, on the other hand the determination and detailed analysis of representations of special classes of finite groups and related objects like Hecke algebras. -
A Comet of the Enlightenment Anders Johan Lexell's Life and Discoveries Series: Vita Mathematica
birkhauser-science.de Johan C.-E. Stén A Comet of the Enlightenment Anders Johan Lexell's Life and Discoveries Series: Vita Mathematica The first-ever full-length biography of the mathematician and astronomer Anders Johan Lexell (1740–1784) Sheds new light on the collaborators of Leonhard Euler Interesting study of a scientist's grand tour through enlightened Europe The Finnish mathematician and astronomer Anders Johan Lexell (1740–1784) was a long-time close collaborator as well as the academic successor of Leonhard Euler at the Imperial Academy of Sciences in Saint Petersburg. Lexell was initially invited by Euler from his native town of Abo (Turku) in Finland to Saint Petersburg to assist in the mathematical processing of the astronomical data of the forthcoming transit of Venus of 1769. A few years later he 2014, XVI, 300 p. 46 illus., 16 illus. in became an ordinary member of the Academy. This is the first-ever full-length biography color. devoted to Lexell and his prolific scientific output. His rich correspondence especially from his grand tour to Germany, France and England reveals him as a lucid observer of the intellectual Printed book landscape of enlightened Europe. In the skies, a comet, a minor planet and a crater on the Hardcover Moon named after Lexell also perpetuate his memory. 129,99 € | £109.99 | $159.99 [1]139,09 € (D) | 142,99 € (A) | CHF 153,50 Softcover 89,99 € | £79.99 | $109.99 [1]96,29 € (D) | 98,99 € (A) | CHF 106,50 eBook 74,89 € | £63.99 | $84.99 [2]74,89 € (D) | 74,89 € (A) | CHF 85,00 Available from your library or springer.com/shop MyCopy [3] Printed eBook for just € | $ 24.99 springer.com/mycopy Order online at springer.com / or for the Americas call (toll free) 1-800-SPRINGER / or email us at: [email protected]. -
Academic Genealogy of the Oakland University Department Of
Basilios Bessarion Mystras 1436 Guarino da Verona Johannes Argyropoulos 1408 Università di Padova 1444 Academic Genealogy of the Oakland University Vittorino da Feltre Marsilio Ficino Cristoforo Landino Università di Padova 1416 Università di Firenze 1462 Theodoros Gazes Ognibene (Omnibonus Leonicenus) Bonisoli da Lonigo Angelo Poliziano Florens Florentius Radwyn Radewyns Geert Gerardus Magnus Groote Università di Mantova 1433 Università di Mantova Università di Firenze 1477 Constantinople 1433 DepartmentThe Mathematics Genealogy Project of is a serviceMathematics of North Dakota State University and and the American Statistics Mathematical Society. Demetrios Chalcocondyles http://www.mathgenealogy.org/ Heinrich von Langenstein Gaetano da Thiene Sigismondo Polcastro Leo Outers Moses Perez Scipione Fortiguerra Rudolf Agricola Thomas von Kempen à Kempis Jacob ben Jehiel Loans Accademia Romana 1452 Université de Paris 1363, 1375 Université Catholique de Louvain 1485 Università di Firenze 1493 Università degli Studi di Ferrara 1478 Mystras 1452 Jan Standonck Johann (Johannes Kapnion) Reuchlin Johannes von Gmunden Nicoletto Vernia Pietro Roccabonella Pelope Maarten (Martinus Dorpius) van Dorp Jean Tagault François Dubois Janus Lascaris Girolamo (Hieronymus Aleander) Aleandro Matthaeus Adrianus Alexander Hegius Johannes Stöffler Collège Sainte-Barbe 1474 Universität Basel 1477 Universität Wien 1406 Università di Padova Università di Padova Université Catholique de Louvain 1504, 1515 Université de Paris 1516 Università di Padova 1472 Università -
Program of the Sessions San Diego, California, January 9–12, 2013
Program of the Sessions San Diego, California, January 9–12, 2013 AMS Short Course on Random Matrices, Part Monday, January 7 I MAA Short Course on Conceptual Climate Models, Part I 9:00 AM –3:45PM Room 4, Upper Level, San Diego Convention Center 8:30 AM –5:30PM Room 5B, Upper Level, San Diego Convention Center Organizer: Van Vu,YaleUniversity Organizers: Esther Widiasih,University of Arizona 8:00AM Registration outside Room 5A, SDCC Mary Lou Zeeman,Bowdoin upper level. College 9:00AM Random Matrices: The Universality James Walsh, Oberlin (5) phenomenon for Wigner ensemble. College Preliminary report. 7:30AM Registration outside Room 5A, SDCC Terence Tao, University of California Los upper level. Angles 8:30AM Zero-dimensional energy balance models. 10:45AM Universality of random matrices and (1) Hans Kaper, Georgetown University (6) Dyson Brownian Motion. Preliminary 10:30AM Hands-on Session: Dynamics of energy report. (2) balance models, I. Laszlo Erdos, LMU, Munich Anna Barry*, Institute for Math and Its Applications, and Samantha 2:30PM Free probability and Random matrices. Oestreicher*, University of Minnesota (7) Preliminary report. Alice Guionnet, Massachusetts Institute 2:00PM One-dimensional energy balance models. of Technology (3) Hans Kaper, Georgetown University 4:00PM Hands-on Session: Dynamics of energy NSF-EHR Grant Proposal Writing Workshop (4) balance models, II. Anna Barry*, Institute for Math and Its Applications, and Samantha 3:00 PM –6:00PM Marina Ballroom Oestreicher*, University of Minnesota F, 3rd Floor, Marriott The time limit for each AMS contributed paper in the sessions meeting will be found in Volume 34, Issue 1 of Abstracts is ten minutes.