Christer Kiselman Nash & Nash: Jörgen Weibull
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JM Coetzee and Mathematics Peter Johnston
1 'Presences of the Infinite': J. M. Coetzee and Mathematics Peter Johnston PhD Royal Holloway University of London 2 Declaration of Authorship I, Peter Johnston, hereby declare that this thesis and the work presented in it is entirely my own. Where I have consulted the work of others, this is always clearly stated. Signed: Dated: 3 Abstract This thesis articulates the resonances between J. M. Coetzee's lifelong engagement with mathematics and his practice as a novelist, critic, and poet. Though the critical discourse surrounding Coetzee's literary work continues to flourish, and though the basic details of his background in mathematics are now widely acknowledged, his inheritance from that background has not yet been the subject of a comprehensive and mathematically- literate account. In providing such an account, I propose that these two strands of his intellectual trajectory not only developed in parallel, but together engendered several of the characteristic qualities of his finest work. The structure of the thesis is essentially thematic, but is also broadly chronological. Chapter 1 focuses on Coetzee's poetry, charting the increasing involvement of mathematical concepts and methods in his practice and poetics between 1958 and 1979. Chapter 2 situates his master's thesis alongside archival materials from the early stages of his academic career, and thus traces the development of his philosophical interest in the migration of quantificatory metaphors into other conceptual domains. Concentrating on his doctoral thesis and a series of contemporaneous reviews, essays, and lecture notes, Chapter 3 details the calculated ambivalence with which he therein articulates, adopts, and challenges various statistical methods designed to disclose objective truth. -
European Mathematical Society
CONTENTS EDITORIAL TEAM EUROPEAN MATHEMATICAL SOCIETY EDITOR-IN-CHIEF MARTIN RAUSSEN Department of Mathematical Sciences, Aalborg University Fredrik Bajers Vej 7G DK-9220 Aalborg, Denmark e-mail: [email protected] ASSOCIATE EDITORS VASILE BERINDE Department of Mathematics, University of Baia Mare, Romania NEWSLETTER No. 52 e-mail: [email protected] KRZYSZTOF CIESIELSKI Mathematics Institute June 2004 Jagiellonian University Reymonta 4, 30-059 Kraków, Poland EMS Agenda ........................................................................................................... 2 e-mail: [email protected] STEEN MARKVORSEN Editorial by Ari Laptev ........................................................................................... 3 Department of Mathematics, Technical University of Denmark, Building 303 EMS Summer Schools.............................................................................................. 6 DK-2800 Kgs. Lyngby, Denmark EC Meeting in Helsinki ........................................................................................... 6 e-mail: [email protected] ROBIN WILSON On powers of 2 by Pawel Strzelecki ........................................................................ 7 Department of Pure Mathematics The Open University A forgotten mathematician by Robert Fokkink ..................................................... 9 Milton Keynes MK7 6AA, UK e-mail: [email protected] Quantum Cryptography by Nuno Crato ............................................................ 15 COPY EDITOR: KELLY -
Interview with Arild Stubhaug
Interview Interview with Arild Stubhaug Conducted by Ulf Persson (Göteborg, Sweden) Arild Stubhaug, who is known among mathematicians for his bio graphy of Abel, has also produced a noted biography of Sophus Lie and is now involved Arild Stubhaug with a statue of Gösta Mittag-Leffl er in the project of writing a bi- ography of the Swedish math- language turned out to be the most interesting subject of ematician Mittag-Leffl er and the work for me. After mathematics I studied Latin, history mathematical period in which he of literature and eastern religion purely out of personal was infl uential. Following up the curiosity and desire. At that time such a combination interview, we will also have the could never be part of a regular university degree, hence privilege of giving a sample of I have never been regularly employed. Arild Stubhaug the up-coming work in a forth- coming issue of the Newsletter. But why Mittag-Leffl er? Abel is one of the greatest mathematicians ever, this is an uncontroversial fact, You are an established literary writer in Norway, and if and his short life has all the ingredients of romantic I recall correctly you already had your fi rst work pub- tragedy. Lie may not be of the same exalted stature, lished by the age of twenty-two. You have written poetry but of course the notion of “Lie”, in group-theory and as well as novels, what made you start writing biogra- algebra, is a mathematical household word. But Mit- phies of Norwegian mathematicians in recent years? tag-Leffl er? I think that any mathematician would be In recent years…, that is not exactly correct. -
Download an Introduction to Mathematics, Alfred North Whitehead, Bibliobazaar, 2009
An Introduction to Mathematics, Alfred North Whitehead, BiblioBazaar, 2009, 1103197886, 9781103197880, . Introduction to mathematics , Bruce Elwyn Meserve, Max A. Sobel, 1964, Mathematics, 290 pages. Principia mathematica to *56 , Alfred North Whitehead, Bertrand Russell, 1970, Logic, Symbolic and mathematical, 410 pages. Modes of Thought , , Feb 1, 1968, Philosophy, 179 pages. Mathematics , Cassius Jackson Keyser, 2009, History, 48 pages. This is a pre-1923 historical reproduction that was curated for quality. Quality assurance was conducted on each of these books in an attempt to remove books with imperfections .... On mathematical concepts of the material world , Alfred North Whitehead, 1906, Mathematics, 61 pages. The mammalian cell as a microorganism genetic and biochemical studies in vitro, Theodore Thomas Puck, 1972, Science, 219 pages. Religion in the Making Lowell Lectures 1926, Alfred North Whitehead, Jan 1, 1996, Philosophy, 244 pages. This classic text in American Philosophy by one of the foremost figures in American philosophy offers a concise analysis of the various factors in human nature which go toward .... Symbolism Its Meaning and Effect, Alfred North Whitehead, Jan 1, 1985, Philosophy, 88 pages. Whitehead's response to the epistemological challenges of Hume and Kant in its most vivid and direct form.. The Evidences of the Genuineness of the Gospels , Andrews Norton, 2009, History, 370 pages. Many of the earliest books, particularly those dating back to the 1900s and before, are now extremely scarce and increasingly expensive. We are republishing these classic works .... Dialogues of Alfred North Whitehead , , 2001, Literary Criticism, 385 pages. Philospher, mathematician, and general man of science, Alfred North Whitehead was a polymath whose interests and generous sympathies encompassed entire worlds. -
D6. 27Ri-7T Carleman's Result Was an Early Predecessor of the Beurling-Rudin Theorem [RUDI; HOF, Pp
transactions of the american mathematical society Volume 306, Number 2, April 1988 OUTER FUNCTIONS IN FUNCTION ALGEBRAS ON THE BIDISC HÂKAN HEDENMALM ABSTRACT. Let / be a function in the bidisc algebra A(D2) whose zero set Z(f) is contained in {1} x D. We show that the closure of the ideal generated by / coincides with the ideal of functions vanishing on Z(f) if and only if f(-,a) is an outer function for all a e D, and /(l, ■) either vanishes identically or is an outer function. Similar results are obtained for a few other function algebras on D2 as well. 0. Introduction. In 1926, Torsten Carleman [CAR; GRS, §45] proved the following theorem: A function f in the disc algebra A(D), vanishing at the point 1 only, generates an ideal that is dense in the maximal ideal {g £ A(D): g(l) = 0} if and only if lim (1-Í) log |/(0I=0. R3t->1- This condition, which Carleman refers to as / having no logarithmic residue, is equivalent to / being an outer function in the sense that log\f(0)\ = ± T log\f(e*e)\d6. 27ri-7T Carleman's result was an early predecessor of the Beurling-Rudin Theorem [RUDI; HOF, pp. 82-89], which completely describes the collection of all closed ideals in A(D). For a function / in the bidisc algebra A(D2), let Z(f) = {z £ D2 : f(z) = 0} be its zero set, and denote by 1(f) the closure of the principal ideal in A(D2) generated by /. For E C D , introduce the notation 1(E) = {/ G A(D2) : / = 0 on E}. -
Efficient Quantum Algorithm for Dissipative Nonlinear Differential
Efficient quantum algorithm for dissipative nonlinear differential equations Jin-Peng Liu1;2;3 Herman Øie Kolden4;5 Hari K. Krovi6 Nuno F. Loureiro5 Konstantina Trivisa3;7 Andrew M. Childs1;2;8 1 Joint Center for Quantum Information and Computer Science, University of Maryland, MD 20742, USA 2 Institute for Advanced Computer Studies, University of Maryland, MD 20742, USA 3 Department of Mathematics, University of Maryland, MD 20742, USA 4 Department of Physics, Norwegian University of Science and Technology, NO-7491 Trondheim, Norway 5 Plasma Science and Fusion Center, Massachusetts Institute of Technology, MA 02139, USA 6 Raytheon BBN Technologies, MA 02138, USA 7 Institute for Physical Science and Technology, University of Maryland, MD 20742, USA 8 Department of Computer Science, University of Maryland, MD 20742, USA Abstract While there has been extensive previous work on efficient quantum algorithms for linear differential equations, analogous progress for nonlinear differential equations has been severely limited due to the linearity of quantum mechanics. Despite this obstacle, we develop a quantum algorithm for initial value problems described by dissipative quadratic n-dimensional ordinary differential equations. Assuming R < 1, where R is a parameter characterizing the ratio of the nonlinearity to the linear dissipation, this algorithm has complexity T 2 poly(log T; log n)/, where T is the evolution time and is the allowed error in the output quantum state. This is an exponential improvement over the best previous quantum algorithms, whose complexity is exponential in T . We achieve this improvement using the method of Carleman linearization, for which we give an improved convergence theorem. -
HPM Newsletter 56 July 2004
ICME-10 Satellite meeting of HPM, to be No. 56 July 2004 held in Uppsala (authors: Florence Fasanelli HPM Advisory Board: and John Fauvel, 2004). Fulvia Furinghetti, Chair Dipartimento di Matematica, Università di Genova, via Dodecaneso 35, 16146 Genova, Italy Peter Ransom, Editor ([email protected]), The Mountbatten School and Language College, The interest for the use of history in Romsey, SO51 5SY, UK mathematics education has remote roots in the Masami Isoda, Webmaster work of famous historians such as Florian ([email protected]), Institute of Cajori, David Eugene Smith, Gino Loria and Education, University of Tsukuba, 305-8572 JAPAN Hieronymus Georg Zeuthen. In recent times the ideas outlined in a theoretical way by Jan van Maanen, The Netherlands, (former chair); those important historians of the past had Florence Fasanelli, USA, (former chair); Ubiratan D’Ambrosio, Brazil, (former chair) interesting applications in the classroom. Evelyne Barbin, France Teaching experiments are discussed in Luis Radford, Canada specific studies and doctoral dissertations are Gert Schubring, Germany written all over the world. All that assists in making the links of history and mathematics Report by HPM: The International education more rigorous and fruitful. Study Group on the Relations between the History and At the end of my four years (2000-2004) as Pedagogy of Mathematics the chairperson of HPM, I browse through my memories and the HPM Newsletter issues to pick up information on the activities of HPM HPM Activities 2000-2004 and, more generally, on relevant events related to the links between history and Together with the PME group (International pedagogy in mathematics. -
Notes on the Founding of the DUKE MATHEMATICAL JOURNAL
Notes on the Founding of the DUKE MATHEMATICAL JOURNAL Title page to the bound first volume of DMJ CONTENTS Introduction 1 Planning a New Journal 3 Initial Efforts 3 First Discussion with the AMS 5 Galvanizing Support for a New Journal at Duke 7 Second Discussion with the AMS 13 Regaining Initiative 16 Final Push 20 Arrangements with Duke University Press 21 Launching a New Journal 23 Selecting a Title for the Journal and Forming a Board of Editors 23 Transferring Papers to DMJ 28 Credits 31 Notes 31 RESOLUTION The Council of the American Mathematical Society desires to express to the officers of Duke University, to the members of the Department of Mathematics of the University, and to the other members of the Editorial Board of the Duke Mathematical Journal its grateful appreciation of the service rendered by the Journal to mathematical science, and to extend to all those concerned in its management the congratulations of the Society on the distinguished place which it has assumed from the beginning among the significant mathematical periodicals of the world. December 31, 1935 St. Louis, Missouri INTRODUCTION In January 1936, just weeks after the completion of the first volume of the Duke Mathematical Journal (DMJ), Roland G. D. Richardson, professor and dean of the graduate school at Brown University, longtime secretary of the American Mathematical Society (AMS), and one of the early proponents of the founding of the journal, wrote to Duke President William Preston Few to share the AMS Council’s recent laudatory resolution and to offer his own personal note of congratulations: In my dozen years as Secretary of the American Mathematical Society no project has interested me more than the founding of this new mathematical journal. -
Charles Sanders Peirce - Wikipedia, the Free Encyclopedia 9/2/10 4:55 PM
Charles Sanders Peirce - Wikipedia, the free encyclopedia 9/2/10 4:55 PM Charles Sanders Peirce From Wikipedia, the free encyclopedia Charles Sanders Peirce (pronounced /ˈpɜrs/ purse[1]) Charles Sanders Peirce (September 10, 1839 – April 19, 1914) was an American philosopher, logician, mathematician, and scientist, born in Cambridge, Massachusetts. Peirce was educated as a chemist and employed as a scientist for 30 years. It is largely his contributions to logic, mathematics, philosophy, and semiotics (and his founding of pragmatism) that are appreciated today. In 1934, the philosopher Paul Weiss called Peirce "the most original and versatile of American philosophers and America's greatest logician".[2] An innovator in many fields (including philosophy of science, epistemology, metaphysics, mathematics, statistics, research methodology, and the design of experiments in astronomy, geophysics, and psychology) Peirce considered himself a logician first and foremost. He made major contributions to logic, but logic for him encompassed much of that which is now called epistemology and philosophy of science. He saw logic as the Charles Sanders Peirce formal branch of semiotics, of which he is a founder. As early as 1886 he saw that logical operations could be carried out by Born September 10, 1839 electrical switching circuits, an idea used decades later to Cambridge, Massachusetts produce digital computers.[3] Died April 19, 1914 (aged 74) Milford, Pennsylvania Contents Nationality American 1 Life Fields Logic, Mathematics, 1.1 United States Coast Survey Statistics, Philosophy, 1.2 Johns Hopkins University Metrology, Chemistry 1.3 Poverty Religious Episcopal but 2 Reception 3 Works stance unconventional 4 Mathematics 4.1 Mathematics of logic C. -
Generalized Fourier Transformations: the Work of Bochner and Carleman Viewed in the Light of the Theories of Schwartz and Sato
GENERALIZED FOURIER TRANSFORMATIONS: THE WORK OF BOCHNER AND CARLEMAN VIEWED IN THE LIGHT OF THE THEORIES OF SCHWARTZ AND SATO CHRISTER O. KISELMAN Uppsala University, P. O. Box 480, SE-751 06 Uppsala, Sweden E-mail: [email protected] Salomon Bochner (1899–1982) and Torsten Carleman (1892–1949) presented gen- eralizations of the Fourier transform of functions defined on the real axis. While Bochner’s idea was to define the Fourier transform as a (formal) derivative of high order of a function, Carleman, in his lectures in 1935, defined his Fourier trans- form as a pair of holomorphic functions and thus foreshadowed the definition of hyperfunctions. Jesper L¨utzen, in his book on the prehistory of the theory of dis- tributions, stated two problems in connection with Carleman’s generalization of the Fourier transform. In the article these problems are discussed and solved. Contents: 1. Introduction 2. Bochner 3. Streamlining Bochner’s definition 4. Carleman 5. Schwartz 6. Sato 7. On Carleman’s Fourier transformation 8. L¨utzen’s first question 9. L¨utzen’s second question 10. Conclusion References 1 Introduction In order to define in an elementary way the Fourier transform of a function we need to assume that it decays at infinity at a certain rate. Already long ago mathematicians felt a need to extend the definition to more general functions. In this paper I shall review some of the attempts in that direction: I shall explain the generalizations presented by Salomon Bochner (1899–1982) and Torsten Carleman (1892–1949) and try to put their ideas into the framework of the later theories developed by Laurent Schwartz and Mikio Sato. -
Hilbert in Missouri Author(S): David Zitarelli Reviewed Work(S): Source: Mathematics Magazine, Vol
Hilbert in Missouri Author(s): David Zitarelli Reviewed work(s): Source: Mathematics Magazine, Vol. 84, No. 5 (December 2011), pp. 351-364 Published by: Mathematical Association of America Stable URL: http://www.jstor.org/stable/10.4169/math.mag.84.5.351 . Accessed: 22/01/2012 11:15 Your use of the JSTOR archive indicates your acceptance of the Terms & Conditions of Use, available at . http://www.jstor.org/page/info/about/policies/terms.jsp JSTOR is a not-for-profit service that helps scholars, researchers, and students discover, use, and build upon a wide range of content in a trusted digital archive. We use information technology and tools to increase productivity and facilitate new forms of scholarship. For more information about JSTOR, please contact [email protected]. Mathematical Association of America is collaborating with JSTOR to digitize, preserve and extend access to Mathematics Magazine. http://www.jstor.org VOL. 84, NO. 5, DECEMBER 2011 351 Hilbert in Missouri DAVIDZITARELLI Temple University Philadelphia, PA 19122 [email protected] No, David Hilbert never visited Missouri. In fact, he never crossed the Atlantic. Yet doctoral students he produced at Gottingen¨ played important roles in the development of mathematics during the first quarter of the twentieth century in what was then the southwestern part of the United States, particularly in that state. It is well known that Felix Klein exerted a primary influence on the emerging American mathematical research community at the end of the nineteenth century by mentoring students and educating professors in Germany as well as lecturing in the U.S. -
Who Is Lennart Carleson?
The Abel Prize for 2006 has been awarded Lennart Carleson, The Royal Institute of Technology, Stockholm, Sweden Professor Lennart Carleson will accept the Abel Prize for 2006 from His Majesty King Harald in a ceremony at the University of Oslo Aula, at 2:00 p.m. on Tuesday, 23 May 2006. In this background paper, we shall give a description of Carleson and his work. This description includes precise discussions of his most important results and attempts at popular presentations of those same results. In addition, we present the committee's reasons for choosing the winner and Carleson's personal curriculum vitae. This paper has been written by the Abel Prize's mathematics spokesman, Arne B. Sletsjøe, and is based on the Abel Committee's deliberations and prior discussion, relevant technical literature and discussions with members of the Abel Committee. All of this material is available for use by the media, either directly or in an adapted version. Oslo, Norway, 23 March 2006 Contents Introduction .................................................................................................................... 2 Who is Lennart Carleson? ............................................................................................... 3 Why has he been awarded the Abel Prize for 2006? ........................................................ 4 Popular presentations of Carleson's results ...................................................................... 6 Convergence of Fourier series....................................................................................