On a Certain Viewpoint of Professor Nathan Jacobson -A Mathematical History Associated with Japan —
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Bibliography
Bibliography [1] Emil Artin. Galois Theory. Dover, second edition, 1964. [2] Michael Artin. Algebra. Prentice Hall, first edition, 1991. [3] M. F. Atiyah and I. G. Macdonald. Introduction to Commutative Algebra. Addison Wesley, third edition, 1969. [4] Nicolas Bourbaki. Alg`ebre, Chapitres 1-3.El´ements de Math´ematiques. Hermann, 1970. [5] Nicolas Bourbaki. Alg`ebre, Chapitre 10.El´ements de Math´ematiques. Masson, 1980. [6] Nicolas Bourbaki. Alg`ebre, Chapitres 4-7.El´ements de Math´ematiques. Masson, 1981. [7] Nicolas Bourbaki. Alg`ebre Commutative, Chapitres 8-9.El´ements de Math´ematiques. Masson, 1983. [8] Nicolas Bourbaki. Elements of Mathematics. Commutative Algebra, Chapters 1-7. Springer–Verlag, 1989. [9] Henri Cartan and Samuel Eilenberg. Homological Algebra. Princeton Math. Series, No. 19. Princeton University Press, 1956. [10] Jean Dieudonn´e. Panorama des mat´ematiques pures. Le choix bourbachique. Gauthiers-Villars, second edition, 1979. [11] David S. Dummit and Richard M. Foote. Abstract Algebra. Wiley, second edition, 1999. [12] Albert Einstein. Zur Elektrodynamik bewegter K¨orper. Annalen der Physik, 17:891–921, 1905. [13] David Eisenbud. Commutative Algebra With A View Toward Algebraic Geometry. GTM No. 150. Springer–Verlag, first edition, 1995. [14] Jean-Pierre Escofier. Galois Theory. GTM No. 204. Springer Verlag, first edition, 2001. [15] Peter Freyd. Abelian Categories. An Introduction to the theory of functors. Harper and Row, first edition, 1964. [16] Sergei I. Gelfand and Yuri I. Manin. Homological Algebra. Springer, first edition, 1999. [17] Sergei I. Gelfand and Yuri I. Manin. Methods of Homological Algebra. Springer, second edition, 2003. [18] Roger Godement. Topologie Alg´ebrique et Th´eorie des Faisceaux. -
Obituary Nathan Jacobson (1910–1999)
OBITUARY NATHAN JACOBSON (1910–1999) Nathan Jacobson, who died on 5 December 1999, was an outstanding algebraist, whose work on almost all aspects of algebra was of fundamental importance, and whose writings will exercise a lasting influence. He had been an honorary member of the Society since 1972. Nathan Jacobson (later known as ‘Jake’ to his friends) was born in Warsaw (in what he describes as the ‘Jewish ghetto’) on 5 October 1910 (through an error some documents have the date 8 September); he was the second son of Charles Jacobson (as he would be known later) and his wife Pauline, nee´ Rosenberg. His family emigrated to the USA during the First World War, first to Nashville, Tennessee, where his father owned a small grocery store, but they then settled in Birmingham, Alabama, where Nathan received most of his schooling. Later the family moved to Columbus, Mississippi, but the young Nathan entered the University of Alabama in 1926 and graduated in 1930. His initial aim was to follow an uncle and obtain a degree in law, but at the same time he took all the (not very numerous) mathematics courses, in which he did so well that he was offered a teaching assistantship in Bull. London Math. Soc. 33 (2001) 623–630 DOI: 10.1112/S0024609301008323 Downloaded from https://www.cambridge.org/core. IP address: 170.106.35.93, on 28 Sep 2021 at 20:31:37, subject to the Cambridge Core terms of use, available at https://www.cambridge.org/core/terms. https://doi.org/10.1112/S0024609301008323 624 nathan jacobson mathematics in his junior (3rd) year. -
Kailash C. Misra Rutgers University, New Brunswick
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Leon W. Cohen
From the collections of the Seeley G. Mudd Manuscript Library, Princeton, NJ These documents can only be used for educational and research purposes (“Fair use”) as per U.S. Copyright law (text below). By accessing this file, all users agree that their use falls within fair use as defined by the copyright law. They further agree to request permission of the Princeton University Library (and pay any fees, if applicable) if they plan to publish, broadcast, or otherwise disseminate this material. This includes all forms of electronic distribution. Inquiries about this material can be directed to: Seeley G. Mudd Manuscript Library 65 Olden Street Princeton, NJ 08540 609-258-6345 609-258-3385 (fax) [email protected] U.S. Copyright law test The copyright law of the United States (Title 17, United States Code) governs the making of photocopies or other reproductions of copyrighted material. Under certain conditions specified in the law, libraries and archives are authorized to furnish a photocopy or other reproduction. One of these specified conditions is that the photocopy or other reproduction is not to be “used for any purpose other than private study, scholarship or research.” If a user makes a request for, or later uses, a photocopy or other reproduction for purposes in excess of “fair use,” that user may be liable for copyright infringement. • The Princeton Mathematics Community in the 1930s Transcript Number 6 (PMC6) © The Trustees of Princeton University, 1985 LEON W. COHEN (with ALBERT TUCKER) This is an interview of Leon Warren Cohen at Princeton University on 13 April 1984. The interviewers are William Aspray and Albert Tucker. -
Abraham Adrian Albert 1905-1972 by Nathan Jacobson
BULLETIN OF THE AMERICAN MATHEMATICAL SOCIETY Volume 80, Number 6, November 1974 ABRAHAM ADRIAN ALBERT 1905-1972 BY NATHAN JACOBSON Adrian Albert, one of the foremost algebraists of the world and Presi dent of the American Mathematical Society from 1965 to 1967, died on June 6, 1972. For almost a year before his death it had become apparent to his friends that his manner had altered from its customary vigor to one which was rather subdued. At first they attributed this to a letdown which might have resulted from Albert's having recently relinquished a very demanding administrative position (Dean of the Division of Physical Sciences at the University of Chicago) that he had held for a number of years. Eventually it became known that he was gravely ill of physical causes that had their origin in diabetes with which he had been afflicted for many years. Albert was a first generation American and a second generation Ameri can mathematician following that of E. H. Moore, Oswald Veblen, L. E. Dickson and G. D. Birkhoff. His mother came to the United States from Kiev and his father came from England.1 The father had run away from his home in Yilna at the age of fourteen, and on arriving in England, he discarded his family name (which remains unknown) and took in its place the name Albert after the prince consort of Queen Victoria. Albert's father was something of a scholar, with a deep interest in English literature. He taught school for a while in England but after coming to the United States he became a salesman, a shopkeeper, and a manufacturer. -
A PROPOSED MODIFICATION of the ALGEBRA PORTION of the ADMISSION to CANDIDACY EXAMINATION Group Theory: Basic Notions and Results
A PROPOSED MODIFICATION OF THE ALGEBRA PORTION OF THE ADMISSION TO CANDIDACY EXAMINATION Group Theory: basic notions and results (especially those pertaining to automorphisms, homo- morphisms, normal subgroups, quotient groups, and conjugacy); the isomorphism theorems; group actions; the theorems of Lagrange, Cayley, Sylow and Jordan-H¨older-Schreier ; symmetric groups and permutation representations; free, nilpotent, solvable, and simple groups, finitely generated groups and their presentations, the classification of finitely generated Abelian groups. Ring Theory: Ideals and homomorphisms, localization, free and projective modules, basic theorems about factorization and UFD's , structure theory of modules over a PID, including ap- plications to canonical forms of a matrix, chain conditions, Hilbert basis theorem, integral ring extensions, the Hilbert Nullstellensatz. Field Theory. General field theory including separable and inseparable extensions, normal extensions, transcendental extensions, cyclotomic extensions, finite fields, and algebraic closure; Galois theory, solvability by radicals, cyclic extensions. Resource Texts: General Expositions (listed alphabetically by author) ∗ Michael Artin, Algebra, Prentice Hall, 1991. ∗ David S. Dummit and Richard Foote, Abstract Algebra, (3rd Edition), Wiley, 2003. ∗ Larry C. Grove, Algebra, Dover Publications, 2004. ∗ Thomas Hungerford, Algebra, Springer Verlag, 2003. ∗ I. Martin Isaacs, Algebra, A Graduate Course, American Mathematical Society, 1994. ∗ Nathan Jacobson, Basic Algebra I, Dover Publications, 2009. ∗ Joseph J. Rotman, Advanced Modern Algebra, Prentice Hall, 2002. ∗ Serge Lang, Algebra, (2nd edition), Addison-Wesley, 1992. ∗ van der Waerden, Algebra (Vol. 1.) (7th Edition), Springer Verlag, 2003. Resource Texts: Expositions on Special Topics(listed alphabetically by author) ∗ Emil Artin, Galois Theory: Lectures Delivered at the University of Notre Dame, Dover Publica- tions, 1997. ∗ Emil Artin, Algebra with Galois Theory (Courant Lecture Notes), American Mathematical So- ciety, 2007. -
1968 Commencement Program
UNIVERSITY of PENNSYLVANIA - Two Hundred and Twelfth Commencement for the Conferring of Degrees PHILADELPHIA CIVIC CENTER Monday, May 20, 1968 10:00 A.M. jJ STAGE (1, ......II ,........I " Official Guests Medicine College for Women Graduate Medicine Wharton Law College Nursing Graduate Allied Fine Arts Medical Professions Dental Medicine Veterinary Medicine Wharton Graduate Graduate Arts& Sciences Civil& Mechanical Engineering Chemical Graduate Engineering Education Electrical Engineering Social Work Metallurgy Annenberg Guests will find this diagram helpful in locating the opposite page under Degrees in Course. Reference approximate seating of the degree candidates. The to the paragraph on page seven describing the seating and the order of march in the student pro colors of the candidates' hoods according to their cession correspond closely to the order by school fields of study may further assist guests in placing in which the candidates for degrees are presented. the locations of the various schools. This sequence is shown in the Contents on the Contents Page Seating Diagram of the Graduating Students .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. 2 The Commencement Ceremony . 4 Background of the Ceremonies . .. .. .. 6 Degrees in Course . .. .. .. 8 The College of Arts and Sciences . 8 The Engineering Schools . .. .. .. 14 The Towne School of Civil and Mechanical Engineering ... ........ ......... 14 The School of Chemical Engineering . .. .. .. 15 The Moore School of Electrical Engineering . .. 16 The School of Metallurgy and Materials Science . .. .. 18 The Wharton School of Finance and Commerce . 19 The College of Liberal Arts for Women ....... .. ... ...... .. .. .... ............ ..... .. ......... 26 The School of Nursing ... ........................... .... ................ ... ................... ........ 31 The School of Allied Medical Professions . .. .. 3 3 The Graduate School of Arts and Sciences . .. .. .. 34 The School of Medicine . -
THE ANNUAL MEETING in SAN FRANCISCO the Eightieth Annual
BULLETIN OF THE AMERICAN MATHEMATICAL SOCIETY Volume 80, Number 4, July 1974 THE ANNUAL MEETING IN SAN FRANCISCO The eightieth annual meeting of the American Mathematical Society was held at the San Francisco Hilton Hotel in San Francisco, California, from Tues day, January 15, through Friday, January 18, 1974. There were 3337 registrants, including 2533 members of the Society. The meeting was held in conjunction with the annual meeting of the Mathematical Association of America (January 17-19). There were two sets of Colloquium Lectures, each consisting of four one-hour talks. Professor Louis Nirenberg of the Courant Institute of Mathematical Sciences, New York University, presented a series of Colloquium Lectures entitled Selected topics in partial differential equations. He was introduced at his four lectures by Professors Saunders Mac Lane, Murray H. Protter, Lamberto Cesari, and Charles B. Morrey, Jr. The other series of Colloquium Lectures was given by Professor John G. Thompson of the University of Cambridge. The title of his lectures was Finite simple groups. Professor Thompson was introduced by Professors Saunders Mac Lane, Nathan Jacobson, Walter Feit, and Marshall Hall, Jr. Professor Nathan Jacobson of Yale University gave his Retiring Presidential Address on Wednesday, January 16, 1974. The title of his address was Some groups and Lie algebras defined by Jordan algebras. Professor Saunders Mac Lane introduced Professor Jacobson at his lecture. The forty-seventh Josiah Willard Gibbs Lecture, Economics and mathematical analysis, was presented by Professor Paul A. Samuelson of the Massachusetts Institute of Technology on Tuesday, January 15,1974. Professor Samuelson was introduced by Professor Saunders Mac Lane. -
Mathematicians Who Never Were
Mathematical Communities BARBARA PIERONKIEWICZ Mathematicians Who . H. Hardy and his close friend and long-time collaborator J. Littlewood are well known today. GGMost mathematicians of their time knew their names, Never Were too. However, since Littlewood had been seen in public places far less often than Hardy, some people joked about BARBARA PIERONKIEWICZ whether he really existed or not. Some even speculated openly that maybe Littlewood was only ‘‘a pseudonym that Hardy put on his weaker papers’’ (Krantz 2001, p. 47). Let’s make it clear then: Littlewood was not just ‘‘a figment of This column is a forum for discussion of mathematical Hardy’s imagination’’ (Fitzgerald and James 2007, p. 136). He was real, unlike most of the famous scientists explored communities throughout the world, and through all in this article. time. Our definition of ‘‘mathematical community’’ is Nicolas Bourbaki The title of the ‘‘Most Famous Mathematician Who Never the broadest: ‘‘schools’’ of mathematics, circles of Existed’’ would probably go to Nicolas Bourbaki. In 1935 correspondence, mathematical societies, student this name was chosen as a pen name by a group of young mathematicians educated at the E´cole Normale Supe´rieure organizations, extra-curricular educational activities in Paris. The founders of the group were Henri Cartan, Claude Chevalley, Jean Coulomb, Jean Delsarte, Jean (math camps, math museums, math clubs), and more. Dieudonne´, Charles Ehresmann, Rene´ de Possel, Szolem Mandelbrojt, and Andre´ Weil. In 1952 they formed a group What we say about the communities is just as called Association des Collaborateurs de Nicolas Bourbaki. unrestricted. We welcome contributions from Through the years, the collective identity of Bourbaki has gathered numerous mathematicians, including Alexandre mathematicians of all kinds and in all places, and also Grothendieck, Armand Borel, Gustave Choquet, and many others. -
From the Collections of the Seeley G. Mudd Manuscript Library, Princeton, NJ
From the collections of the Seeley G. Mudd Manuscript Library, Princeton, NJ These documents can only be used for educational and research purposes (“Fair use”) as per U.S. Copyright law (text below). By accessing this file, all users agree that their use falls within fair use as defined by the copyright law. They further agree to request permission of the Princeton University Library (and pay any fees, if applicable) if they plan to publish, broadcast, or otherwise disseminate this material. This includes all forms of electronic distribution. Inquiries about this material can be directed to: Seeley G. Mudd Manuscript Library 65 Olden Street Princeton, NJ 08540 609-258-6345 609-258-3385 (fax) [email protected] U.S. Copyright law test The copyright law of the United States (Title 17, United States Code) governs the making of photocopies or other reproductions of copyrighted material. Under certain conditions specified in the law, libraries and archives are authorized to furnish a photocopy or other reproduction. One of these specified conditions is that the photocopy or other reproduction is not to be “used for any purpose other than private study, scholarship or research.” If a user makes a request for, or later uses, a photocopy or other reproduction for purposes in excess of “fair use,” that user may be liable for copyright infringement. The Princeton Mathematics Community in the 1930s Transcript Number 8 (PMC8) © The Trustees of Princeton University,· 1985 WILLIAM L. DUREN, NATHAN JACOBSON, and EDWARD J. McSHANE This is an interview of William L. Duren, Nathan Jacobson, and Edward J. -
Why All Rings Should Have a 1
Why All Rings Should Have a 1 The MIT Faculty has made this article openly available. Please share how this access benefits you. Your story matters. Citation Poonen, Bjorn et al. "Why All Rings Should Have a 1." Mathematics Magazine 92, 1 (January 2019): 58-62 © 2019 Mathematical Association of America As Published http://dx.doi.org/10.1080/0025570x.2018.1538714 Publisher Informa UK Limited Version Original manuscript Citable link https://hdl.handle.net/1721.1/126525 Terms of Use Creative Commons Attribution-Noncommercial-Share Alike Detailed Terms http://creativecommons.org/licenses/by-nc-sa/4.0/ Why all rings should have a 1 Bjorn Poonen Department of Mathematics Massachusetts Institute of Technology Cambridge, MA 02139-4307, USA [email protected] June 15, 2018 Should the definition of ring require the existence of a multiplicative iden- tity 1? Emmy Noether, when giving the modern axiomatic definition of a commu- tative ring, in 1921, did not include such an axiom [15, p. 29]. For several decades, algebra books followed suit [16, x3.1], [18, I.x5]. But starting around 1960, many books by notable researchers began using the term \ring" to mean \ring with 1" [7, 0.(1.0.1)], [14, II.x1], [17, p. XIV], [1, p. 1]. Sometimes a change of heart occurred in a single person, or between editions of a single book, always towards requiring a 1: compare [11, p. 49] with [13, p. 86], or [2, p. 370] with [3, p. 346], or [4, I.x8.1] with [5, I.x8.1]. Reasons were not given; perhaps it was just becoming increasingly clear that the 1 was needed for many theorems to hold; some good reasons for requiring a 1 are explained in [6]. -
A Historical Perspective of the Theory of Isotopisms
Article A Historical Perspective of the Theory of Isotopisms Raúl M. Falcón 1,* , Óscar J. Falcón 2 and Juan Núñez 2 1 Department Applied Mathematics I, University of Sevilla, 41004 Seville, Spain 2 Department Geometry and Topology, University of Sevilla, 41004 Seville, Spain; [email protected] (Ó.J.F.); [email protected] (J.N.) * Correspondence: [email protected]; Tel.: +34-954-550-158 Received: 23 May 2018; Accepted: 31 July 2018; Published: 3 August 2018 Abstract: In the middle of the twentieth century, Albert and Bruck introduced the theory of isotopisms of non-associative algebras and quasigroups as a generalization of the classical theory of isomorphisms in order to study and classify such structures according to more general symmetries. Since then, a wide range of applications have arisen in the literature concerning the classification and enumeration of different algebraic and combinatorial structures according to their isotopism classes. In spite of that, there does not exist any contribution dealing with the origin and development of such a theory. This paper is a first approach in this regard. Keywords: isotopism; classification; non-associative algebra; quasigroup; Latin square MSC: 17B40; 16D70; 17B60; 05B15 1. Introduction In Mathematics, the most usual criterion for determining symmetries within any given algebraic or combinatorial structure is based on the study of its automorphism group, that is, on the set of isomorphisms from the object under consideration to itself so that all its defining properties are preserved. Any such an automorphism is indeed considered as a symmetry of the structure in question. In particular, if two mathematical objects of the same type (that is, sharing exactly the same defining properties) are isomorphic, then their corresponding automorphism groups are also isomorphic, and, hence, they are actually considered to have the same kind of symmetries.