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  <titleInfo>
    <title>Linear representations of finite groups</title>
  </titleInfo>
  <name type="personal">
    <namePart>Serre, J.P.</namePart>
    <role>
      <roleTerm authority="marcrelator" type="text">creator</roleTerm>
    </role>
    <role>
      <roleTerm type="text">Author</roleTerm>
    </role>
  </name>
  <name type="personal">
    <namePart>Scott, Leonard L.</namePart>
    <role>
      <roleTerm type="text">Translator</roleTerm>
    </role>
  </name>
  <typeOfResource/>
  <originInfo>
    <place>
      <placeTerm type="text">New York</placeTerm>
    </place>
    <publisher>Springer</publisher>
    <dateIssued>1977</dateIssued>
    <issuance/>
  </originInfo>
  <language>
    <languageTerm authority="iso639-2b" type="code">eng</languageTerm>
  </language>
  <physicalDescription>
    <extent>x, 170 p. : ill. ; 22 cm. </extent>
  </physicalDescription>
  <abstract>This book consists of three parts, rather different in level and purpose: The first part was originally written for quantum chemists. It describes the correspondence, due to Frobenius, between linear representations and charac­ ters. This is a fundamental result, of constant use in mathematics as well as in quantum chemistry or physics. I have tried to give proofs as elementary as possible, using only the definition of a group and the rudiments of linear algebra. The examples (Chapter 5) have been chosen from those useful to chemists. The second part is a course given in 1966 to second-year students of I'Ecoie Normale. It completes the first on the following points: (a) degrees of representations and integrality properties of characters (Chapter 6); (b) induced representations, theorems of Artin and Brauer, and applications (Chapters 7-11); (c) rationality questions (Chapters 12 and 13). The methods used are those of linear algebra (in a wider sense than in the first part): group algebras, modules, noncommutative tensor products, semisimple algebras. The third part is an introduction to Brauer theory: passage from characteristic 0 to characteristic p (and conversely). I have freely used the language of abelian categories (projective modules, Grothendieck groups), which is well suited to this sort of question. The principal results are: (a) The fact that the decomposition homomorphism is surjective: all irreducible representations in characteristic p can be lifted "virtually" (i.e., in a suitable Grothendieck group) to characteristic O.</abstract>
  <note type="statement of responsibility">J.P. Serre and translated by Leonard L. Scott </note>
  <note>Includes bibliographical references and index.</note>
  <subject>
    <topic>Mathematics</topic>
  </subject>
  <subject>
    <topic>Modules (Algebra)</topic>
    <topic>Finite groups</topic>
  </subject>
  <subject>
    <topic>Mathieu groups</topic>
    <topic>Finite groups</topic>
  </subject>
  <classification authority="ddc">512.23 SER/L</classification>
  <identifier type="isbn">9780387901909 (hbk. )</identifier>
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    <recordCreationDate encoding="marc">260508</recordCreationDate>
    <recordChangeDate encoding="iso8601">20260527175143.0</recordChangeDate>
    <recordIdentifier source="IN-BhIIT">TB12849</recordIdentifier>
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