ID: hep-th/9605230

An Explicit and Simple Relationship Between Two Model Spaces

May 31, 1996

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Models of representations for classical series of Lie algebras

March 26, 2023

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D. V. Artamonov
Representation Theory

A model of representations of a Lie algebra is a representation which a direct sum of all irreducible finite dimensional representations taken with multiplicity $1$. In the paper an explicit construction of a model of representation for all series of classical Lie algebras is given. The construction does not differ much for different series. The space of the model is constructed as a space of polynomial solutions of a system of partial differential equations. The equations in...

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Quite a Character: The Spectrum of Yang-Mills on S^3

December 26, 2008

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Taylor H. Newton, Marcus Spradlin
High Energy Physics - Theory

We introduce a simple method to extract the representation content of the spectrum of a system with SU(2) symmetry from its partition function. The method is easily generalized to systems with SO(2,4) symmetry, such as conformal field theories in four dimensions. As a specific application we obtain an explicit generating function for the representation content of free planar Yang-Mills theory on S^3. The extension to N = 4 super Yang-Mills is also discussed.

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The Comparison between the Infinitesimal Operators for SU(3) and Boson Operators in Cartan-Weyl Basis

July 22, 2003

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Chin-Sheng Yuan-Ze University, Taiwan Wu
Mathematical Physics

We present the detailed calculation of the infinitesimal operators and the boson operators for SU (3) in Cartan-Weyl basis. They have been used extensively as theoretical models for particle physics. We make a comparison between them, alongside with SL(3,c), which displays the concise appearance.

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Representations of SU(2) and Jacobi polynomials

June 27, 2016

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Tom H. Koornwinder
Classical Analysis and ODEs

This is a tutorial introduction to the representation theory of SU(2) with emphasis on the occurrence of Jacobi polynomials in the matrix elements of the irreducible representations. The last section traces the history of the insight that Jacobi polynomials occur in the representation theory of SU(2).

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The Schwinger SU(3) construction - I: Multiplicity problem and relation to induced representations

April 20, 2002

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S. Chaturvedi, N. Mukunda
Quantum Physics
High Energy Physics - Theory

The Schwinger oscillator operator representation of SU(3) is analysed with particular reference to the problem of multiplicity of irreducible representations. It is shown that with the use of an $Sp(2,R)$ unitary representation commuting with the SU(3) representation, the infinity of occurrences of each SU(3) irreducible representation can be handled in complete detail. A natural `generating representation' for SU(3), containing each irreducible representation exactly once, i...

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On the characterization of the SU(3)-subgroups of type C and D

October 14, 2013

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Walter Grimus, Patrick Otto Ludl
Mathematical Physics

We investigate the two classes of finite subgroups of SU(3) that are called type C and D in the book of Miller, Blichfeldt and Dickson. We present two theorems which fully determine the form of the generators in a suitable basis. After exploring further properties of these groups, we are able to construct a complete list of infinite series in which these groups are arranged. For type C there are infinitely many series whereas for type D there are only two. Explicit examples o...

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A complementary group technique for the resolution of the outer multiplicity problem of SU(n): (II) A recoupling approach to the solution of SU(3)\supset U(2) reduced Wigner coefficients

April 8, 1997

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Feng Department of Physics & Astronomy, Louisiana State University, Baton Rouge Pan, J. P. Department of Physics & Astronomy, Louisiana State University, Baton Rouge Draayer
Quantum Physics

A general procedure for the derivation of SU(3)\supset U(2) reduced Wigner coefficients for the coupling (\lambda_{1}\mu_{1})\times (\lambda_{2}\mu_{2})\downarrow (\lambda\mu)^{\eta}, where \eta is the outer multiplicity label needed in the decomposition, is proposed based on a recoupling approach according to the complementary group technique given in (I). It is proved that the non-multiplicity-free reduced Wigner coefficients of SU(n) are not unique with respect to canonica...

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SU(2) nonstandard bases: the case of mutually unbiased bases

January 30, 2007

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O. IPNL Albouy, M. R. IPNL Kibler
Mathematical Physics

This paper deals with bases in a finite-dimensional Hilbert space. Such a space can be realized as a subspace of the representation space of SU(2) corresponding to an irreducible representation of SU(2). The representation theory of SU(2) is reconsidered via the use of two truncated deformed oscillators. This leads to replace the familiar scheme {j^2, j_z} by a scheme {j^2, v(ra)}, where the two-parameter operator v(ra) is defined in the enveloping algebra of the Lie algebra ...

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On some properties of SU(3) Fusion Coefficients

May 19, 2016

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Robert Coquereaux, Jean-Bernard Zuber
Mathematical Physics
Quantum Algebra
Representation Theory

Three aspects of the SU(3) fusion coefficients are revisited: the generating polynomials of fusion coefficients are written explicitly; some curious identities generalizing the classical Freudenthal-de Vries formula are derived; and the properties of the fusion coefficients under conjugation of one of the factors, previously analysed in the classical case, are extended to the affine algebra of su(3) at finite level.

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Elementary results for the fundamental representation of SU(3)

July 17, 2015

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Thomas L. Curtright, Cosmas K. Zachos
Representation Theory

A general group element for the fundamental representation of SU(3) is expressed as a second order polynomial in the hermitian generating matrix H, with coefficients consisting of elementary trigonometric functions dependent on the sole invariant det(H), in addition to the group parameter.

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