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Lie Algebras and Applications [Kõva köide]

  • Formaat: Hardback, 196 pages, kõrgus x laius x paksus: 234x156x12 mm, kaal: 476 g, 26 black & white illustrations, 20 black & white tables, biography
  • Sari: Lecture Notes in Physics v. 708
  • Ilmumisaeg: 06-Sep-2006
  • Kirjastus: Springer-Verlag Berlin and Heidelberg GmbH & Co. K
  • ISBN-10: 3540362363
  • ISBN-13: 9783540362364
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  • Formaat: Hardback, 196 pages, kõrgus x laius x paksus: 234x156x12 mm, kaal: 476 g, 26 black & white illustrations, 20 black & white tables, biography
  • Sari: Lecture Notes in Physics v. 708
  • Ilmumisaeg: 06-Sep-2006
  • Kirjastus: Springer-Verlag Berlin and Heidelberg GmbH & Co. K
  • ISBN-10: 3540362363
  • ISBN-13: 9783540362364
Teised raamatud teemal:
This book, designed for advanced graduate students and post-graduate researchers, introduces Lie algebras and some of their applications to the spectroscopy of molecules, atoms, nuclei and hadrons. The book contains many examples that help to elucidate the abstract algebraic definitions. It provides a summary of many formulas of practical interest, such as the eigenvalues of Casimir operators and the dimensions of the representations of all classical Lie algebras.

This book, designed for advanced graduate students and post-graduate researchers, provides an introduction to Lie algebras and some of their applications to the spectroscopy of molecules, atoms, nuclei and hadrons. In the first part, a concise exposition is given of the basic concepts of Lie algebras, their representations and their invariants. The second part contains a description of how Lie algebras are used in practice in the treatment of bosonic and fermionic systems. Physical applications considered include rotations and vibrations of molecules (vibron model), collective modes in nuclei (interacting boson model), the atomic shell model, the nuclear shell model, and the quark model of hadrons. One of the key concepts in the application of Lie algebraic methods in physics, that of spectrum generating algebras and their associated dynamic symmetries, is also discussed. The book contains many examples that help to elucidate the abstract algebraic definitions. It provides a summary of many formulas of practical interest, such as the eigenvalues of Casimir operators and the dimensions of the representations of all classical Lie algebras.

Arvustused

From the reviews: "Iachello has written a pedagogical and straightforward presentation of Lie algebras and some applications to bosonic systems encountered in molecular, atomic, nuclear and particle physics. ... The book should be of interest to graduate students and researchers in physics, although mathematicians and chemists should find it useful as well. It is a great text to accompany a course on Lie algebras and their physical applications." (Marc de Montigny, Mathematical Reviews, Issue, 2007 i) "This book ... a practical introduction to important facts concerning Lie algebras that continuously appear in physical problems, and written by one of the leading experts in the field. ... the book will certainly be of great use for students or specialists that want to refresh their knowledge on Lie algebras applied to physics. ... an excellent reference for those interested in acquiring practical experience in the application and techniques of Lie algebras to physics, and leaving the embarrassing theoretical presentations aside." (Rutwig Campoamor-Stursberg, Zentralblatt MATH, Vol. 1156, 2009)

Basic Concepts
1(14)
Definitions
1(1)
Lie Algebras
1(2)
Change of Basis
3(1)
Complex Extensions
4(1)
Lie Subalgebras
4(1)
Abelian Algebras
5(1)
Direct Sum
5(1)
Ideals (Invariant Subalgebras)
6(1)
Semisimple Algebras
7(1)
Semidirect Sum
7(1)
Killing Form
8(1)
Compact and Non-Compact Algebras
9(1)
Derivations
9(1)
Nilpotent Algebras
10(1)
Invariant Casimir Operators
10(2)
Invariant Operators for Non-Semisimple Algebras
12(1)
Structure of Lie Algebras
12(3)
Algebras with One Element
12(1)
Algebras with Two Elements
12(1)
Algebras with Three Elements
13(2)
Semisimple Lie Algebras
15(12)
Cartan-Weyl Form of a (Complex) Semisimple Lie Algebra
15(1)
Graphical Representation of Root Vectors
15(2)
Explicit Construction of the Cartan-Weyl Form
17(2)
Dynkin Diagrams
19(2)
Classification of (Complex) Semisimple Lie Algebras
21(1)
Real Forms of Complex Semisimple Lie Algebras
21(1)
Isomorphisms of Complex Semisimple Lie Algebras
21(1)
Isomorphisms of Real Lie Algebras
22(1)
Enveloping Algebra
23(1)
Realizations of Lie Algebras
23(1)
Other Realizations of Lie Algebras
24(3)
Lie Groups
27(12)
Groups of Transformations
27(1)
Groups of Matrices
27(1)
Properties of Matrices
28(1)
Continuous Matrix Groups
29(3)
Examples of Groups of Transformations
32(5)
The Rotation Group in Two Dimensions, SO(2)
32(1)
The Lorentz Group in One Plus One Dimension, SO(1, 1)
33(1)
The Rotation Group in Three Dimensions
34(1)
The Special Unitary Group in Two Dimensions, SU(2)
34(1)
Relation Between SO(3) and SU(2)
35(2)
Lie Algebras and Lie Groups
37(2)
The Exponential Map
37(1)
Definition of Exp
37(1)
Matrix Exponentials
38(1)
Irreducible Bases (Representations)
39(24)
Definitions
39(1)
Abstract Characterization
39(1)
Irreducible Tensors
40(2)
Irreducible Tensors with Respect to GL(n)
40(1)
Irreducible Tensors with Respect to SU(n)
41(1)
Irreducible Tensors with Respect to O(n). Contractions
41(1)
Tensor Representations of Classical Compact Algebras
42(2)
Unitary Algebras u(n)
42(1)
Special Unitary Algebras su(n)
42(1)
Orthogonal Algebras so(n), n = Odd
43(1)
Orthogonal Algebras so(n), n = Even
43(1)
Symplectic Algebras sp(n), n = Even
43(1)
Spinor Representations
44(1)
Orthogonal Algebras so(n), n = Odd
44(1)
Orthogonal Algebras so(n), n = Even
44(1)
Fundamental Representations
45(1)
Unitary Algebras
45(1)
Special Unitary Algebras
45(1)
Orthogonal Algebras, n = Odd
45(1)
Orthogonal Algebras, n = Even
46(1)
Symplectic Algebras
46(1)
Chains of Algebras
46(1)
Canonical Chains
46(3)
Unitary Algebras
47(1)
Orthogonal Algebras
48(1)
Isomorphisms of Spinor Algebras
49(1)
Nomenclature for u(n)
50(1)
Dimensions of the Representations
50(3)
Dimensions of the Representations of u(n)
51(1)
Dimensions of the Representations of su(n)
52(1)
Dimensions of the Representations of An = su(n + 1)
52(1)
Dimensions of the Representations of Bn = so(2n + 1)
52(1)
Dimensions of the Representations of Cn = sp(2n)
53(1)
Dimensions of the Representations of Dn = so(2n)
53(1)
Action of the Elements of g on the Basis β
53(3)
Tensor Products
56(2)
Non-Canonical Chains
58(5)
Casimir Operators and Their Eigenvalues
63(12)
Definitions
63(1)
Independent Casimir Operators
63(2)
Casimir Operators of u(n)
63(1)
Casimir Operators of su(n)
64(1)
Casimir Operators of so(n), n = Odd
64(1)
Casimir Operators of so(n), n = Even
64(1)
Casimir Operators of sp(n), n = Even
65(1)
Casimir Operators of the Exceptional Algebras
65(1)
Complete Set of Commuting Operators
65(1)
The Unitary Algebra u(n)
66(1)
The Orthogonal Algebra so(n), n = Odd
66(1)
The Orthogonal Algebra so(n), n = Even
66(1)
Eigenvalues of Casimir Operators
66(8)
The Algebras u(n) and su(n)
67(2)
The Orthogonal Algebra so(2n + 1)
69(2)
The Symplectic Algebra sp(2n)
71(1)
The Orthogonal Algebra so(2n)
72(2)
Eigenvalues of Casimir Operators of Order One and Two
74(1)
Tensor Operators
75(16)
Definitions
75(1)
Coupling Coefficients
76(1)
Wigner-Eckart Theorem
77(2)
Nested Algebras. Racah's Factorization Lemma
79(2)
Adjoint Operators
81(2)
Recoupling Coefficients
83(1)
Symmetry Properties of Coupling Coefficients
84(1)
How to Compute Coupling Coefficients
85(1)
How to Compute Recoupling Coefficients
86(1)
Properties of Recoupling Coefficients
86(1)
Double Recoupling Coefficients
87(1)
Coupled Tensor Operators
88(1)
Reduction Formula of the First Kind
88(1)
Reduction Formula of the Second Kind
89(2)
Boson Realizations
91(40)
Boson Operators
91(1)
The Unitary Algebra u(1)
92(1)
The Algebras u(2) and su(2)
93(4)
Subalgebra Chains
93(4)
The Algebras u(n), n ≥ 3
97(2)
Racah Form
97(1)
Tensor Coupled Form of the Commutators
98(1)
Subalgebra Chains Containing so(3)
99(1)
The Algebras u(3) and su(3)
99(9)
Subalgebra Chains
100(3)
Lattice of Algebras
103(1)
Boson Calculus of u(3) so(3)
103(2)
Matrix Elements of Operators in u(3) so(3)
105(1)
Tensor Calculus of u(3) so(3)
106(1)
Other Boson Constructions of u(3)
107(1)
The Unitary Algebra u(4)
108(7)
Subalgebra Chains not Containing so(3)
109(1)
Subalgebra Chains Containing so(3)
109(6)
The Unitary Algebra u(6)
115(8)
Subalgebra Chains not Containing so(3)
115(1)
Subalgebra Chains Containing so(3)
115(8)
The Unitary Algebra u(7)
123(8)
Subalgebra Chain Containing g2
124(1)
The Triplet Chains
125(6)
Fermion Realizations
131(16)
Fermion Operators
131(1)
Lie Algebras Constructed with Fermion Operators
131(1)
Racah Form
132(1)
The Algebras u(2j + 1)
133(5)
Subalgebra Chain Containing spin(3)
134(1)
The Algebras u(2) and su(2). Spinors
134(2)
The Algebra u(4)
136(1)
The Algebra u(6)
137(1)
The Algebra u (Σi (2ji + 1))
138(1)
Internal Degrees of Freedom (Different Spaces)
139(3)
The Algebras u(4) and su(4)
139(2)
The Algebras u(6) and su(6)
141(1)
Internal Degrees of Freedom (Same Space)
142(5)
The Algebra u((2l + 1) (2s + 1)): L-S Coupling
142(3)
The Algebra u ((Σj (2j + 1)): j-j Coupling
145(1)
The Algebra u ((Σl (2l + 1)) (2s + 1)): Mixed L-S Configurations
146(1)
Differential Realizations
147(8)
Differential Operators
147(1)
Unitary Algebras u(n)
147(1)
Orthogonal Algebras so(n)
148(4)
Casimir Operators. Laplace-Beltrami Form
150(1)
Basis for the Representations
151(1)
Orthogonal Algebras so(n, m)
152(1)
Symplectic Algebras sp(2n)
153(2)
Matrix Realizations
155(8)
Matrices
155(1)
Unitary Algebras u(n)
155(3)
Orthogonal Algebras so(n)
158(1)
Symplectic Algebras sp(2n)
159(1)
Basis for the Representation
160(1)
Casimir Operators
161(2)
Spectrum Generating Algebras and Dynamic Symmetries
163(10)
Spectrum Generating Algebras (SGA)
163(1)
Dynamic Symmetries (DS)
163(1)
Bosonic Systems
164(6)
Dynamic Symmetries of u(4)
165(2)
Dynamic Symmetries of u(6)
167(3)
Fermionic Systems
170(3)
Dynamic Symmetry of u(4)
170(1)
Dynamic Symmetry of u(6)
171(2)
Degeneracy Algebras and Dynamical Algebras
173(16)
Degeneracy Algebras
173(1)
Degeneracy Algebras in v ≥ 2 Dimensions
173(8)
The Isotropic Harmonic Oscillator
174(3)
The Coulomb Problem
177(4)
Degeneracy Algebra in v = 1 Dimension
181(1)
Dynamical Algebras
182(1)
Dynamical Algebras in v ≥ 2 Dimensions
182(1)
Harmonic Oscillator
182(1)
Coulomb Problem
182(1)
Dynamical Algebra in v = 1 Dimension
183(6)
Poschl-Teller Potential
183(2)
Morse Potential
185(2)
Lattice of Algebras
187(2)
References 189(4)
Index 193