Symplectic and orthogonal Lie algebra technology for bosonic and fermionic oscillator models of integrable systems (Q2716687)
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scientific article; zbMATH DE number 1599322
| Language | Label | Description | Also known as |
|---|---|---|---|
| English | Symplectic and orthogonal Lie algebra technology for bosonic and fermionic oscillator models of integrable systems |
scientific article; zbMATH DE number 1599322 |
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19 August 2001
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symplectic Lie algebra
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orthogonal Lie algebra
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integrable system
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bosonic oscillator model
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fermionic oscillator model
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metaplectic representation
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spin representation
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Fock space
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Yang-Baxter algebras
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quantum integrable models
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algebraic Bethe ansatz
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Symplectic and orthogonal Lie algebra technology for bosonic and fermionic oscillator models of integrable systems (English)
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To provide tools, especially \(L\)-operators, for use in studies of rational Yang-Baxter algebras and quantum integrable models when the Lie algebras \(so(N)\) or \(sp(2n)\) are the invariance algebras of their \(R\)-matrices, this paper develops a presentation of these Lie algebras convenient for the context, and derives many properties of the matrices of their defining representations and of the ad-invariant tensors that enter their multiplication laws. Metaplectic-type representations of \(sp(2n)\) and \(so(N)\) on bosonic and fermionic Fock spaces respectively are constructed. Concise general expressions for their \(L\)-operators are obtained, and used to derive simple formulas for the \(T\)-operators of the rational RTT algebra of the associated integrable systems, thereby enabling their efficient treatment by means of the algebraic Bethe ansatz.
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