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On non-multiaffine consistent-around-the-cube lattice equations
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We show that integrable involutive maps, due to the fact they admit three integrals in separated form, can give rise to equations, which are consistent around the cube and which are not in the multiaffine form assumed in papers [1, 2]. Lattice models, which are discussed here, are related to the lattice potential KdV equation by nonlocal transformations (discrete quadratures).
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Cited by 4 Pith papers
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Integrable multi-component difference systems of equations
Two new families of integrable multi-component difference systems in bond variables are constructed, with Lax pairs, Yang-Baxter maps, and reductions to the ABS quad-equations.
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Idempotent compatible maps and discrete integrable systems on the triangular lattice
Three new families of idempotent, non-invertible compatible maps yield Yang-Baxter companion maps and integrable difference equations on the triangular lattice.
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Non-Abelian elastic collisions, associated difference systems of equations and discrete analytic functions
A single non-abelian system of equations unifies classical and relativistic elastic collisions, and its lattice reinterpretation subsumes both the linear and nonlinear theories of discrete analytic functions.
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Systems of difference equations on a vector valued function that admit 3D space of scalar potentials
For known involutive maps on CP1 times CP1, the paper exhaustively lists the 3D space of separated-variable invariants and uses them to derive vertex potentials, recovering the ABS list of integrable difference equations.
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