Journal of Mathematical Physics · 1976 · 990 citations · 10 references
Natural SciencesMathematicsPhysicsComputational PhysicsDifferential EquationsTheoretical PhysicsDifference EquationsFourier AnalysisNonlinear OpticsPartial Differential EquationsScattering ProblemsWave DispersionDispersion Relation AnalysisInverse ScatteringNonlinear Difference EquationsNonlinear ScatteringScattering Inverse ProblemsSoliton TheorySolitonsWave Equations
Fourier analysis provides a conceptual framework for solving a class of nonlinear differential–difference equations. The authors employ inverse scattering techniques to solve the equations. They develop a systematic procedure based on the dispersion relation of the linearized equation, yielding new equations with explicit soliton solutions and conserved quantities.
The conceptual analogy between Fourier analysis and the exact solution to a class of nonlinear differential–difference equations is discussed in detail. We find that the dispersion relation of the associated linearized equation is prominent in developing a systematic procedure for isolating and solving the equation. As examples, a number of new equations are presented. The method of solution makes use of the techniques of inverse scattering. Soliton solutions and conserved quantities are worked out.
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Method for Solving the Korteweg-deVries Equation
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The Inverse Scattering Transform‐Fourier Analysis for Nonlinear Problems
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On the Toda Lattice. II: Inverse-Scattering Solution
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