articleTop 10% cited
Nonlinear differential−difference equations
Journal of Mathematical Physics · 1975 · Vol. 16(3) · pp. 598–603
Mark J. Ablowitz✉(Clarkson College)J. F. Ladik(Clarkson College)
Abstract
A method is presented which enables one to obtain and solve certain classes of nonlinear differential−difference equations. The introduction of a new discrete eigenvalue problem allows the exact solution of the self−dual network equations to be found by inverse scattering. The eigenvalue problem has as its singular limit the continuous eigenvalue equations of Zakharov and Shabat. Some interesting differences arise both in the scattering analysis and in the time dependence from previous work.
Nonlinear Waves and SolitonsNonlinear Photonic SystemsAdvanced Mathematical Physics ProblemsEigenvalues and eigenvectorsMathematicsInverse scattering problemNonlinear systemInverse scattering transformMathematical analysisDifferential equationLimit (mathematics)Divide-and-conquer eigenvalue algorithmScattering
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Nonlinear differential–difference equations and Fourier analysis
Journal of Mathematical Physics · 1976 · 966 citations
References
Method for Solving the Korteweg-deVries Equation
Physical Review Letters · 1967 · 4,538 citations
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