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The Nonlinear de Broglie Wave Equation in the Prince Frame: A Complete Derivation from the Work Equation and the de Broglie Relation

Mustafa A Khan

Published Aug 17, 2026• 0 citations
Publisher
DOI
10.13140/rg.2.2.17922.03525

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The Nonlinear de Broglie Wave Equation in the Prince Frame: A Complete Derivation from the Work Equation and the de Broglie Relation

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We derive the nonlinear de Broglie wave equation inthe Prince Frame from the work equation, the deBroglie relation λp = h, and the geometry of theEuler Complex Plane (ECP). The separation of spatialand temporal components of the wavefunctionarises naturally from the ECP, where the spatial compactionfield ψ(λi) is multiplied by the Euler oscillatore±iωt. The Prince Frame provides the coupledspatial Laplacian, while the ECP provides the nonlinearself-interaction term 8π^2{v(g)}^2|ψ|^2 ψ. The resultis a fully derived geometric wave equation with noempirical inputs.

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We derive the generalized nonlinear wave equation for a matter wave on theEuler Complex Plane (ECP), using only the de Broglie relation λp = h and theECP geometry. The wavefunction is taken as Ψ(r, θ, t) = ψ(r, θ)e±iωt, where ψ(r, θ)is the spatial compaction field and e±iωt is the Euler oscillator. The derivation usesthe Prince Razor δp = hδψ, the work-energy theorem dE = v dp, and the localphase harmony condition dτ = dt. The result is a fully general nonlinear waveequation that includes radial and angular derivatives, cross terms, and accelerationterms. It reduces to the standard Prince wave equation in the static radial limit.The equation is defined entirely on the ECP and contains no empirical inputs. It issuitable for application to fluid dynamics, including the Navier-Stokes problem, asthe ECP geometry naturally prevents singularities.

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We derive the nonlinear de Broglie wave equation inthe Prince Frame from the work equation, the deBroglie relation λp = h, and the geometry of theEuler Complex Plane (ECP). The separation of spatialand temporal components of the wavefunctionarises naturally from the ECP, where the spatial compactionfield ψ(λi) is multiplied by the Euler oscillatore±iωt. The Prince Frame provides the coupledspatial Laplacian, while the ECP provides the nonlinearself-interaction term 8π^2{v(g)}^2|ψ|^2 ψ. The resultis a fully derived geometric wave equation with noempirical inputs.
We derive the generalized nonlinear wave equation for a matter wave on theEuler Complex Plane (ECP), using only the de Broglie relation λp = h and theECP geometry. The wavefunction is taken as Ψ(r, θ, t) = ψ(r, θ)e±iωt, where ψ(r, θ)is the spatial compaction field and e±iωt is the Euler oscillator. The derivation usesthe Prince Razor δp = hδψ, the work-energy theorem dE = v dp, and the localphase harmony condition dτ = dt. The result is a fully general nonlinear waveequation that includes radial and angular derivatives, cross terms, and accelerationterms. It reduces to the standard Prince wave equation in the static radial limit.The equation is defined entirely on the ECP and contains no empirical inputs. It issuitable for application to fluid dynamics, including the Navier-Stokes problem, asthe ECP geometry naturally prevents singularities.