
We extend the asymptotic factorisation theorem for the canonical field--theoretic symplectic form from a single kink--antikink pair to an arbitrary number $N$ of well--separated kinks in a general relativistic scalar field theory with degenerate vacua. The configuration is modelled by a superposition of $N$ single--kink Cauchy data with independent centres and velocities. We prove that the pullback of the canonical symplectic form to the $2N$--dimensional parameter space factorises into the sum of $N$ free--kink symplectic forms plus off--diagonal corrections that are exponentially small in the minimum separation between any two solitons. The error is bounded by $\mathcal{O}\!\bigl(e^{-\mu D_{\min}/2}\bigr)$, where $\mu$ is the decay rate of the static kink and $D_{\min}$ the minimal separation. The result is universal and does not rely on integrability or closed--form solutions. The leading--order symplectic structure is a product of free--particle phase spaces, providing a rigorous geometric foundation for the quantum mechanics of asymptotically free multi--kink states in non--integrable models.
kink, symplectic form, separated kinks, quantization, QDT
kink, symplectic form, separated kinks, quantization, QDT
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