132 Laplace Transform = Projection of MOC under "Half-Line Manifold + Complex Wave Number + Single Origin"

Bosley Zhang
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2026/04/26
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2 mins read


Laplace Transform = Projection of MOC under "Half-Line Manifold + Complex Wave Number + Single Origin"

1. Intuitive Correspondence

- Fourier Transform: Euclidean manifold \mathbb{R}, real wave number k → oscillatory kernel e^{-ikx}.
- Laplace Transform: domain [0,\infty) (half-line, can be regarded as a manifold with absorbing boundary), wave number is complex s = \sigma + i\omega → exponential decay/growth kernel e^{-st}.
- MOC: Multi-Origin + Curvature → if curvature is purely imaginary (or dissipation is introduced), and the manifold is restricted to a one-way ray, complex wave numbers emerge naturally.

2. General Projection Form of MOC (unchanged)

\hat{f}(\boldsymbol{\xi}) = \int_{\mathcal{M}} f(\mathbf{x}) \, e^{-i\,k_\alpha(\mathbf{x})\cdot(\mathbf{x}-\mathbf{a}_\alpha)} \, d\mathbf{x}


3. Limiting Conditions for Laplace Transform

1. Manifold reduces to half-line: \mathcal{M} \to [0,\infty), with origin at 0.
2. Multi-origins collapse to single origin: \mathbf{a}_\alpha \to 0.
3. Wave number becomes complex and linked to curvature: Let curvature explicitly contain a dissipation term, leading to k_\alpha(\mathbf{x}) \to -i s, where s = \sigma + i\omega is complex frequency and \sigma > 0 ensures convergence.- Heuristic justification: Within the MOC framework, curvature can take imaginary values, corresponding to exponential decay rather than oscillation in space.
4. Spatial dimension 1: \mathbf{x} \to t.

Substitute into the MOC kernel:

e^{-i\,k_\alpha(\mathbf{x})\cdot(\mathbf{x}-\mathbf{a}_\alpha)} \;\longrightarrow\; e^{-i\,(-i s)\cdot(t-0)} = e^{-s t}


4. Standard One-Sided Laplace Transform

\boxed{
F(s) = \int_{0}^{\infty} f(t) \, e^{-st} \, dt
}


Two-sided Laplace transform corresponds to manifold \mathbb{R} and applies similarly.

 

Summary: Unified MOC Perspective of Four Transforms

Transform Manifold Wave Number Type Origin Extra Window Kernel Form
Fourier   Real constant Single origin   None  
Laplace   or   Complex constant Single origin   None  
Wavelet   Scale-modulated real wave number Shifted origin   Mother wavelet window  
Gabor   Real constant Shifted origin   Gaussian window  

Judgment

- As a heuristic unified framework: Valid; Laplace transform can be naturally embedded into MOC.
- Rigor: Still requires supplementing the definition of "how complex wave numbers arise from curvature" and the geometric boundary conditions of the half-line manifold.


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