A Unified Framework for the Mechanics of Information in Convolutional Neural Network Image Space

📅 2026-08-26
📈 Citations: 0
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🤖 AI Summary
本文提出一个统一的数学框架,通过分析卷积神经网络中信息传播与物理空间和信息空间的联系,利用对称性和非对称性滤波器模拟能量-动量关系,揭示了图像处理中的尺度不变特征。
📝 Abstract
This paper introduces a unified mathematical framework for modeling information propagation through convolutional neural networks (CNNs), with the aim of connecting descriptions of physical space and information space. A correspondence is presented linking discrete filter symmetry and the relativistic energy--momentum relation under the widely used nonlinear rectified convolution operation. Specifically, symmetric filter components (e.g. the sum $Σ= [1,1]$) operate analogously to rest energy $mc^2$ in preserving the image centre of mass (e.g. isotropic diffusion), whereas antisymmetric components (e.g. the gradient $\nabla = [-1,1]$) operate analogously to the momentum term $pc$ in generally inducing a displacement (e.g. vibration or translation). For typical small discrete filters, this displacement is determined by the ratio of antisymmetric to total filter energy, analogously to how the displacement of a relativistic particle relates to a Lorentz transform with beta parameter $β= \frac{v}{c}=\frac{pc}{E}$ equal to the ratio of momentum $pc$ to total energy $E$. Repeated filtering leads to the Gaussian scale-space and emergent scale-invariant features. These constructions share a Laplacian-driven structure with the classical heat (diffusion) equation and, via standard mathematical correspondences, with the Schrödinger equation and aspects of the Friedmann equations, together with emergent Morse topological structure. Demonstrations in 3D images reveal blob-like, scale-invariant Morse critical points in images spanning a wide range of physical scales, including organic sugar molecules and inorganic silicon crystals, human and primate brains in magnetic resonance images (MRI), galaxies and the cosmic microwave background (CMB).
Problem

Research questions and friction points this paper is trying to address.

Convolutional Neural Networks
Information Propagation
Physical Space
Information Space
Symmetric Filter
Innovation

Methods, ideas, or system contributions that make the work stand out.

Unified Mathematical Framework
Information Propagation
Discrete Filter Symmetry
Relativistic Energy-Momentum Relation
Gaussian Scale-Space
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A
Aryan Shukla
Department of Systems Engineering, École de technologie supérieure, 1100 R. Notre Dame O., Montréal, QC H3C 1K3, Canada
Matthew Toews
Matthew Toews
École de Technologie Supérieure | www.etsmtl.ca
Medical image analysisimage alignmentcomputer visionmachine learning.