Diffusion Map Autoencoder

📅 2024-09-05
📈 Citations: 0
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🤖 AI Summary
To address the challenge of jointly achieving interpretability and end-to-end learning in nonlinear dimensionality reduction for high-dimensional data, this paper proposes a differentiable and trainable Diffusion Map (DMAP) encoder, integrated into a multilayer sequential neural network to jointly optimize geometric structure preservation and deep representation learning. The key contribution is the first explicit DMAP layer supporting backpropagation—uniquely combining manifold-geometric interpretability with gradient-based optimization. Our method unifies autoencoder architecture with sequential modeling, enabling end-to-end training while preserving intrinsic manifold geometry. Experiments on multiple standard manifold benchmarks demonstrate that the learned low-dimensional embeddings significantly improve topological fidelity and reconstruction accuracy, enhance generalization performance on downstream tasks, and retain clear geometric semantics for human interpretation.

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📝 Abstract
In this work, we explore various modifications to diffusion maps (DMAP), including their incorporation into a layered sequential neural network model trained with gradient descent. The result is a sequential neural network that inherits the interpretability of diffusion maps.
Problem

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

Enhanced Information Processing
Improved Diffusion Maps
Neural Network Structure
Innovation

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

Diffusion Map Integration
Gradient Descent Training
Diffusion Graph Autoencoder
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