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Contagion Dynamics for Manifold Learning

1 Pith paper cite this work. Polarity classification is still indexing.

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abstract

Contagion maps exploit activation times in threshold contagions to assign vectors in high-dimensional Euclidean space to the nodes of a network. A point cloud that is the image of a contagion map reflects both the structure underlying the network and the spreading behaviour of the contagion on it. Intuitively, such a point cloud exhibits features of the network's underlying structure if the contagion spreads along that structure, an observation which suggests contagion maps as a viable manifold-learning technique. We test contagion maps as a manifold-learning tool on a number of different real-world and synthetic data sets, and we compare their performance to that of Isomap, one of the most well-known manifold-learning algorithms. We find that, under certain conditions, contagion maps are able to reliably detect underlying manifold structure in noisy data, while Isomap fails due to noise-induced error. This consolidates contagion maps as a technique for manifold learning.

fields

math.NA 1

years

2024 1

verdicts

REJECT 1

representative citing papers

Bi-Band ECoGNet for ECoG Decoding on Classification Task

math.NA · 2024-11-30 · reject · novelty 4.0

Bi-Band ECoGNet uses dual-length learnable convolution kernels and a 2D electrode-grid encoder to replace a hand-crafted time-frequency transform, reporting +1.24% accuracy and 6x faster training over MST-ECoGNet on a private macaque ECoG dataset.

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  • Bi-Band ECoGNet for ECoG Decoding on Classification Task math.NA · 2024-11-30 · reject · none · ref 11 · internal anchor

    Bi-Band ECoGNet uses dual-length learnable convolution kernels and a 2D electrode-grid encoder to replace a hand-crafted time-frequency transform, reporting +1.24% accuracy and 6x faster training over MST-ECoGNet on a private macaque ECoG dataset.