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Stephane Marchand-Maillet

Possible papers associated with this exact author name in Arrow. This page groups case-insensitive exact name matches and is not a full identity disambiguation profile.

2 papers
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2

EAAI Journal 2019 Journal Article

Inductive t-SNE via deep learning to visualize multi-label images

  • Edgar Roman-Rangel
  • Stephane Marchand-Maillet

This work presents a methodology for dimensionality reduction of images with multiple occurrences of multiple objects, such that they can be placed on a 2-dimensional plane under the constrain that nearby images are similar in terms of visual content and semantics. The first part of this methodology adds inductive capabilities to the well known t-SNE method used for visualization, thus making possible its generalization for unseen data, as opposed to previous extensions with only transductive capabilities. This is achieved by pairing the base t-SNE with a Deep Neural Network. The second part exploits semantic information to perform supervised dimensionality reduction, which results in better separability of the low-dimensional space, this is, it separates better images with no relevance, while retaining the proximity of those images with partial relevance. Since dealing with images having multiple occurrences of multiple objects requires the consideration of partial relevance, additionally we present a definition of partial relevance for the evaluation of classification and retrieval scenarios on images, or other documents, that share contents, at least partially.

NeurIPS Conference 2015 Conference Paper

Space-Time Local Embeddings

  • Ke Sun
  • Jun Wang
  • Alexandros Kalousis
  • Stephane Marchand-Maillet

Space-time is a profound concept in physics. This concept was shown to be useful for dimensionality reduction. We present basic definitions with interesting counter-intuitions. We give theoretical propositions to show that space-time is a more powerful representation than Euclidean space. We apply this concept to manifold learning for preserving local information. Empirical results on non-metric datasets show that more information can be preserved in space-time.

v2026.09.13