LCIP: Loss-Controlled Inverse Projection of High-Dimensional Image Data

Fuente: arXiv
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Hauptverfasser: Wang, Yu, Dennig, Frederik L., Behrisch, Michael, Telea, Alexandru
Format: Preprint
Veröffentlicht: 2026
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author Wang, Yu
Dennig, Frederik L.
Behrisch, Michael
Telea, Alexandru
author_facet Wang, Yu
Dennig, Frederik L.
Behrisch, Michael
Telea, Alexandru
contents Projections (or dimensionality reduction) methods $P$ aim to map high-dimensional data to typically 2D scatterplots for visual exploration. Inverse projection methods $P^{-1}$ aim to map this 2D space to the data space to support tasks such as data augmentation, classifier analysis, and data imputation. Current $P^{-1}$ methods suffer from a fundamental limitation -- they can only generate a fixed surface-like structure in data space, which poorly covers the richness of this space. We address this by a new method that can `sweep' the data space under user control. Our method works generically for any $P$ technique and dataset, is controlled by two intuitive user-set parameters, and is simple to implement. We demonstrate it by an extensive application involving image manipulation for style transfer.
format Preprint
id arxiv_https___arxiv_org_abs_2602_11141
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle LCIP: Loss-Controlled Inverse Projection of High-Dimensional Image Data
Wang, Yu
Dennig, Frederik L.
Behrisch, Michael
Telea, Alexandru
Human-Computer Interaction
Machine Learning
Projections (or dimensionality reduction) methods $P$ aim to map high-dimensional data to typically 2D scatterplots for visual exploration. Inverse projection methods $P^{-1}$ aim to map this 2D space to the data space to support tasks such as data augmentation, classifier analysis, and data imputation. Current $P^{-1}$ methods suffer from a fundamental limitation -- they can only generate a fixed surface-like structure in data space, which poorly covers the richness of this space. We address this by a new method that can `sweep' the data space under user control. Our method works generically for any $P$ technique and dataset, is controlled by two intuitive user-set parameters, and is simple to implement. We demonstrate it by an extensive application involving image manipulation for style transfer.
title LCIP: Loss-Controlled Inverse Projection of High-Dimensional Image Data
topic Human-Computer Interaction
Machine Learning
url https://arxiv.org/abs/2602.11141