arrow
Return

Gaining biological insights through supervised data visualization

delete2026-06-30
delete0
PRE
AI
J
Jake S. Rhodes
A
Adrien Aumon
S
Sacha Morin
M
Marc Girard
C
Catherine Larochelle
E
Elsa Brunet-Ratnasingham
A
Amélie Pagliuzza
L
Lorie Marchitto
W
Wei Zhang
A
Adele Cutler
F
François Grand’Maison
A
Anhong Zhou
A
Andrés Finzi
N
Nicolas Chomont
D
Daniel E. Kaufmann
S
Stéphanie Zandee
A
Alexandre Prat
G
Guy Wolf *
K
Kevin R. Moon *
DOI:10.1038/s43588-026-00999-7delete
deleteOriginal
deleteOriginal request for help
deleteShare
deleteSave
Abstract

Abstract

En 中文
Dimensionality-reduction-based visualization is essential for interpreting complex biological data. Yet, unsupervised methods such as t-distributed stochastic neighbor embedding, Uniform Manifold Approximation and Projection, and Isomap reflect only the dominant data structure, which may not align with the goals of downstream analysis or expert-provided annotations. Existing supervised variants only partially address this mismatch and introduce new limitations. Here we present RF-PHATE, a supervised visualization approach that incorporates expert knowledge to reveal label-relevant structure while suppressing extraneous variation. RF-PHATE uses random forests to learn relationships between features and labels and translates this information into low-dimensional embeddings. RF-PHATE handles large datasets and is suitable for both classification and regression tasks. We demonstrate its use across four case studies, including longitudinal multiple sclerosis data, Raman spectral measurements of antioxidant effects, outcomes of patients with COVID-19, and RNA sequencing data with simulated dropout. These applications highlight RF-PHATE’s ability to enhance interpretability, manage noise and expose meaningful biological structure, suggesting broad potential for improving data exploration and discovery. This study introduces RF-PHATE, a supervised visualization method that preserves data structure while revealing biological patterns, enabling insights into disease progression in multiple sclerosis, COVID-19 and other biological contexts.

Journal

Nature Computational Science cover
Nature Computational Science
IF:
18.3
Papers:
3.1K
Citations:
4.0K

Organization

C
Charles Lemoyne Hospital
Scholars:
2
Papers: 2
Citations: 0
C
centre hospitalier de l’universite de montréal
Scholars:
50
Papers: 17
Citations: 0
B
brigham young university
Scholars:
1.5K
Papers: 580
Citations: 0
C
Centre Hospitalier de l'Université de Montréal
Scholars:
64
Papers: 27
Citations: 0
U
University of California, San Francisco
Scholars:
498
Papers: 170
Citations: 0
U
université de montreal
Scholars:
1.6K
Papers: 641
Citations: 0
M
mila – quebec ai institute
Scholars:
2
Papers: 2
Citations: 0
U
utah state university
Scholars:
737
Papers: 402
Citations: 0
researcher View more organizations