Lifelong behavioral screen reveals an architecture of vertebrate aging

Mapping behavior of individual vertebrate animals across lifespan could provide an unprecedented view into the lifelong process of aging. We created a platform for high-resolution continuous behavioral tracking of the African killifish across natural lifespan from adolescence to death. We found that animals follow distinct individual aging trajectories. The behaviors of long-lived animals differed markedly from those of short-lived animals, even relatively early in life, and were linked to organ-specific transcriptomic shifts. Machine-learning models accurately inferred age and even forecasted an individual's future lifespan, given only behavior at a young age. Finally, we found that animals progressed through adulthood in a sequence of stable and stereotyped behavioral stages with abrupt transitions, revealing precise structure for an architecture of aging.

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Publication Details

Journal
Science
Published
2026-03-12
DOI
https://doi.org/10.1126/science.aea9795
Citations
1
Primary Topic
Fish biology, ecology, and behavior
Type
article
Field-Weighted Citation Impact
42.99
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article

Lifelong behavioral screen reveals an architecture of vertebrate aging

Ravi D. Nath, Scott W. Linderman, Libby Zhang, Claire N. Bedbrook et al.
1 citations
Science
Fish biology, ecology, and behavior
42.99
article

Lifelong behavioral screen reveals an architecture of vertebrate aging

Ravi D. Nath, Scott W. Linderman, Libby Zhang, Claire N. Bedbrook, Anne Brunet, Karl Deisseroth
article en
1 citations

Abstract

Mapping behavior of individual vertebrate animals across lifespan could provide an unprecedented view into the lifelong process of aging. We created a platform for high-resolution continuous behavioral tracking of the African killifish across natural lifespan from adolescence to death. We found that animals follow distinct individual aging trajectories. The behaviors of long-lived animals differed markedly from those of short-lived animals, even relatively early in life, and were linked to organ-specific transcriptomic shifts. Machine-learning models accurately inferred age and even forecasted an individual's future lifespan, given only behavior at a young age. Finally, we found that animals progressed through adulthood in a sequence of stable and stereotyped behavioral stages with abrupt transitions, revealing precise structure for an architecture of aging.

ScienceVol. 391(6790)
Howard Hughes Medical Institute (US), Neurosciences Institute (US), Stanford University (US)
Openalex Percentile: Top 0%
Fish biology, ecology, and behavior
42.99
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