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A primordial TFEB-TGFβ signaling axis systemically regulates diapause and stem cell longevity
Tim J. Nonninger, Jennifer Mak, Birgit Gerisch, Valentina Ramponi, Kazuto Kawamura, Klara Schilling, Christian Latza, Jonathan Kölschbach, Roberto Ripa, Manuel Serrano, Adam Antebi
bioRxiv (Cold Spring Harbor Laboratory) · 2023 · ▲ 1 citations
Genomic instability
Cellular senescence
Stem-cell exhaustion
Altered intercellular communication
Intermittent fasting
C. elegans
Human
Mouse
Abstract
ABSTRACT Fasting/refeeding enhances animal health and lifespan across taxa. C. elegans can endure months of fasting in adult reproductive diapause (ARD) and upon refeeding, regenerate and reproduce. hlh-30/TFEB is an ARD master regulator whose mutants live mere days in ARD and don’t recover with refeeding. Here we find that downregulation of TGFβ signaling bypasses hlh-30 collapse, and restores recovery, germline stem cell proliferation and reproductive competence. Upon fasting, HLH-30/TFEB(+) downregulates TGFβ in sensory neurons, to inhibit Notch and promote reproductive quiescence in the germline. Upon refeeding, these pathways are upregulated to activate stem cells and promote reproduction. hlh-30 loss induces a senescent-like DNA damage, immune and growth metabolic signature reversed by inhibiting TGFβ signaling. TFEB’s role is conserved in mammalian diapause models, including mouse embryonic and human cancer diapause. Thus, TFEB-TGFβ axis relays systemic signals matching nutrient supply with growth signaling, to regulate stem cell longevity, senescence(definition) and regeneration across species.
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- 10.1101/2023.10.06.561181
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- 2026-06-23 MST
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APA
Nonninger, T.J., Mak, J., Gerisch, B., Ramponi, V., Kawamura, K., Schilling, K., Latza, C., Kölschbach, J., Ripa, R., Serrano, M., & Antebi, A. (2023). A primordial TFEB-TGFβ signaling axis systemically regulates diapause and stem cell longevity. <em>bioRxiv (Cold Spring Harbor Laboratory)</em>. https://doi.org/10.1101/2023.10.06.561181
Vancouver
Nonninger TJ, Mak J, Gerisch B, Ramponi V, Kawamura K, Schilling K, et al. A primordial TFEB-TGFβ signaling axis systemically regulates diapause and stem cell longevity. bioRxiv (Cold Spring Harbor Laboratory). 2023. doi:10.1101/2023.10.06.561181.
BibTeX
@unpublished{tim2023Aprimo,
title = {A primordial TFEB-TGFβ signaling axis systemically regulates diapause and stem cell longevity},
author = {Tim J. Nonninger and Jennifer Mak and Birgit Gerisch and Valentina Ramponi and Kazuto Kawamura and Klara Schilling and Christian Latza and Jonathan Kölschbach and Roberto Ripa and Manuel Serrano and Adam Antebi},
journal = {bioRxiv (Cold Spring Harbor Laboratory)},
year = {2023},
doi = {10.1101/2023.10.06.561181},
}
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