📖
Coordination between phospholipid pools and DNA damage sensing
Sara Ovejero, Caroline Soulet, Sylvain Kumanski, María Moriel-Carretero

Coordination between phospholipid pools and DNA damage sensing

Science & Mathematics Published 2022 Verification Pending

Overview & Synopsis

Background: Both phospholipid synthesis and the detection of DNA damage are coupled to cell cycle progression, yet whether these two aspects crosstalk to each other remains unassessed. We postulate here that shortage of phospholipids, which negatively affects proliferation, may reduce the need for checkpoint activation in response to DNA damage. Results: To test this hypothesis, we explore here the DNA Damage Response activation in response to seven different genotoxins, in three distinct cell types, and manipulate phospholipid synthesis both pharmacologically and genetically. This allows us to point at the DNA damage response kinase ATR as responsible for the coordination between phospholipid levels and DNA damage sensing. Conclusions and Significance: ATR could combine its ability to sense DNA damage and phospholipid profiles in order to finetune the response to DNA lesions depending on metabolic cues. Further, our analysis reveals the functional significance of this crosstalk to keep genome homeostasis.

Indexed from repository: HAL Open Science (hal.science)
Loading document from verified source...
Keyboard Shortcuts: ← / → for pages • + / - for zoom • 0 to fit width Powered by Mozilla PDF.js v3.11

Document Information

Document Title Coordination between phospholipid pools and DNA damage sensing
Author / Organization Sara Ovejero, Caroline Soulet, Sylvain Kumanski, María Moriel-Carretero
Subject & Discipline Multidisciplinary Academic Open Research
Categories Science & Mathematics
Publication Year 2022
License / Rights Open Access / Creative Commons
Resource Verification Listed PDF (Verification Pending)
Original Host Website HAL Open Science (hal.science)
File Format application/pdf (Portable Document Format)
Language EN
Catalog ID DOC-163699
Original Source Link Visit Source Page on hal.science »