Explore how environmental chemicals like acetaldehyde, acrolein, aristolochic acids, and vinyl chloride damage DNA and how cellular repair mechanisms protect us from cancer.
Discover how hexavalent chromium simultaneously damages DNA and suppresses cellular repair mechanisms, leading to increased cancer risk.
Explore H2AX, the specialized histone protein that serves as DNA's security system, detecting double-strand breaks and recruiting repair crews to prevent cancer.
Exploring how specialized DNA polymerases like Pol ν and Pol θ perform translesion synthesis to bypass DNA-protein and DNA-DNA cross-links, maintaining genome stability.
Discover how Bax protein, traditionally known for cell death, plays a crucial role in DNA repair after UV irradiation and its implications for cancer biology.
Exploring how long-term mesenchymal stem cell culture affects genetic stability through ATM-dependent DNA repair mechanisms
Discover how lung basal stem cells use error-prone DNA repair to survive environmental toxins - a fascinating trade-off between survival and genetic perfection.
Discover how the loss of TGFβ signaling creates a critical vulnerability in cancer cells by forcing them to use error-prone DNA repair, making them more sensitive to therapies.
Discover how the loss of Atm and Polβ DNA repair proteins in the cerebellum leads to neurological disorders and uncover the surprising link between DNA damage and gene regulation.
Discover how SIRT1, the master regulator protein, protects your DNA from damage and promotes cellular survival through sophisticated repair mechanisms.