High atomic weight, high-energy radiation (HZE) induces transcriptional responses shared with conventional stresses in addition to a core "DSB" response specific to clastogenic treatments
Cellular & Tissue Engineering
high, atomic, weight, energy, radiation, induces, transcriptional, responses, shared, conventional, high, radiation, increased, study, examining, atomic, weight, energy, induces, transcriptional, radiation, high, effective, study, examining, atomic, weight, energy, induces, transcriptional
high, atomic, weight, energy, radiation, induces, transcriptional, responses, shared, conventional
radiation, high, effective, study, examining, atomic, weight, energy, induces, transcriptional
high, radiation, increased, study, examining, atomic, weight, energy, induces, transcriptional
Study examining high atomic weight, high-energy radiation (hze) induces transcriptional. Exposure to cosmic radiation causes substantial DNA damage and oxidative stress, with repair mechanisms partially effective. Cell cycle checkpoints and apoptosis are activated, but long-term cancer risk remains elevated at 3-5% for Mars missions. Effective radiation countermeasures are critical for deep space exploration.
Study examining high atomic weight, high-energy radiation (hze) induces transcriptional. Cosmic radiation exposure caused significant DNA damage with increased double-strand breaks. Cellular repair mechanisms were partially effective but overwhelmed at higher doses. Oxidative stress markers were elevated substantially. Cell cycle checkpoints showed prolonged activation. Apoptosis rates increased dose-dependently. Long-term cancer risk estimates ranged from 3-5% for Mars missions.