Project description:We characterized Gemcitabine resistant pancreatic cancer tumors and show that the co-amplification of RRM1 and STIM1 confers novel and independent properties to gemcitabine resistant cells. The upregulation of RRM1 drives gemcitabine resistance, while the amplification of STIM1 leads to increased cytosolic calcium upon stress, eliciting ER stress resistance and NFAT activation.
Project description:We characterized Gemcitabine resistant pancreatic cancer tumors and show that the co-amplification of RRM1 and STIM1 confers novel and independent properties to gemcitabine resistant cells. The upregulation of RRM1 drives gemcitabine resistance, while the amplification of STIM1 leads to increased cytosolic calcium upon stress, eliciting ER stress resistance and NFAT activation.
Project description:We characterized Gemcitabine resistant pancreatic cancer tumors and show that the co-amplification of RRM1 and STIM1 confers novel and independent properties to gemcitabine resistant cells. The upregulation of RRM1 drives gemcitabine resistance, while the amplification of STIM1 leads to increased cytosolic calcium upon stress, eliciting ER stress resistance and NFAT activation.
Project description:We characterized Gemcitabine resistant pancreatic cancer tumors and show that the co-amplification of RRM1 and STIM1 confers novel and independent properties to gemcitabine resistant cells. The upregulation of RRM1 drives gemcitabine resistance, while the amplification of STIM1 leads to increased cytosolic calcium upon stress, eliciting ER stress resistance and NFAT activation.
Project description:We characterized Gemcitabine resistant pancreatic cancer tumors and show that the co-amplification of RRM1 and STIM1 confers novel and independent properties to gemcitabine resistant cells. The upregulation of RRM1 drives gemcitabine resistance, while the amplification of STIM1 leads to increased cytosolic calcium upon stress, eliciting ER stress resistance and NFAT activation.