Study finds chemotherapy antidote could improve recovery after chemotherapy-induced kidney toxicity
Peer-Reviewed Publication
Updates every hour. Last Updated: 28-Jun-2025 15:10 ET (28-Jun-2025 19:10 GMT/UTC)
An FDA-approved medication called glucarpidase could serve as an antidote to kidney toxicity in patients receiving the chemotherapy drug methotrexate (MTX), according to a new study by investigators at Mass General Brigham. Using data from 28 major U.S. cancer centers*, the researchers examined the association between glucarpidase treatment – which rapidly clears MTX from the blood – and outcomes of patients with MTX-induced acute kidney injury (AKI). They found that patients who received glucarpidase had significantly higher chances of kidney recovery compared to those who did not get this treatment. Results are published in Blood.
The first ever investigation into the impact of the Covid pandemic on children and young people with brain tumours has revealed how investigations or treatments were frequently postponed as key people or resources were not available.The “heartbreaking” impact is revealed in a study in the British Medical Journal Open led by Lancaster University and Cambridge University Hospitals NHS Foundation Trust. One caregiver said: ”When [daughter] came out of theatre, I wasn't allowed to go and see her, because I wasn't the designated parent. And it is heartbreaking, absolutely heartbreaking, to not be able to go and see that your child is okay.”
Aerobic glycolysis is critical for tumor growth and metastasis. Previously, we have found that the overexpression of the inhibitor of growth 5 (ING5) inhibits lung cancer aggressiveness and epithelial–mesenchymal transition (EMT). However, whether ING5 regulates lung cancer metabolism reprogramming remains unknown. Here, by quantitative proteomics, we showed that ING5 differentially regulates protein phosphorylation and identified a new site (Y163) of the key glycolytic enzyme PDK1 whose phosphorylation was upregulated 13.847-fold. By clinical study, decreased p-PDK1Y163 was observed in lung cancer tissues and correlated with poor survival. p-PDK1Y163 represents the negative regulatory mechanism of PDK1 by causing PDHA1 dephosphorylation and activation, leading to switching from glycolysis to oxidative phosphorylation, with increasing oxygen consumption and decreasing lactate production. These effects could be impaired by PDK1Y163F mutation, which also impaired the inhibitory effects of ING5 on cancer cell EMT and invasiveness. Mouse xenograft models confirmed the indispensable role of p-PDK1Y163 in ING5-inhibited tumor growth and metastasis. By siRNA screening, ING5-upregulated TIE1 was identified as the upstream tyrosine protein kinase targeting PDK1Y163. TIE1 knockdown induced the dephosphorylation of PDK1Y163 and increased the migration and invasion of lung cancer cells. Collectively, ING5 overexpression—upregulated TIE1 phosphorylates PDK1Y163, which is critical for the inhibition of aerobic glycolysis and invasiveness of lung cancer cells.