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IL‐36<i>γ</i> and IL‐36Ra Reciprocally Regulate NSCLC Progression by Modulating GSH Homeostasis and Oxidative Stress‐Induced Cell Death

Peng Wang, Wei Yang, Hao Guo, Hong‐Peng Dong, Yu‐Yao Guo, Hu Gan, Zou Wang, Yongbo Cheng, Yu Deng, Shi-Zhe Xie, Xing‐Lou Yang, Dandan Lin, Bo Zhong

2021Advanced Science24 citationsDOIOpen Access PDF

Abstract

Abstract The balance between antioxidants and reactive oxygen species (ROS) critically regulates tumor initiation and progression. However, whether and how the tumor‐favoring redox status is controlled by cytokine networks remain poorly defined. Here, it is shown that IL‐36 γ and IL‐36Ra reciprocally regulate the progression of non‐small cell lung cancer (NSCLC) by modulating glutathione metabolism and ROS resolution. Knockout, inhibition, or neutralization of IL‐36 γ significantly inhibits NSCLC progression and prolongs survival of the Kras LSL‐G12D/+ Tp53 fl/fl and Kras LSL‐G12D/+ Lkb1 fl/fl mice after tumor induction, whereas knockout of IL‐36Ra exacerbates tumorigenesis in these NSCLC mouse models and accelerates death of mice. Mechanistically, IL‐36 γ directly upregulates an array of genes involved in glutathione homeostasis to reduce ROS and prevent oxidative stress‐induced cell death, which is mitigated by IL‐36Ra or IL‐36 γ neutralizing antibody. Consistently, IL‐36 γ staining is positively and negatively correlated with glutathione biosynthesis and ROS in human NSCLC tumor biopsies, respectively. These findings highlight essential roles of cytokine networks in redox for tumorigenesis and provide potential therapeutic strategy for NSCLC.

Topics & Concepts

Oxidative stressHomeostasisReactive oxygen speciesTumor progressionCytokineGlutathioneInflammationCancer researchChemistryCancerImmunologyCell biologyMedicineInternal medicineBiologyBiochemistryEnzymeCancer, Hypoxia, and MetabolismImmune cells in cancerGenomics, phytochemicals, and oxidative stress
IL‐36<i>γ</i> and IL‐36Ra Reciprocally Regulate NSCLC Progression by Modulating GSH Homeostasis and Oxidative Stress‐Induced Cell Death | Litcius