An unexpected turn of fortune: targeting TRAIL-Rs in KRAS-driven cancer

被引:0
|
作者
Silvia von Karstedt
Henning Walczak
机构
[1] University of Cologne,Department of Translational Genomics, Center of Integrated Oncology Cologne
[2] University of Cologne,Bonn, Medical Faculty
[3] University Hospital of Cologne,CECAD Cluster of Excellence
[4] University of Cologne,Center for Molecular Medicine Cologne, Medical Faculty
[5] University College,Institute for Biochemistry I, Medical Faculty
来源
Cell Death Discovery | / 6卷
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Twenty-one percent of all human cancers bear constitutively activating mutations in the proto-oncogene KRAS. This incidence is substantially higher in some of the most inherently therapy-resistant cancers including 30% of non-small cell lung cancers (NSCLC), 50% of colorectal cancers, and 95% of pancreatic ductal adenocarcinomas (PDAC). Importantly, survival of patients with KRAS-mutated PDAC and NSCLC has not significantly improved since the 1970s highlighting an urgent need to re-examine how oncogenic KRAS influences cell death signaling outputs. Interestingly, cancers expressing oncogenic KRAS manage to escape antitumor immunity via upregulation of programmed cell death 1 ligand 1 (PD-L1). Recently, the development of next-generation KRASG12C-selective inhibitors has shown therapeutic efficacy by triggering antitumor immunity. Yet, clinical trials testing immune checkpoint blockade in KRAS-mutated cancers have yielded disappointing results suggesting other, additional means endow these tumors with the capacity to escape immune recognition. Intriguingly, oncogenic KRAS reprograms regulated cell death pathways triggered by death receptors of the tumor necrosis factor (TNF) receptor superfamily. Perverting the course of their intended function, KRAS-mutated cancers use endogenous TNF-related apoptosis-inducing ligand (TRAIL) and its receptor(s) to promote tumor growth and metastases. Yet, endogenous TRAIL–TRAIL-receptor signaling can be therapeutically targeted and, excitingly, this may not only counteract oncogenic KRAS-driven cancer cell migration, invasion, and metastasis, but also the immunosuppressive reprogramming of the tumor microenvironment it causes. Here, we provide a concise summary of the current literature on oncogenic KRAS-mediated reprogramming of cell death signaling and antitumor immunity with the aim to open novel perspectives on combinatorial treatment strategies involving death receptor targeting.
引用
收藏
相关论文
共 50 条
  • [21] Selective targeting of KRAS-driven lung tumorigenesis via unresolved ER stress
    Shimomura, Iwao
    Watanabe, Naoaki
    Yamamoto, Tomofumi
    Kumazaki, Minami
    Tada, Yuji
    Tatsumi, Koichiro
    Ochiya, Takahiro
    Yamamoto, Yusuke
    JCI INSIGHT, 2021, 6 (07)
  • [22] Selective Targeting to KRAS-driven Lung Tumorigenesis via Unresolved ER stress
    Shimomura, Iwao
    Kumazaki, Minami
    Tada, Yuji
    Tatsumi, Koichiro
    Ochiya, Takahiro
    Yamamoto, Yusuke
    CANCER SCIENCE, 2021, 112 : 1028 - 1028
  • [23] ANTICANCER DRUGS A one-two punch for KRAS-driven cancer
    Cully, Megan
    NATURE REVIEWS DRUG DISCOVERY, 2015, 14 (09) : 600 - 600
  • [24] The mutational landscapes of genetic and chemical models of Kras-driven lung cancer
    Westcott, Peter M. K.
    Halliwill, Kyle D.
    To, Minh D.
    Rashid, Mamunur
    Rust, Alistair G.
    Keane, Thomas M.
    Delrosario, Reyno
    Jen, Kuang-Yu
    Gurley, Kay E.
    Kemp, Christopher J.
    Fredlund, Erik
    Quigley, David A.
    Adams, David J.
    Balmain, Allan
    NATURE, 2015, 517 (7535) : 489 - +
  • [25] A Functional Taxonomy of Tumor Suppression in Oncogenic KRAS-Driven Lung Cancer
    Cai, Hongchen
    Chew, Su Kit
    Li, Chuan
    Tsai, Min K.
    Andrejka, Laura
    Murray, Christopher W.
    Hughes, Nicholas W.
    Shuldiner, Emily G.
    Ashkin, Emily L.
    Tang, Rui
    Hung, King L.
    Chen, Leo C.
    Lee, Shi Ya C.
    Yousefi, Maryam
    Lin, Wen-Yang
    Kunder, Christian A.
    Cong, Le
    McFarland, Christopher D.
    Petrov, Dmitri A.
    Swanton, Charles
    Winslow, Monte M.
    CANCER DISCOVERY, 2021, 11 (07) : 1754 - 1773
  • [26] Excavation of FOSL1 in the Ruins of KRAS-Driven Lung Cancer
    Keshamouni, Venkateshwar G.
    AMERICAN JOURNAL OF RESPIRATORY CELL AND MOLECULAR BIOLOGY, 2018, 58 (05) : 551 - 552
  • [27] The mutational landscapes of genetic and chemical models of Kras-driven lung cancer
    Peter M. K. Westcott
    Kyle D. Halliwill
    Minh D. To
    Mamunur Rashid
    Alistair G. Rust
    Thomas M. Keane
    Reyno Delrosario
    Kuang-Yu Jen
    Kay E. Gurley
    Christopher J. Kemp
    Erik Fredlund
    David A. Quigley
    David J. Adams
    Allan Balmain
    Nature, 2015, 517 : 489 - 492
  • [28] Clearance of senescent macrophages ameliorates tumorigenesis in KRAS-driven lung cancer
    Haston, Scott
    Gonzalez-Gualda, Estela
    Morsli, Samir
    Ge, Jianfeng
    Reen, Virinder
    Calderwood, Alexander
    Moutsopoulos, Ilias
    Panousopoulos, Leonidas
    Deletic, Polina
    Carreno, Gabriela
    Guiho, Romain
    Manshaei, Saba
    Gonzalez-Meljem, Jose Mario
    Lim, Hui Yuan
    Simpson, Daniel J.
    Birch, Jodie
    Pallikonda, Husayn A.
    Chandra, Tamir
    Macias, David
    Doherty, Gary J.
    Rassl, Doris M.
    Rintoul, Robert C.
    Signore, Massimo
    Mohorianu, Irina
    Akbar, Arne N.
    Gil, Jesus
    Munoz-Espin, Daniel
    Martinez-Barbera, Juan Pedro
    CANCER CELL, 2023, 41 (07) : 1242 - +
  • [29] Loss of KDM5A supports KRAS-driven pancreatic cancer
    Chen, Jasper R.
    Han, Jincheng
    Taniguchi, Cullen M.
    DePinho, Ronald A.
    CANCER RESEARCH, 2023, 83 (07)
  • [30] Function for TRP1 in a model of Kras-driven lung cancer
    Ritzmann, F.
    Weichert, C.
    Kamyschnikow, A.
    Bals, R.
    Beisswenger, C.
    PNEUMOLOGIE, 2022, 76 : S13 - S13