Literature DB >> 26964870

Mouse models for ROS1-fusion-positive lung cancers and their application to the analysis of multikinase inhibitor efficiency.

Maki Inoue1, Hideaki Toki2, Junko Matsui2, Yuki Togashi3, Akito Dobashi4, Ryutaro Fukumura5, Yoichi Gondo5, Osamu Minowa2, Norio Tanaka6, Seiichi Mori6, Kengo Takeuchi3, Tetsuo Noda7.   

Abstract

ROS1-fusion genes, resulting from chromosomal rearrangement, have been reported in 1-2% of human non-small cell lung cancer cases. More than 10 distinct ROS1-fusion genes, including break-point variants, have been identified to date. In this study, to investigate the in vivo oncogenic activities of one of the most frequently detected fusions, CD74-ROS1, as well as another SDC4-ROS1 fusion that has also been reported in several studies, we generated transgenic (TG) mouse strains that express either of the two ROS1-fusion genes specifically in lung alveolar type II cells. Mice in all TG lines developed tumorigenic nodules in the lung, and a few strains of both TG mouse lines demonstrated early-onset nodule development (multiple tumor lesions present in the lung at 2-4 weeks after birth); therefore, these two strains were selected for further investigation. Tumors developed progressively in the untreated TG mice of both lines, whereas those receiving oral administration of an ALK/MET/ROS1 inhibitor, crizotinib, and an ALK/ROS1 inhibitor, ASP3026, showed marked reduction in the tumor burden. Collectively, these data suggest that each of these two ROS1-fusion genes acts as a driver for the pathogenesis of lung adenocarcinoma in vivo The TG mice developed in this study are expected to serve as valuable tools for exploring novel therapeutic agents against ROS1-fusion-positive lung cancer.
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Year:  2016        PMID: 26964870     DOI: 10.1093/carcin/bgw028

Source DB:  PubMed          Journal:  Carcinogenesis        ISSN: 0143-3334            Impact factor:   4.944


  5 in total

1.  The potential and limitation of targeted chromosomal breakpoint sequencing for the ROS1 fusion gene identification in lung cancer.

Authors:  Ming-Szu Hung; Yu-Ching Lin; Fen-Fen Chen; Yuan-Yuan Jiang; Yu-Hung Fang; Ming-Shian Lu; Chin-Kuo Lin; Tsung-Ming Yang; Jrhau Lung; Chih-Cheng Chen; Kuan-Der Lee; Ying-Huang Tsai
Journal:  Am J Cancer Res       Date:  2022-05-15       Impact factor: 5.942

Review 2.  Autochthonous murine models for the study of smoker and never-smoker associated lung cancers.

Authors:  Esra A Akbay; James Kim
Journal:  Transl Lung Cancer Res       Date:  2018-08

Review 3.  Progress towards non-small-cell lung cancer models that represent clinical evolutionary trajectories.

Authors:  Robert E Hynds; Kristopher K Frese; David R Pearce; Eva Grönroos; Caroline Dive; Charles Swanton
Journal:  Open Biol       Date:  2021-01-13       Impact factor: 6.411

Review 4.  ROS1-dependent cancers - biology, diagnostics and therapeutics.

Authors:  Alexander Drilon; Chelsea Jenkins; Sudarshan Iyer; Adam Schoenfeld; Clare Keddy; Monika A Davare
Journal:  Nat Rev Clin Oncol       Date:  2020-08-05       Impact factor: 66.675

Review 5.  Tyrosine Kinase Receptor Landscape in Lung Cancer: Therapeutical Implications.

Authors:  A Quintanal-Villalonga; Luis Paz-Ares; Irene Ferrer; S Molina-Pinelo
Journal:  Dis Markers       Date:  2016-07-26       Impact factor: 3.434

  5 in total

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