A non-mutated TROP2 fingerprint in cancer genetics

被引:2
|
作者
Guerra, Emanuela [1 ,2 ]
Di Pietro, Roberta [3 ,4 ]
Stati, Gianmarco [3 ]
Alberti, Saverio [5 ]
机构
[1] Gd Annunzio Univ Chieti Pescara, Ctr Adv Studies & Technol CAST, Lab Canc Pathol, Chieti, Italy
[2] Gd Annunzio Univ Chieti Pescara, Dept Med Oral & Biotechnol Sci, Chieti, Italy
[3] Gd Annunzio Univ Chieti Pescara, Dept Med & Aging Sci, Sect Biomorphol, Chieti, Italy
[4] Temple Univ, Sbarro Inst Canc Res & Mol Med, Coll Sci & Technol, Ctr Biotechnol,Dept Biol, Philadelphia, PA USA
[5] Univ Messina, Dept Biomed Sci Biomed Sci BIOMORF, Unit Med Genet, Messina, Italy
来源
FRONTIERS IN ONCOLOGY | 2023年 / 13卷
基金
欧盟地平线“2020”;
关键词
gelatinous drop-like corneal dystrophy (GDLD); pancreatic cancer (PC); Trop-2; genomic mutations; gene expression profiles; tumor progression; DNA METHYLATION PREVENTS; EPIGENETIC CHANGES; MULTIPLE GENES; CELL; GROWTH; HALLMARKS; CARCINOMA; TACSTD2; AMPLIFICATION; EXPRESSION;
D O I
10.3389/fonc.2023.1151090
中图分类号
R73 [肿瘤学];
学科分类号
100214 ;
摘要
The advent of high throughput DNA sequencing is providing massive amounts of tumor-associated mutation data. Implicit in these analyses is the assumption that, by acquiring a series of hallmark changes, normal cells evolve along a neoplastic path. However, the lack of correlation between cancer risk and global exposure to mutagenic factors provides arguments against this model. This suggested that additional, non-mutagenic factors are at work in cancer development. A candidate determinant is TROP2, that stands out for its expression in the majority of solid tumors in human, for its impact on the prognosis of most solid cancers and for its role as driver of cancer growth and metastatic diffusion, through overexpression as a wild-type form. The Trop-2 signaling network encompasses CREB1, Jun, NF-& kappa;B, Rb, STAT1 and STAT3, through induction of cyclin D1 and MAPK/ERK. Notably, Trop-2-driven pathways vastly overlap with those activated by most functionally relevant/most frequently mutated RAS and TP53, and are co-expressed in a large fraction of individual tumor cases, suggesting functional overlap. Mutated Ras was shown to synergize with the TROP2-CYCLIND1 mRNA chimera in transforming primary cells into tumorigenic ones. Genomic loss of TROP2 was found to promote carcinogenesis in squamous cell carcinomas through modulation of Src and mutated Ras pathways. DNA methylation and TP53 status were shown to cause genome instability and TROP gene amplification, together with Trop-2 protein overexpression. These findings suggest that mutagenic and the TROP2 non-mutagenic pathways deeply intertwine in driving transformed cell growth and malignant progression of solid cancers.
引用
收藏
页数:8
相关论文
共 50 条
  • [41] Overexpression of EpCAM and Trop2 in pituitary adenomas
    Chen, Xin
    Pang, Bo
    Liang, Yu
    Xu, Shang-Chen
    Xin, Tao
    Fan, Hai-Tao
    Yu, Yan-Bing
    Pang, Qi
    INTERNATIONAL JOURNAL OF CLINICAL AND EXPERIMENTAL PATHOLOGY, 2014, 7 (11): : 7907 - 7914
  • [42] Trop2 deal heats up antibody–drug conjugate space in cancer
    Catherine Shaffer
    Nature Biotechnology, 2021, 39 : 128 - 130
  • [43] TROP2 ProTriTAC™, a protease-activated T cell engager prodrug targeting TROP2 for the treatment of solid tumors
    Rocha, Sony S.
    Lin, Regina
    Dayao, Maria R.
    Banzon, Raphaela Rose
    Thothathri, Subramanian
    Wright, Kevin J.
    Aaron, Wade
    Xiao, Yinghua
    Bergo, Nick
    To, Linh
    Bush, Mabel
    Barath, Manasi
    Yu, Timothy
    Kwong, Willis
    Situ, Hubert
    Bragg, Eric
    O'Rear, Jessica
    Carlin, Kevin
    Yu, Stephen
    Solorio, Maritza
    Lemon, Bryan
    Austin, Richard
    Wesche, Holger
    Lin, S. Jack
    CANCER RESEARCH, 2023, 83 (07)
  • [44] Combining immunotherapy with Trop2 ADc in early stage non-small cell lung cancer (CITADEL)
    Li, S. C. M.
    Mok, T. S. K.
    Ng, C.
    Cheung, A. H.
    Chan, S.
    Lee, V. W. K.
    Lim, M. Y. F.
    Chow, J. C-H.
    Cheung, K. M.
    Li, K.
    Liao, G.
    Wong, I. W. C.
    Lee, V. H. F.
    Mok, S. T. F.
    Mok, K.
    Lau, R.
    Chan, J. W. Y.
    Nyaw, S. F.
    ANNALS OF ONCOLOGY, 2024, 35 : S792 - S793
  • [45] Decoding TROP2 in breast cancer: significance, clinical implications, and therapeutic advancements
    Yao, Liqin
    Chen, Junfeng
    Ma, Wenxue
    FRONTIERS IN ONCOLOGY, 2023, 13
  • [46] Correlation between Trop2 and amphiregulin coexpression and overall survival in gastric cancer
    Zhao, Wei
    Ding, Guipeng
    Wen, Jinbo
    Tang, Qi
    Yong, Hongmei
    Zhu, Huijun
    Zhang, Shu
    Qiu, Zhenning
    Feng, Zhenqing
    Zhu, Jin
    CANCER MEDICINE, 2017, 6 (05): : 994 - 1001
  • [47] Identification of biomarker associated with Trop2 in breast cancer: implication for targeted therapy
    Lai, Jianguo
    Deng, Shuxuan
    Cao, Jiyuan
    Ren, Yongqi
    Xu, Zanmei
    Qi, Xiaofang
    Xu, Mian
    Liao, Ning
    DISCOVER ONCOLOGY, 2024, 15 (01)
  • [48] 68Ga-TROP2-Nanobody for PET/CT assessment of TROP2 expression in patients with various types of cancer
    Chen, Haojun
    Shi, Jiyun
    Cai, Jiayu
    Xu, Weizhi
    Sun, Yining
    Gao, Hannan
    Pang, Yizhen
    Wang, Fan
    JOURNAL OF NUCLEAR MEDICINE, 2024, 65
  • [49] Comparative study between patients with mutated BRCA1 2 breast and or ovarian cancer and non-mutated BRCA1 2
    Habak, N.
    Abdellah, M. Ait
    Chikouche, A.
    Griene, L.
    CLINICA CHIMICA ACTA, 2024, 558
  • [50] Epigenetically upregulating TROP2 and SLFN11 enhances therapeutic efficacy of TROP2 antibody drug conjugate sacitizumab govitecan
    Zhao, Ming
    DiPeri, Timothy P. P.
    Raso, Maria Gabriela
    Zheng, Xiaofeng
    Rizvi, Yasmeen Qamar
    Evans, Kurt W. W.
    Yang, Fei
    Akcakanat, Argun
    Estecio, Marco Roberto
    Tripathy, Debu
    Dumbrava, Ecaterina E. E.
    Damodaran, Senthil
    Meric-Bernstam, Funda
    NPJ BREAST CANCER, 2023, 9 (01)