Literature DB >> 30355677

PTPN11 Plays Oncogenic Roles and Is a Therapeutic Target for BRAF Wild-Type Melanomas.

Kristen S Hill1, Evan R Roberts1, Xue Wang1, Ellen Marin1, Taeeun D Park1, Sorany Son1, Yuan Ren1, Bin Fang2, Sean Yoder3, Sungjune Kim4,5, Lixin Wan1, Amod A Sarnaik6, John M Koomen1,2, Jane L Messina6,7, Jamie K Teer8, Youngchul Kim8, Jie Wu9, Charles E Chalfant10,11, Minjung Kim12,6,10.   

Abstract

Melanoma is one of the most highly mutated cancer types. To identify functional drivers of melanoma, we searched for cross-species conserved mutations utilizing a mouse melanoma model driven by loss of PTEN and CDKN2A, and identified mutations in Kras, Erbb3, and Ptpn11. PTPN11 encodes the SHP2 protein tyrosine phosphatase that activates the RAS/RAF/MAPK pathway. Although PTPN11 is an oncogene in leukemia, lung, and breast cancers, its roles in melanoma are not clear. In this study, we found that PTPN11 is frequently activated in human melanoma specimens and cell lines and is required for full RAS/RAF/MAPK signaling activation in BRAF wild-type (either NRAS mutant or wild-type) melanoma cells. PTPN11 played oncogenic roles in melanoma by driving anchorage-independent colony formation and tumor growth. In Pten- and Cdkn2a-null mice, tet-inducible and melanocyte-specific PTPN11E76K expression significantly enhanced melanoma tumorigenesis. Melanoma cells derived from this mouse model showed doxycycline-dependent tumor growth in nude mice. Silencing PTPN11E76K expression by doxycycline withdrawal caused regression of established tumors by induction of apoptosis and senescence, and suppression of proliferation. Moreover, the PTPN11 inhibitor (SHP099) also caused regression of NRASQ61K -mutant melanoma. Using a quantitative tyrosine phosphoproteomics approach, we identified GSK3α/β as one of the key substrates that were differentially tyrosine-phosphorylated in these experiments modulating PTPN11. This study demonstrates that PTPN11 plays oncogenic roles in melanoma and regulates RAS and GSK3β signaling pathways. IMPLICATIONS: This study identifies PTPN11 as an oncogenic driver and a novel and actionable therapeutic target for BRAF wild-type melanoma. ©2018 American Association for Cancer Research.

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Year:  2018        PMID: 30355677      PMCID: PMC6386183          DOI: 10.1158/1541-7786.MCR-18-0777

Source DB:  PubMed          Journal:  Mol Cancer Res        ISSN: 1541-7786            Impact factor:   5.852


  50 in total

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Authors:  Eran Hodis; Ian R Watson; Gregory V Kryukov; Stefan T Arold; Marcin Imielinski; Jean-Philippe Theurillat; Elizabeth Nickerson; Daniel Auclair; Liren Li; Chelsea Place; Daniel Dicara; Alex H Ramos; Michael S Lawrence; Kristian Cibulskis; Andrey Sivachenko; Douglas Voet; Gordon Saksena; Nicolas Stransky; Robert C Onofrio; Wendy Winckler; Kristin Ardlie; Nikhil Wagle; Jennifer Wargo; Kelly Chong; Donald L Morton; Katherine Stemke-Hale; Guo Chen; Michael Noble; Matthew Meyerson; John E Ladbury; Michael A Davies; Jeffrey E Gershenwald; Stephan N Wagner; Dave S B Hoon; Dirk Schadendorf; Eric S Lander; Stacey B Gabriel; Gad Getz; Levi A Garraway; Lynda Chin
Journal:  Cell       Date:  2012-07-20       Impact factor: 41.582

2.  Ptpn11/Shp2 acts as a tumor suppressor in hepatocellular carcinogenesis.

Authors:  Emilie A Bard-Chapeau; Shuangwei Li; Jin Ding; Sharon S Zhang; Helen H Zhu; Frederic Princen; Diane D Fang; Tao Han; Beatrice Bailly-Maitre; Valeria Poli; Nissi M Varki; Hongyang Wang; Gen-Sheng Feng
Journal:  Cancer Cell       Date:  2011-05-17       Impact factor: 31.743

Review 3.  Protein tyrosine phosphatase function: the substrate perspective.

Authors:  Tony Tiganis; Anton M Bennett
Journal:  Biochem J       Date:  2007-02-15       Impact factor: 3.857

4.  Structural and Functional Consequences of Three Cancer-Associated Mutations of the Oncogenic Phosphatase SHP2.

Authors:  Jonathan R LaRochelle; Michelle Fodor; Xiang Xu; Izabela Durzynska; Lixin Fan; Travis Stams; Ho Man Chan; Matthew J LaMarche; Rajiv Chopra; Ping Wang; Pascal D Fortin; Michael G Acker; Stephen C Blacklow
Journal:  Biochemistry       Date:  2016-04-11       Impact factor: 3.162

5.  The cBio cancer genomics portal: an open platform for exploring multidimensional cancer genomics data.

Authors:  Ethan Cerami; Jianjiong Gao; Ugur Dogrusoz; Benjamin E Gross; Selcuk Onur Sumer; Bülent Arman Aksoy; Anders Jacobsen; Caitlin J Byrne; Michael L Heuer; Erik Larsson; Yevgeniy Antipin; Boris Reva; Arthur P Goldberg; Chris Sander; Nikolaus Schultz
Journal:  Cancer Discov       Date:  2012-05       Impact factor: 39.397

6.  Fast and accurate short read alignment with Burrows-Wheeler transform.

Authors:  Heng Li; Richard Durbin
Journal:  Bioinformatics       Date:  2009-05-18       Impact factor: 6.937

7.  GSK3 beta N-terminus binding to p53 promotes its acetylation.

Authors:  Tae-Yeon Eom; Richard S Jope
Journal:  Mol Cancer       Date:  2009-03-05       Impact factor: 27.401

8.  Ptpn11 deletion in a novel progenitor causes metachondromatosis by inducing hedgehog signalling.

Authors:  Wentian Yang; Jianguo Wang; Douglas C Moore; Haipei Liang; Mark Dooner; Qian Wu; Richard Terek; Qian Chen; Michael G Ehrlich; Peter J Quesenberry; Benjamin G Neel
Journal:  Nature       Date:  2013-07-17       Impact factor: 49.962

9.  Inactivation of RASA1 promotes melanoma tumorigenesis via R-Ras activation.

Authors:  Hyeran Sung; Krishna L Kanchi; Xue Wang; Kristen S Hill; Jane L Messina; Ji-Hyun Lee; Youngchul Kim; Nathan D Dees; Li Ding; Jamie K Teer; Shengyu Yang; Amod A Sarnaik; Vernon K Sondak; James J Mulé; Richard K Wilson; Jeffrey S Weber; Minjung Kim
Journal:  Oncotarget       Date:  2016-04-26

10.  Recurrent inactivating RASA2 mutations in melanoma.

Authors:  Rand Arafeh; Nouar Qutob; Rafi Emmanuel; Alona Keren-Paz; Jason Madore; Abdel Elkahloun; James S Wilmott; Jared J Gartner; Antonella Di Pizio; Sabina Winograd-Katz; Sivasish Sindiri; Ron Rotkopf; Ken Dutton-Regester; Peter Johansson; Antonia L Pritchard; Nicola Waddell; Victoria K Hill; Jimmy C Lin; Yael Hevroni; Steven A Rosenberg; Javed Khan; Shifra Ben-Dor; Masha Y Niv; Igor Ulitsky; Graham J Mann; Richard A Scolyer; Nicholas K Hayward; Yardena Samuels
Journal:  Nat Genet       Date:  2015-10-26       Impact factor: 38.330

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  9 in total

1.  The YAP-Interacting Phosphatase SHP2 Can Regulate Transcriptional Coactivity and Modulate Sensitivity to Chemotherapy in Cholangiocarcinoma.

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Journal:  Mol Cancer Res       Date:  2020-07-09       Impact factor: 5.852

2.  Caspase 9b Drives Cellular Transformation, Lung Inflammation, and Lung Tumorigenesis.

Authors:  Minjung Kim; Charles E Chalfant; Ngoc T Vu; Xue Wang; Gamze B Bulut; Min-Hsuan Wang; Cora Uram-Tuculescu; Raghavendra Pillappa; Sungjune Kim
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3.  Integrative analysis of large-scale loss-of-function screens identifies robust cancer-associated genetic interactions.

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Journal:  Elife       Date:  2020-05-28       Impact factor: 8.140

Review 4.  A compendium of mutational cancer driver genes.

Authors:  Francisco Martínez-Jiménez; Ferran Muiños; Inés Sentís; Jordi Deu-Pons; Iker Reyes-Salazar; Claudia Arnedo-Pac; Loris Mularoni; Oriol Pich; Jose Bonet; Hanna Kranas; Abel Gonzalez-Perez; Nuria Lopez-Bigas
Journal:  Nat Rev Cancer       Date:  2020-08-10       Impact factor: 60.716

5.  SHP2 promotes proliferation of breast cancer cells through regulating Cyclin D1 stability via the PI3K/AKT/GSK3β signaling pathway.

Authors:  Yue Yuan; Yanling Fan; Zicong Gao; Xuan Sun; He Zhang; Zhiyong Wang; Yanfen Cui; Weijie Song; Zhaosong Wang; Fei Zhang; Ruifang Niu
Journal:  Cancer Biol Med       Date:  2020-08-15       Impact factor: 4.248

Review 6.  The RASopathies: from pathogenetics to therapeutics.

Authors:  Katie E Hebron; Edjay Ralph Hernandez; Marielle E Yohe
Journal:  Dis Model Mech       Date:  2022-02-18       Impact factor: 5.758

7.  Discriminating between competing models for the allosteric regulation of oncogenic phosphatase SHP2 by characterizing its active state.

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Journal:  Comput Struct Biotechnol J       Date:  2021-11-03       Impact factor: 7.271

8.  A pan-cancer analysis confirms PTPN11's potential as a prognostic and immunological biomarker.

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9.  Y772 phosphorylation of EphA2 is responsible for EphA2-dependent NPC nasopharyngeal carcinoma growth by Shp2/Erk-1/2 signaling pathway.

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Journal:  Cell Death Dis       Date:  2020-08-27       Impact factor: 8.469

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