Literature DB >> 19318475

Phosphorylation of the SRC epithelial substrate Trask is tightly regulated in normal epithelia but widespread in many human epithelial cancers.

Ching Hang Wong1, Frederick L Baehner, Danislav S Spassov, Deepika Ahuja, Donghui Wang, Byron Hann, Jimmy Blair, Kevan Shokat, Alana L Welm, Mark M Moasser.   

Abstract

PURPOSE: The frequently elevated activities of the c-src and c-yes products in human epithelial tumors suggest that these activated tyrosine kinases have tumorigenic functions analogous to the v-src and v-yes oncogene products. Studies of v-src-transformed fibroblasts have identified many of the effectors of this potent oncogene; however, because c-src and c-yes lack the mutational and promiscuous activities of their retroviral oncogene homologues, their presumptive tumorigenic functions in human epithelial tumors are more subtle, less well-defined, and await identification of possible effectors more directly relevant to epithelial cells. EXPERIMENTAL
DESIGN: We recently identified a transmembrane glycoprotein named Trask that is expressed in epithelial tissues but not fibroblasts and is phosphorylated by SRC kinases in mitotic epithelial cells. In this study, we have surveyed the expression and phosphorylation of Trask in many human epithelial cancer cell lines and surgical tissues and tumors.
RESULTS: Trask is widely expressed in human epithelial tissues, but its phosphorylation is tightly regulated and restricted to detached mitotic cells or cells undergoing physiologic shedding. However, abberant Trask phosphorylation is seen in many epithelial tumors from all stages including preinvasive, invasive, and metastatic tumors. Trask phosphorylation requires SRC kinases, and is also aberrantly hyperphosphorylated in the SRC-activated PyMT mouse epithelial tumors and dephosphorylated by the SRC inhibitor treatment of these tumors.
CONCLUSIONS: The widespread phosphorylation of Trask in many human epithlelial cancers identifies a new potential effector of SRC kinases in human epithelial tumorigenesis.

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Year:  2009        PMID: 19318475      PMCID: PMC3023342          DOI: 10.1158/1078-0432.CCR-08-2533

Source DB:  PubMed          Journal:  Clin Cancer Res        ISSN: 1078-0432            Impact factor:   12.531


  39 in total

Review 1.  Newest findings on the oldest oncogene; how activated src does it.

Authors:  Margaret C Frame
Journal:  J Cell Sci       Date:  2004-03-01       Impact factor: 5.285

2.  Cell transformation by pp60c-src mutated in the carboxy-terminal regulatory domain.

Authors:  C A Cartwright; W Eckhart; S Simon; P L Kaplan
Journal:  Cell       Date:  1987-04-10       Impact factor: 41.582

Review 3.  Cell transformation by the viral src oncogene.

Authors:  R Jove; H Hanafusa
Journal:  Annu Rev Cell Biol       Date:  1987

4.  Quantitation of membrane type serine protease 1 (MT-SP1) in transformed and normal cells.

Authors:  Ami S Bhatt; Toshi Takeuchi; Bauke Ylstra; David Ginzinger; Donna Albertson; Marc A Shuman; Charles S Craik
Journal:  Biol Chem       Date:  2003-02       Impact factor: 3.915

5.  Src activation regulates anoikis in human colon tumor cell lines.

Authors:  T Christopher Windham; Nila U Parikh; Doris R Siwak; Justin M Summy; David J McConkey; Alan J Kraker; Gary E Gallick
Journal:  Oncogene       Date:  2002-11-07       Impact factor: 9.867

6.  Subtractive immunization using highly metastatic human tumor cells identifies SIMA135/CDCP1, a 135 kDa cell surface phosphorylated glycoprotein antigen.

Authors:  John D Hooper; Andries Zijlstra; Ronald T Aimes; Hongyan Liang; Gisela F Claassen; David Tarin; Jacqueline E Testa; James P Quigley
Journal:  Oncogene       Date:  2003-03-27       Impact factor: 9.867

7.  Src kinase contributes to the metastatic spread of carcinoma cells.

Authors:  Brigitte Boyer; Yveline Bourgeois; Marie-France Poupon
Journal:  Oncogene       Date:  2002-04-04       Impact factor: 9.867

Review 8.  The road to Src.

Authors:  G Steven Martin
Journal:  Oncogene       Date:  2004-10-18       Impact factor: 9.867

Review 9.  c-Src and cooperating partners in human cancer.

Authors:  Rumey Ishizawar; Sarah J Parsons
Journal:  Cancer Cell       Date:  2004-09       Impact factor: 31.743

10.  Inhibition of tyrosine kinase Src suppresses pancreatic cancer invasiveness.

Authors:  Hiromichi Ito; James Gardner-Thorpe; Michael J Zinner; Stanley W Ashley; Edward E Whang
Journal:  Surgery       Date:  2003-08       Impact factor: 3.982

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  28 in total

1.  Phosphorylation of Trask by Src kinases inhibits integrin clustering and functions in exclusion with focal adhesion signaling.

Authors:  Danislav S Spassov; Ching Hang Wong; Natalia Sergina; Deepika Ahuja; Michael Fried; Dean Sheppard; Mark M Moasser
Journal:  Mol Cell Biol       Date:  2010-12-28       Impact factor: 4.272

2.  Trask phosphorylation defines the reverse mode of a phosphotyrosine signaling switch that underlies cell anchorage state.

Authors:  Danislav S Spassov; Ching H Wong; Mark M Moasser
Journal:  Cell Cycle       Date:  2011-04-15       Impact factor: 4.534

3.  Src Kinase Is Biphosphorylated at Y416/Y527 and Activates the CUB-Domain Containing Protein 1/Protein Kinase C δ Pathway in a Subset of Triple-Negative Breast Cancers.

Authors:  Luke J Nelson; Heather J Wright; Nguyen B Dinh; Kevin D Nguyen; Olga V Razorenova; F Scott Heinemann
Journal:  Am J Pathol       Date:  2019-12-13       Impact factor: 4.307

4.  Gene array and fluorescence in situ hybridization biomarkers of activity of saracatinib (AZD0530), a Src inhibitor, in a preclinical model of colorectal cancer.

Authors:  John J Arcaroli; Basel M Touban; Aik Choon Tan; Marileila Varella-Garcia; Rebecca W Powell; S Gail Eckhardt; Paul Elvin; Dexiang Gao; Wells A Messersmith
Journal:  Clin Cancer Res       Date:  2010-08-03       Impact factor: 12.531

5.  Elevated CDCP1 predicts poor patient outcome and mediates ovarian clear cell carcinoma by promoting tumor spheroid formation, cell migration and chemoresistance.

Authors:  Y He; A C Wu; B S Harrington; C M Davies; S J Wallace; M N Adams; J S Palmer; D K Roche; B G Hollier; T F Westbrook; H Hamidi; G E Konecny; B Winterhoff; N P Chetty; A J Crandon; N B Oliveira; C M Shannon; A V Tinker; C B Gilks; J I Coward; J W Lumley; L C Perrin; J E Armes; J D Hooper
Journal:  Oncogene       Date:  2015-04-20       Impact factor: 9.867

6.  CD318/CUB-domain-containing protein 1 expression on cord blood hematopoietic progenitors.

Authors:  Hiromi Takeda; Yoshihiro Fujimori; Shunro Kai; Hiroyasu Ogawa; Takashi Nakano
Journal:  Exp Ther Med       Date:  2010-05-01       Impact factor: 2.447

7.  FBXL14 abolishes breast cancer progression by targeting CDCP1 for proteasomal degradation.

Authors:  Yan-Hong Cui; Hyeonmi Kim; Minyoung Lee; Joo Mi Yi; Rae-Kwon Kim; Nizam Uddin; Ki-Chun Yoo; Jae Hyeok Kang; Mi-Young Choi; Hyuk-Jin Cha; Ok-Seon Kwon; In-Hwa Bae; Min-Jung Kim; Neha Kaushik; Su-Jae Lee
Journal:  Oncogene       Date:  2018-07-04       Impact factor: 9.867

8.  Glucocorticoids and histone deacetylase inhibitors cooperate to block the invasiveness of basal-like breast cancer cells through novel mechanisms.

Authors:  M E Law; P E Corsino; S C Jahn; B J Davis; S Chen; B Patel; K Pham; J Lu; B Sheppard; P Nørgaard; J Hong; P Higgins; J-S Kim; H Luesch; B K Law
Journal:  Oncogene       Date:  2012-04-30       Impact factor: 9.867

9.  Trask loss enhances tumorigenic growth by liberating integrin signaling and growth factor receptor cross-talk in unanchored cells.

Authors:  Danislav S Spassov; Ching Hang Wong; Sunny Y Wong; Jeremy F Reiter; Mark M Moasser
Journal:  Cancer Res       Date:  2012-12-12       Impact factor: 12.701

10.  In vivo cleaved CDCP1 promotes early tumor dissemination via complexing with activated β1 integrin and induction of FAK/PI3K/Akt motility signaling.

Authors:  B Casar; I Rimann; H Kato; S J Shattil; J P Quigley; E I Deryugina
Journal:  Oncogene       Date:  2012-12-03       Impact factor: 9.867

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