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Theodore J. Koh, Clemens J. Bulitta, John V. Fleming, Graham J. Dockray, Andrea Varro, Timothy C. Wang
J Clin Invest. 2000;
106(4):533
doi:10.1172/JCI9476
Abstract |
Full text
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M
utations in the adenomatous polyposis coli (APC) tumor suppressor gene occur in most colorectal cancers and lead to activation of β-catenin. Whereas several downstream targets of β-catenin have been identified (c-myc, cyclin D1, PPARδ), the precise functional significance of many of these targets has not been examined directly using genetic approaches. Previous studies have shown that the gene encoding the hormone gastrin is activated during colon cancer progression and the less-processed forms of gastrin are important colonic trophic factors. We show here that the gastrin gene is a downstream target of the β-catenin/TCF-4 signaling pathway and that cotransfection of a constitutively active β-catenin expression construct causes a threefold increase in gastrin promoter activity. APCmin–/+ mice overexpressing one of the alternatively processed forms of gastrin, glycine-extended gastrin, show a significant increase in polyp number. Gastrin-deficient APCmin–/+ mice, conversely, showed a marked decrease in polyp number and a significantly decreased polyp proliferation rate. Activation of gastrin by β-catenin may therefore represent an early event in colorectal tumorigenesis and may contribute significantly toward neoplastic progression. The identification of gastrin as a functionally relevant downstream target of the β-catenin signaling pathway provides a new target for therapeutic modalities in the treatment of colorectal cancer.
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Publication |
Year |
. |
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.
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.
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2010 |
.
|
Gastrin
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AfCS-Nature Molecule Pages |
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.
|
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International Journal of Experimental Pathology |
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.
|
Gastrins, iron and colorectal cancer
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Metallomics |
2009 |
.
|
CCK2receptor expression transforms non-tumorigenic human NCM356 colonic epithelial cells into tumor forming cells
Celia Chao, Xueliang Han, Kirk Ives, Jeseong Park, Andrey A. Kolokoltsov, Robert A. Davey, Mary P. Moyer, Mark R. Hellmich |
Int J Cancer |
2009 |
.
|
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Journal Clinical Investigation |
2009 |
.
|
L1-CAM in cancerous tissues
Nancy Gavert, Amir Ben-Shmuel, Shani Raveh, Avri Ben-Ze'ev |
ebot |
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.
|
The aurora kinase A regulates GSK-3β in gastric cancer cells
A A Dar, A Belkhiri, W El-Rifai |
Oncogenes |
2008 |
.
|
Glycine-extended gastrin stimulates proliferation via JAK2- and Akt-dependent NF-κB activation in Barrett’s oesophageal adenocarcinoma cells
Olorunseun O. Ogunwobi, Ian L.P. Beales |
Mol Cellular Endocrinol |
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.
|
PAK1 interacts with β-catenin and is required for the regulation of the β-catenin signalling pathway by gastrins
Hong He, Arthur Shulkes, Graham S. Baldwin |
BIOCHIM BIOPHYS ACTA C |
2008 |
.
|
A gastrin transcript expressed in gastrointestinal cancer cells contains an internal ribosome entry site
A M Grabowska, C A Berry, J Hughes, M Bushell, A E Willis, S A Watson |
Br J Cancer |
2008 |
.
|
Mohammad Ilyas |
The Cancer Handbook |
2007 |
.
|
Metastasis of squamous cell carcinoma of the oral tongue
Daisuke Sano, Jeffrey N. Myers |
Cancer Metastasis Rev |
2007 |
.
|
Suppression of gastric cancer cell growth by targeting the β-catenin/T-cell factor pathway
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Cancer |
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.
|
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2007 |
.
|
The gastrin gene promoter is regulated by p73 isoforms in tumor cells
K Tomkova, W El-Rifai, A Vilgelm, M C Kelly, T C Wang, A I Zaika |
Oncogenes |
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.
|
ErbB receptors and epithelial-cadherin?catenin complex in human carcinomas
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Future Oncol |
2006 |
.
|
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.
|
|
|
|