Literature DB >> 30300142

Temporal dynamics of Wnt-dependent transcriptome reveal an oncogenic Wnt/MYC/ribosome axis.

Babita Madan1, Nathan Harmston1,2, Gahyathiri Nallan1, Alex Montoya3, Peter Faull3, Enrico Petretto2,3, David M Virshup1,4.   

Abstract

Activating mutations in the Wnt pathway drive a variety of cancers, but the specific targets and pathways activated by Wnt ligands are not fully understood. To bridge this knowledge gap, we performed a comprehensive time-course analysis of Wnt-dependent signaling pathways in an orthotopic model of Wnt-addicted pancreatic cancer, using a porcupine (PORCN) inhibitor currently in clinical trials, and validated key results in additional Wnt-addicted models. The temporal analysis of the drug-perturbed transcriptome demonstrated direct and indirect regulation of more than 3,500 Wnt-activated genes (23% of the transcriptome). Regulation was both via Wnt/β-catenin and through the modulation of protein abundance of important transcription factors, including MYC, via Wnt-dependent stabilization of proteins (Wnt/STOP). Our study identifies a central role of Wnt/β-catenin and Wnt/STOP signaling in controlling ribosome biogenesis, a key driver of cancer proliferation.

Entities:  

Keywords:  Cancer; Cell Biology; Mouse models; Oncogenes; Oncology

Mesh:

Substances:

Year:  2018        PMID: 30300142      PMCID: PMC6264740          DOI: 10.1172/JCI122383

Source DB:  PubMed          Journal:  J Clin Invest        ISSN: 0021-9738            Impact factor:   14.808


  53 in total

1.  Multiple Ras-dependent phosphorylation pathways regulate Myc protein stability.

Authors:  R Sears; F Nuckolls; E Haura; Y Taya; K Tamai; J R Nevins
Journal:  Genes Dev       Date:  2000-10-01       Impact factor: 11.361

2.  Fast Nonparametric Clustering of Structured Time-Series.

Authors:  James Hensman; Magnus Rattray; Neil D Lawrence
Journal:  IEEE Trans Pattern Anal Mach Intell       Date:  2015-02       Impact factor: 6.226

3.  Genomic integration of Wnt/β-catenin and BMP/Smad1 signaling coordinates foregut and hindgut transcriptional programs.

Authors:  Mariana L Stevens; Praneet Chaturvedi; Scott A Rankin; Melissa Macdonald; Sajjeev Jagannathan; Masashi Yukawa; Artem Barski; Aaron M Zorn
Journal:  Development       Date:  2017-02-20       Impact factor: 6.868

Review 4.  Targeting the nucleolus for cancer intervention.

Authors:  Jaclyn E Quin; Jennifer R Devlin; Donald Cameron; Kate M Hannan; Richard B Pearson; Ross D Hannan
Journal:  Biochim Biophys Acta       Date:  2014-01-02

Review 5.  Does the ribosome translate cancer?

Authors:  Davide Ruggero; Pier Paolo Pandolfi
Journal:  Nat Rev Cancer       Date:  2003-03       Impact factor: 60.716

Review 6.  β-Catenin-Independent Roles of Wnt/LRP6 Signaling.

Authors:  Sergio P Acebron; Christof Niehrs
Journal:  Trends Cell Biol       Date:  2016-08-24       Impact factor: 20.808

7.  The Axin1 scaffold protein promotes formation of a degradation complex for c-Myc.

Authors:  Hugh K Arnold; Xiaoli Zhang; Colin J Daniel; Deanne Tibbitts; Julie Escamilla-Powers; Amy Farrell; Sara Tokarz; Charlie Morgan; Rosalie C Sears
Journal:  EMBO J       Date:  2009-01-08       Impact factor: 11.598

Review 8.  Wnt/Myc interactions in intestinal cancer: partners in crime.

Authors:  Kevin Myant; Owen J Sansom
Journal:  Exp Cell Res       Date:  2011-08-07       Impact factor: 3.905

9.  Structural basis of Wnt recognition by Frizzled.

Authors:  Claudia Y Janda; Deepa Waghray; Aron M Levin; Christoph Thomas; K Christopher Garcia
Journal:  Science       Date:  2012-05-31       Impact factor: 47.728

Review 10.  Wnt target genes and where to find them.

Authors:  Aravinda-Bharathi Ramakrishnan; Ken M Cadigan
Journal:  F1000Res       Date:  2017-05-24
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  21 in total

Review 1.  Wnts and the hallmarks of cancer.

Authors:  Zheng Zhong; Jia Yu; David M Virshup; Babita Madan
Journal:  Cancer Metastasis Rev       Date:  2020-09       Impact factor: 9.264

2.  Wnt signaling recruits KIF2A to the spindle to ensure chromosome congression and alignment during mitosis.

Authors:  Anja Bufe; Ana García Del Arco; Magdalena Hennecke; Anchel de Jaime-Soguero; Matthias Ostermaier; Yu-Chih Lin; Anja Ciprianidis; Janina Hattemer; Ulrike Engel; Petra Beli; Holger Bastians; Sergio P Acebrón
Journal:  Proc Natl Acad Sci U S A       Date:  2021-08-24       Impact factor: 11.205

3.  mRNAsi-related genes can effectively distinguish hepatocellular carcinoma into new molecular subtypes.

Authors:  Canbiao Wang; Shijie Qin; Wanwan Pan; Xuejia Shi; Hanyu Gao; Ping Jin; Xinyi Xia; Fei Ma
Journal:  Comput Struct Biotechnol J       Date:  2022-06-08       Impact factor: 6.155

Review 4.  Regulation of SUMOylation Targets Associated With Wnt/β-Catenin Pathway.

Authors:  Linlin Fan; Xudong Yang; Minying Zheng; Xiaohui Yang; Yidi Ning; Ming Gao; Shiwu Zhang
Journal:  Front Oncol       Date:  2022-06-30       Impact factor: 5.738

5.  Porcupine Inhibition Disrupts Mitochondrial Function and Homeostasis in WNT Ligand-Addicted Pancreatic Cancer.

Authors:  Kristina Y Aguilera; Thuc Le; Rana Riahi; Anna R Lay; Stefan Hinz; Edris A Saadat; Ajay A Vashisht; James Wohlschlegel; Timothy R Donahue; Caius G Radu; David W Dawson
Journal:  Mol Cancer Ther       Date:  2022-06-01       Impact factor: 6.009

6.  Foxh1/Nodal Defines Context-Specific Direct Maternal Wnt/β-Catenin Target Gene Regulation in Early Development.

Authors:  Boni A Afouda; Yukio Nakamura; Sophie Shaw; Rebekah M Charney; Kitt D Paraiso; Ira L Blitz; Ken W Y Cho; Stefan Hoppler
Journal:  iScience       Date:  2020-06-25

Review 7.  WNT Ligand Dependencies in Pancreatic Cancer.

Authors:  Kristina Y Aguilera; David W Dawson
Journal:  Front Cell Dev Biol       Date:  2021-04-28

Review 8.  Wnt/β-Catenin Signaling: The Culprit in Pancreatic Carcinogenesis and Therapeutic Resistance.

Authors:  Monish Ram Makena; Himavanth Gatla; Dattesh Verlekar; Sahithi Sukhavasi; Manoj K Pandey; Kartick C Pramanik
Journal:  Int J Mol Sci       Date:  2019-08-30       Impact factor: 5.923

9.  Zonation of Ribosomal DNA Transcription Defines a Stem Cell Hierarchy in Colorectal Cancer.

Authors:  Clara Morral; Jelena Stanisavljevic; Xavier Hernando-Momblona; Elisabetta Mereu; Adrián Álvarez-Varela; Carme Cortina; Diana Stork; Felipe Slebe; Gemma Turon; Gavin Whissell; Marta Sevillano; Anna Merlos-Suárez; Àngela Casanova-Martí; Catia Moutinho; Scott W Lowe; Lukas E Dow; Alberto Villanueva; Elena Sancho; Holger Heyn; Eduard Batlle
Journal:  Cell Stem Cell       Date:  2020-05-11       Impact factor: 24.633

10.  Genome-scale CRISPR-Cas9 screen of Wnt/β-catenin signaling identifies therapeutic targets for colorectal cancer.

Authors:  Chunhua Wan; Sylvia Mahara; Claire Sun; Anh Doan; Hui Kheng Chua; Dakang Xu; Jia Bian; Yue Li; Danxi Zhu; Dhanya Sooraj; Tomasz Cierpicki; Jolanta Grembecka; Ron Firestein
Journal:  Sci Adv       Date:  2021-05-19       Impact factor: 14.136

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