Literature DB >> 29496663

HOXA9 Cooperates with Activated JAK/STAT Signaling to Drive Leukemia Development.

Charles E de Bock1,2, Sofie Demeyer1,2, Sandrine Degryse1,2, Delphine Verbeke1,2, Bram Sweron1,2, Olga Gielen1,2, Roel Vandepoel1,2, Carmen Vicente1,2, Marlies Vanden Bempt1,2, Antonis Dagklis1,2, Ellen Geerdens1,2, Simon Bornschein1,2, Rik Gijsbers3, Jean Soulier4, Jules P Meijerink5, Merja Heinäniemi6, Susanna Teppo7, Maria Bouvy-Liivrand6, Olli Lohi7, Enrico Radaelli1,2, Jan Cools8,2.   

Abstract

Leukemia is caused by the accumulation of multiple genomic lesions in hematopoietic precursor cells. However, how these events cooperate during oncogenic transformation remains poorly understood. We studied the cooperation between activated JAK3/STAT5 signaling and HOXA9 overexpression, two events identified as significantly co-occurring in T-cell acute lymphoblastic leukemia. Expression of mutant JAK3 and HOXA9 led to a rapid development of leukemia originating from multipotent or lymphoid-committed progenitors, with a significant decrease in disease latency compared with JAK3 or HOXA9 alone. Integrated RNA sequencing, chromatin immunoprecipitation sequencing, and Assay for Transposase-Accessible Chromatin using sequencing (ATAC-seq) revealed that STAT5 and HOXA9 have co-occupancy across the genome, resulting in enhanced STAT5 transcriptional activity and ectopic activation of FOS/JUN (AP1). Our data suggest that oncogenic transcription factors such as HOXA9 provide a fertile ground for specific signaling pathways to thrive, explaining why JAK/STAT pathway mutations accumulate in HOXA9-expressing cells.Significance: The mechanism of oncogene cooperation in cancer development remains poorly characterized. In this study, we model the cooperation between activated JAK/STAT signaling and ectopic HOXA9 expression during T-cell leukemia development. We identify a direct cooperation between STAT5 and HOXA9 at the transcriptional level and identify PIM1 kinase as a possible drug target in mutant JAK/STAT/HOXA9-positive leukemia cases. Cancer Discov; 8(5); 616-31. ©2018 AACR.This article is highlighted in the In This Issue feature, p. 517. ©2018 American Association for Cancer Research.

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Year:  2018        PMID: 29496663     DOI: 10.1158/2159-8290.CD-17-0583

Source DB:  PubMed          Journal:  Cancer Discov        ISSN: 2159-8274            Impact factor:   39.397


  33 in total

1.  T-cell acute lymphoblastic leukemias express a unique truncated FAT1 isoform that cooperates with NOTCH1 in leukemia development.

Authors:  Charles E de Bock; Michelle Down; Kinsha Baidya; Bram Sweron; Andrew W Boyd; Mark Fiers; Gordon F Burns; Timothy J Molloy; Richard B Lock; Jean Soulier; Tom Taghon; Pieter Van Vlierberghe; Jan Cools; Jeff Holst; Rick F Thorne
Journal:  Haematologica       Date:  2018-12-04       Impact factor: 9.941

Review 2.  Emerging molecular subtypes and therapeutic targets in B-cell precursor acute lymphoblastic leukemia.

Authors:  Jianfeng Li; Yuting Dai; Liang Wu; Ming Zhang; Wen Ouyang; Jinyan Huang; Saijuan Chen
Journal:  Front Med       Date:  2021-01-05       Impact factor: 4.592

3.  HoxA9 transforms murine myeloid cells by a feedback loop driving expression of key oncogenes and cell cycle control genes.

Authors:  Xiaoxia Zhong; Andreas Prinz; Julia Steger; Maria-Paz Garcia-Cuellar; Markus Radsak; Abderrazzak Bentaher; Robert K Slany
Journal:  Blood Adv       Date:  2018-11-27

4.  Large-scale circular RNA deregulation in T-ALL: unlocking unique ectopic expression of molecular subtypes.

Authors:  Alessia Buratin; Maddalena Paganin; Enrico Gaffo; Anna Dal Molin; Juliette Roels; Giuseppe Germano; Maria Teresa Siddi; Valentina Serafin; Matthias De Decker; Stéphanie Gachet; Kaat Durinck; Frank Speleman; Tom Taghon; Geertruij Te Kronnie; Pieter Van Vlierberghe; Stefania Bortoluzzi
Journal:  Blood Adv       Date:  2020-12-08

5.  PIM Kinase Inhibitors Block the Growth of Primary T-cell Acute Lymphoblastic Leukemia: Resistance Pathways Identified by Network Modeling Analysis.

Authors:  James T Lim; Neha Singh; Libia A Leuvano; Valerie S Calvert; Emanuel F Petricoin; David T Teachey; Richard B Lock; Megha Padi; Andrew S Kraft; Sathish K R Padi
Journal:  Mol Cancer Ther       Date:  2020-08-04       Impact factor: 6.261

6.  Suz12 inactivation cooperates with JAK3 mutant signaling in the development of T-cell acute lymphoblastic leukemia.

Authors:  Michael Broux; Cristina Prieto; Sofie Demeyer; Marlies Vanden Bempt; Llucia Alberti-Servera; Inge Lodewijckx; Roel Vandepoel; Nicole Mentens; Olga Gielen; Kris Jacobs; Ellen Geerdens; Carmen Vicente; Charles E de Bock; Jan Cools
Journal:  Blood       Date:  2019-10-17       Impact factor: 22.113

7.  Single-cell DNA amplicon sequencing reveals clonal heterogeneity and evolution in T-cell acute lymphoblastic leukemia.

Authors:  Llucia Albertí-Servera; Sofie Demeyer; Inge Govaerts; Toon Swings; Jolien De Bie; Olga Gielen; Marco Brociner; Lucienne Michaux; Johan Maertens; Anne Uyttebroeck; Kim De Keersmaecker; Nancy Boeckx; Heidi Segers; Jan Cools
Journal:  Blood       Date:  2021-02-11       Impact factor: 22.113

8.  STAT5 is essential for IL-7-mediated viability, growth, and proliferation of T-cell acute lymphoblastic leukemia cells.

Authors:  Daniel Ribeiro; Alice Melão; Ruben van Boxtel; Cristina I Santos; Ana Silva; Milene C Silva; Bruno A Cardoso; Paul J Coffer; João T Barata
Journal:  Blood Adv       Date:  2018-09-11

Review 9.  The Genetics and Mechanisms of T-Cell Acute Lymphoblastic Leukemia.

Authors:  Francesca Gianni; Laura Belver; Adolfo Ferrando
Journal:  Cold Spring Harb Perspect Med       Date:  2020-03-02       Impact factor: 6.915

10.  Non-canonical H3K79me2-dependent pathways promote the survival of MLL-rearranged leukemia.

Authors:  William F Richter; Rohan N Shah; Alexander J Ruthenburg
Journal:  Elife       Date:  2021-07-15       Impact factor: 8.140

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