Literature DB >> 16854822

Cell adhesion regulates CDC25A expression and proliferation in acute myeloid leukemia.

Anne Fernandez-Vidal1, Loïc Ysebaert, Christine Didier, Remy Betous, Fabienne De Toni, Naïs Prade-Houdellier, Cécile Demur, Marie-Odile Contour-Galcéra, Grégoire P Prévost, Bernard Ducommun, Bernard Payrastre, Claire Racaud-Sultan, Stéphane Manenti.   

Abstract

The effects of cell adhesion on leukemia cell proliferation remain poorly documented and somehow controversial. In this work, we investigated the effect of adhesion to fibronectin on the proliferation of acute myeloid leukemia (AML) cell lines (U937 and KG1a) and CD34+ normal or leukemic primary cells. We observed an increased rate of proliferation of AML cells when adhered to fibronectin, concomitant with accelerated S-phase entry and accumulation of CDC25A. Conversely, normal CD34+ cell proliferation was decreased by adhesion to fibronectin with a concomitant drop in CDC25A expression. Importantly, we showed that both small interfering RNA (siRNA)-mediated CDC25A down-regulation and a recently developed CDC25 pharmacologic inhibitor impaired this adhesion-dependent proliferation, establishing a functional link between CDC25A accumulation and adhesion-dependent proliferation in leukemic cells. CDC25A accumulation was found only slightly dependent on transcriptional regulation and essentially due to modifications of the proteasomal degradation of the protein as shown using proteasome inhibitors and reverse transcription-PCR. Interestingly, CDC25A regulation was Chk1 dependent in these cells as suggested by siRNA-mediated down-regulation of this protein. Finally, we identified activation of the phosphatidylinositol 3-kinase/Akt pathway as an adhesion-dependent regulation mechanism of CDC25A protein expression. Altogether, our data show that in leukemic cells adhesion to fibronectin increases CDC25A expression through proteasome- and Chk1-dependent mechanisms, resulting in enhanced proliferation. They also suggest that these adhesion-dependent proliferation properties of hematopoietic cells may be modified during leukemogenesis.

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Year:  2006        PMID: 16854822     DOI: 10.1158/0008-5472.CAN-05-2552

Source DB:  PubMed          Journal:  Cancer Res        ISSN: 0008-5472            Impact factor:   12.701


  11 in total

1.  CyclinD-CDK4/6 complexes phosphorylate CDC25A and regulate its stability.

Authors:  C Dozier; L Mazzolini; C Cénac; C Froment; O Burlet-Schiltz; A Besson; S Manenti
Journal:  Oncogene       Date:  2017-02-13       Impact factor: 9.867

2.  Toward the virtual screening of Cdc25A phosphatase inhibitors with the homology modeled protein structure.

Authors:  Hwangseo Park; Young Ho Jeon
Journal:  J Mol Model       Date:  2008-05-27       Impact factor: 1.810

3.  Functional and structural insights into ASB2alpha, a novel regulator of integrin-dependent adhesion of hematopoietic cells.

Authors:  Isabelle Lamsoul; Clara F Burande; Ziba Razinia; Thibault C Houles; Delphine Menoret; Massimiliano Baldassarre; Monique Erard; Christel Moog-Lutz; David A Calderwood; Pierre G Lutz
Journal:  J Biol Chem       Date:  2011-07-07       Impact factor: 5.157

4.  CDC25A governs proliferation and differentiation of FLT3-ITD acute myeloid leukemia.

Authors:  Sarah Bertoli; Helena Boutzen; Laure David; Clément Larrue; François Vergez; Anne Fernandez-Vidal; Lingli Yuan; Marie-Anne Hospital; Jérôme Tamburini; Cécile Demur; Eric Delabesse; Estelle Saland; Jean-Emmanuel Sarry; Marie-Odile Galcera; Véronique Mansat-De Mas; Christine Didier; Christine Dozier; Christian Récher; Stéphane Manenti
Journal:  Oncotarget       Date:  2015-11-10

5.  Transcriptomic profiles of human foreskin fibroblast cells in response to orf virus.

Authors:  Daxiang Chen; Mingjian Long; Bin Xiao; Yufeng Xiong; Huiqin Chen; Yu Chen; Zhenzhan Kuang; Ming Li; Yingsong Wu; Daniel L Rock; Daoyuan Gong; Yong Wang; Haijian He; Fang Liu; Shuhong Luo; Wenbo Hao
Journal:  Oncotarget       Date:  2017-04-25

6.  STAT5-dependent regulation of CDC25A by miR-16 controls proliferation and differentiation in FLT3-ITD acute myeloid leukemia.

Authors:  Gabrielle Sueur; Alison Boutet; Mathilde Gotanègre; Véronique Mansat-De Mas; Arnaud Besson; Stéphane Manenti; Sarah Bertoli
Journal:  Sci Rep       Date:  2020-02-05       Impact factor: 4.379

Review 7.  Toll-like Receptor 4, Osteoblasts and Leukemogenesis; the Lesson from Acute Myeloid Leukemia.

Authors:  Øystein Bruserud; Håkon Reikvam; Annette Katharina Brenner
Journal:  Molecules       Date:  2022-01-23       Impact factor: 4.411

Review 8.  CAM-DR: Mechanisms, Roles and Clinical Application in Tumors.

Authors:  Yuejiao Huang; Yuchan Wang; Jie Tang; Shiyi Qin; Xianjuan Shen; Song He; Shaoqing Ju
Journal:  Front Cell Dev Biol       Date:  2021-07-06

Review 9.  The Possible Importance of β3 Integrins for Leukemogenesis and Chemoresistance in Acute Myeloid Leukemia.

Authors:  Silje Johansen; Annette K Brenner; Sushma Bartaula-Brevik; Håkon Reikvam; Øystein Bruserud
Journal:  Int J Mol Sci       Date:  2018-01-15       Impact factor: 5.923

10.  CDC25 Inhibition in Acute Myeloid Leukemia-A Study of Patient Heterogeneity and the Effects of Different Inhibitors.

Authors:  Annette K Brenner; Håkon Reikvam; Kristin Paulsen Rye; Karen Marie Hagen; Antonio Lavecchia; Øystein Bruserud
Journal:  Molecules       Date:  2017-03-11       Impact factor: 4.411

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