Literature DB >> 23048032

Heparanase enhances the insulin receptor signaling pathway to activate extracellular signal-regulated kinase in multiple myeloma.

Anurag Purushothaman1, Stephen K Babitz, Ralph D Sanderson.   

Abstract

ERK signaling regulates proliferation, survival, drug resistance, and angiogenesis in cancer. Although the mechanisms regulating ERK activation are not fully understood, we previously demonstrated that ERK phosphorylation is elevated by heparanase, an enzyme associated with aggressive behavior of many cancers. In the present study, myeloma cell lines expressing either high or low levels of heparanase were utilized to determine how heparanase stimulates ERK signaling. We discovered that the insulin receptor was abundant on cells expressing either high or low levels of heparanase, but the receptor was highly phosphorylated in heparanase-high cells compared with heparanase-low cells. In addition, protein kinase C activity was elevated in heparanase-high cells, and this enhanced expression of insulin receptor substrate-1 (IRS-1), the principle intracellular substrate for phosphorylation by the insulin receptor. Blocking insulin receptor function with antibody or a small molecule inhibitor or knockdown of IRS-1 expression using shRNA diminished heparanase-mediated ERK activation in the tumor cells. In addition, up-regulation of the insulin signaling pathway by heparanase and the resulting ERK activation were dependent on heparanase retaining its enzyme activity. These results reveal a novel mechanism whereby heparanase enhances activation of the insulin receptor signaling pathway leading to ERK activation and modulation of myeloma behavior.

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Year:  2012        PMID: 23048032      PMCID: PMC3510827          DOI: 10.1074/jbc.M112.391417

Source DB:  PubMed          Journal:  J Biol Chem        ISSN: 0021-9258            Impact factor:   5.157


  44 in total

1.  Soluble Abeta inhibits specific signal transduction cascades common to the insulin receptor pathway.

Authors:  Matthew Townsend; Tapan Mehta; Dennis J Selkoe
Journal:  J Biol Chem       Date:  2007-09-13       Impact factor: 5.157

2.  Perifosine, an oral bioactive novel alkylphospholipid, inhibits Akt and induces in vitro and in vivo cytotoxicity in human multiple myeloma cells.

Authors:  Teru Hideshima; Laurence Catley; Hiroshi Yasui; Kenji Ishitsuka; Noopur Raje; Constantine Mitsiades; Klaus Podar; Nikhil C Munshi; Dharminder Chauhan; Paul G Richardson; Kenneth C Anderson
Journal:  Blood       Date:  2006-01-17       Impact factor: 22.113

Review 3.  Regulation, function and clinical significance of heparanase in cancer metastasis and angiogenesis.

Authors:  Neta Ilan; Michael Elkin; Israel Vlodavsky
Journal:  Int J Biochem Cell Biol       Date:  2006-07-06       Impact factor: 5.085

4.  Heparanase influences expression and shedding of syndecan-1, and its expression by the bone marrow environment is a bad prognostic factor in multiple myeloma.

Authors:  Karène Mahtouk; Dirk Hose; Pierre Raynaud; Michael Hundemer; Michel Jourdan; Eric Jourdan; Veronique Pantesco; Marion Baudard; John De Vos; Marion Larroque; Thomas Moehler; Jean-Francois Rossi; Thierry Rème; Hartmut Goldschmidt; Bernard Klein
Journal:  Blood       Date:  2007-03-05       Impact factor: 22.113

5.  Insulin receptor substrate-1 regulates the transformed phenotype of BT-20 human mammary cancer cells.

Authors:  Ozlem Dalmizrak; An Wu; Jia Chen; Hongzhi Sun; Fransiscus E Utama; Diana Zambelli; Thai H Tran; Hallgeir Rui; Renato Baserga
Journal:  Cancer Res       Date:  2007-03-01       Impact factor: 12.701

6.  Heparanase stimulation of protease expression implicates it as a master regulator of the aggressive tumor phenotype in myeloma.

Authors:  Anurag Purushothaman; Ligong Chen; Yang Yang; Ralph D Sanderson
Journal:  J Biol Chem       Date:  2008-09-23       Impact factor: 5.157

7.  Targeting MEK1/2 blocks osteoclast differentiation, function and cytokine secretion in multiple myeloma.

Authors:  Iris Breitkreutz; Marc S Raab; Sonia Vallet; Teru Hideshima; Noopur Raje; Dharminder Chauhan; Nikhil C Munshi; Paul G Richardson; Kenneth C Anderson
Journal:  Br J Haematol       Date:  2007-10       Impact factor: 6.998

8.  Targeting MEK induces myeloma-cell cytotoxicity and inhibits osteoclastogenesis.

Authors:  Yu-Tzu Tai; Mariateresa Fulciniti; Teru Hideshima; Weihua Song; Merav Leiba; Xian-Feng Li; Matthew Rumizen; Peter Burger; Aileen Morrison; Klaus Podar; Dharminder Chauhan; Pierfrancesco Tassone; Paul Richardson; Nikhil C Munshi; Irene M Ghobrial; Kenneth C Anderson
Journal:  Blood       Date:  2007-05-17       Impact factor: 22.113

9.  Heparanase enhances syndecan-1 shedding: a novel mechanism for stimulation of tumor growth and metastasis.

Authors:  Yang Yang; Veronica Macleod; Hua-Quan Miao; Allison Theus; Fenghuang Zhan; John D Shaughnessy; Jeffrey Sawyer; Jin-Ping Li; Eyal Zcharia; Israel Vlodavsky; Ralph D Sanderson
Journal:  J Biol Chem       Date:  2007-03-08       Impact factor: 5.157

10.  Heparanase facilitates cell adhesion and spreading by clustering of cell surface heparan sulfate proteoglycans.

Authors:  Flonia Levy-Adam; Sari Feld; Edith Suss-Toby; Israel Vlodavsky; Neta Ilan
Journal:  PLoS One       Date:  2008-06-11       Impact factor: 3.240

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  27 in total

1.  Heparan Sulfate Glycosaminoglycans in Glioblastoma Promote Tumor Invasion.

Authors:  Vy M Tran; Anna Wade; Andrew McKinney; Katharine Chen; Olle R Lindberg; Jane R Engler; Anders I Persson; Joanna J Phillips
Journal:  Mol Cancer Res       Date:  2017-08-04       Impact factor: 5.852

2.  Serglycin proteoglycan is required for multiple myeloma cell adhesion, in vivo growth, and vascularization.

Authors:  Anurag Purushothaman; Bryan P Toole
Journal:  J Biol Chem       Date:  2014-01-08       Impact factor: 5.157

3.  Identification of key genes and pathways in uterine leiomyosarcoma through bioinformatics analysis.

Authors:  Yuqin Zang; Lina Gu; Yanfang Zhang; Yingmei Wang; Fengxia Xue
Journal:  Oncol Lett       Date:  2018-04-16       Impact factor: 2.967

4.  High glucose facilitated endothelial heparanase transfer to the cardiomyocyte modifies its cell death signature.

Authors:  Fulong Wang; Jocelyn Jia; Nathaniel Lal; Dahai Zhang; Amy Pei-Ling Chiu; Andrea Wan; Israel Vlodavsky; Bahira Hussein; Brian Rodrigues
Journal:  Cardiovasc Res       Date:  2016-12       Impact factor: 10.787

Review 5.  Insights into the molecular roles of heparan sulfate proteoglycans (HSPGs-syndecans) in autocrine and paracrine growth factor signaling in the pathogenesis of Hodgkin's lymphoma.

Authors:  Rajendra Gharbaran
Journal:  Tumour Biol       Date:  2016-06-18

Review 6.  Mechanisms of heparanase inhibitors in cancer therapy.

Authors:  Benjamin Heyman; Yiping Yang
Journal:  Exp Hematol       Date:  2016-08-26       Impact factor: 3.084

Review 7.  Versatile role of heparanase in inflammation.

Authors:  Rachel Goldberg; Amichay Meirovitz; Nir Hirshoren; Raanan Bulvik; Adi Binder; Ariel M Rubinstein; Michael Elkin
Journal:  Matrix Biol       Date:  2013-03-13       Impact factor: 11.583

Review 8.  Involvement of heparanase in atherosclerosis and other vessel wall pathologies.

Authors:  Israel Vlodavsky; Miry Blich; Jin-Ping Li; Ralph D Sanderson; Neta Ilan
Journal:  Matrix Biol       Date:  2013-03-13       Impact factor: 11.583

Review 9.  The heparanase/syndecan-1 axis in cancer: mechanisms and therapies.

Authors:  Vishnu C Ramani; Anurag Purushothaman; Mark D Stewart; Camilla A Thompson; Israel Vlodavsky; Jessie L-S Au; Ralph D Sanderson
Journal:  FEBS J       Date:  2013-03-04       Impact factor: 5.542

Review 10.  Proteoglycans and their roles in brain cancer.

Authors:  Anna Wade; Aaron E Robinson; Jane R Engler; Claudia Petritsch; C David James; Joanna J Phillips
Journal:  FEBS J       Date:  2013-02-06       Impact factor: 5.542

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