Literature DB >> 19507209

Tumor-associated macrophages infiltrate plasmacytomas and can serve as cell carriers for oncolytic measles virotherapy of disseminated myeloma.

Kah-Whye Peng1, Ahmet Dogan, Julie Vrana, Chunsheng Liu, Hooi T Ong, Shaji Kumar, Angela Dispenzieri, Allan B Dietz, Stephen J Russell.   

Abstract

In multiple myeloma, some of the neoplastic plasma cells are diffusely dispersed among the normal bone marrow cells (bone marrow resident), whereas others are located in discrete, well-vascularized solid tumors (plasmacytomas) that may originate in bone or soft tissue. Interactions between bone marrow-resident myeloma cells and bone marrow stromal cells (BMSCs) are important determinants of myeloma pathogenesis. However, little is known of the factors sustaining myeloma growth and cell viability at the centers of expanding plasmacytomas, where there are no BMSCs. Histologic sections of 22 plasmacytomas from myeloma patients were examined after immunostaining. Abundant CD68+, CD163+, S100-negative macrophage infiltrates were identified in all tumors, accompanied by scattered collections of CD3+ T lymphocytes. The CD68+ tumor-associated macrophages (TAM) accounted for 2-12% of nucleated cells and were evenly distributed through the parenchyma. The TAM generally had dendritic morphology, and each dendrite was in close contact with multiple plasma cells. In some cases, the TAM were strikingly clustered around CD34+ blood vessels. To determine whether cells of the monocytic lineage might be exploitable as carriers for delivery of therapeutic agents to plasmacytomas, primary human CD14+ cells were infected with oncolytic measles virus and administered intravenously to mice bearing KAS6/1 human myeloma xenografts. The cell carriers localized to KAS6/1 tumors, where they transferred MV infection to myeloma cells and prolonged the survival of mice bearing disseminated human myeloma disease. Thus, TAM are a universal stromal component of the plasmacytomas of myeloma patients and may offer a promising new target for therapeutic exploitation. Am. J. Hematol. 2009. (c) 2009 Wiley-Liss, Inc.

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Year:  2009        PMID: 19507209      PMCID: PMC2805200          DOI: 10.1002/ajh.21444

Source DB:  PubMed          Journal:  Am J Hematol        ISSN: 0361-8609            Impact factor:   10.047


  41 in total

1.  In vitro and in vivo infection of neural cells by a recombinant measles virus expressing enhanced green fluorescent protein.

Authors:  W P Duprex; S McQuaid; B Roscic-Mrkic; R Cattaneo; C McCallister; B K Rima
Journal:  J Virol       Date:  2000-09       Impact factor: 5.103

2.  Oncolytic virotherapy for multiple myeloma using a tumour-specific double-deleted vaccinia virus.

Authors:  H Deng; N Tang; A E Stief; N Mehta; E Baig; R Head; G Sleep; X-Z Yang; C McKerlie; S Trudel; A K Stewart; J A McCart
Journal:  Leukemia       Date:  2008-05-29       Impact factor: 11.528

3.  Optimizing preparation of normal dendritic cells and bcr-abl+ mature dendritic cells derived from immunomagnetically purified CD14+ cells.

Authors:  A B Dietz; P A Bulur; M R Erickson; P J Wettstein; M R Litzow; W A Wyatt; G W Dewald; A Tefferi; V S Pankratz; S Vuk-Pavlović
Journal:  J Hematother Stem Cell Res       Date:  2000-02

Review 4.  Oncolytic virotherapy for multiple myeloma.

Authors:  Amaalia E Stief; J Andrea McCart
Journal:  Expert Opin Biol Ther       Date:  2008-04       Impact factor: 4.388

Review 5.  Cell carriers to deliver oncolytic viruses to sites of myeloma tumor growth.

Authors:  A Munguia; T Ota; T Miest; S J Russell
Journal:  Gene Ther       Date:  2008-03-20       Impact factor: 5.250

Review 6.  Integrating the biological characteristics of oncolytic viruses and immune cells can optimize therapeutic benefits of cell-based delivery.

Authors:  S H Thorne; C H Contag
Journal:  Gene Ther       Date:  2008-03-20       Impact factor: 5.250

7.  Oncolytic Coxsackievirus A21 as a novel therapy for multiple myeloma.

Authors:  Gough G Au; Lisa F Lincz; Arno Enno; Darren R Shafren
Journal:  Br J Haematol       Date:  2007-04       Impact factor: 6.998

8.  Vasculogenic mimicry by bone marrow macrophages in patients with multiple myeloma.

Authors:  C Scavelli; B Nico; T Cirulli; R Ria; G Di Pietro; D Mangieri; A Bacigalupo; G Mangialardi; A M L Coluccia; T Caravita; S Molica; D Ribatti; F Dammacco; A Vacca
Journal:  Oncogene       Date:  2007-07-30       Impact factor: 9.867

9.  Preclinical pharmacology and toxicology of intravenous MV-NIS, an oncolytic measles virus administered with or without cyclophosphamide.

Authors:  R M Myers; S M Greiner; M E Harvey; G Griesmann; M J Kuffel; S A Buhrow; J M Reid; M Federspiel; M M Ames; D Dingli; K Schweikart; A Welch; A Dispenzieri; K-W Peng; S J Russell
Journal:  Clin Pharmacol Ther       Date:  2007-10-31       Impact factor: 6.875

Review 10.  Understanding multiple myeloma pathogenesis in the bone marrow to identify new therapeutic targets.

Authors:  Teru Hideshima; Constantine Mitsiades; Giovanni Tonon; Paul G Richardson; Kenneth C Anderson
Journal:  Nat Rev Cancer       Date:  2007-08       Impact factor: 60.716

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  32 in total

1.  Perfusion Pressure Is a Critical Determinant of the Intratumoral Extravasation of Oncolytic Viruses.

Authors:  Amber Miller; Rebecca Nace; Camilo Ayala-Breton C; Michael Steele; Kent Bailey; Kah Whye Peng; Stephen J Russell
Journal:  Mol Ther       Date:  2015-12-09       Impact factor: 11.454

2.  Myeloid neighborhood in myeloma: cancer's underbelly?

Authors:  Madhav V Dhodapkar
Journal:  Am J Hematol       Date:  2009-07       Impact factor: 10.047

3.  Tumoricidal Effects of Macrophage-Activating Immunotherapy in a Murine Model of Relapsed/Refractory Multiple Myeloma.

Authors:  Jeffrey Lee Jensen; Alexander Rakhmilevich; Erika Heninger; Aimee Teo Broman; Chelsea Hope; Funita Phan; Shigeki Miyamoto; Ioanna Maroulakou; Natalie Callander; Peiman Hematti; Marta Chesi; P Leif Bergsagel; Paul Sondel; Fotis Asimakopoulos
Journal:  Cancer Immunol Res       Date:  2015-05-04       Impact factor: 11.151

Review 4.  Macrophages in multiple myeloma: emerging concepts and therapeutic implications.

Authors:  Fotis Asimakopoulos; Jaehyup Kim; Ryan A Denu; Chelsea Hope; Jeffrey L Jensen; Samuel J Ollar; Ellen Hebron; Claire Flanagan; Natalie Callander; Peiman Hematti
Journal:  Leuk Lymphoma       Date:  2013-04-11

Review 5.  Attenuated oncolytic measles virus strains as cancer therapeutics.

Authors:  P Msaouel; I D Iankov; A Dispenzieri; E Galanis
Journal:  Curr Pharm Biotechnol       Date:  2012-07       Impact factor: 2.837

6.  Immunovirotherapy with vesicular stomatitis virus and PD-L1 blockade enhances therapeutic outcome in murine acute myeloid leukemia.

Authors:  Weiwei Shen; Mrinal M Patnaik; Autumn Ruiz; Stephen J Russell; Kah-Whye Peng
Journal:  Blood       Date:  2015-12-28       Impact factor: 22.113

7.  Mesenchymal stem cell carriers protect oncolytic measles viruses from antibody neutralization in an orthotopic ovarian cancer therapy model.

Authors:  Emily K Mader; Yoshihiro Maeyama; Yi Lin; Greg W Butler; Holly M Russell; Evanthia Galanis; Stephen J Russell; Allan B Dietz; Kah-Whye Peng
Journal:  Clin Cancer Res       Date:  2009-11-24       Impact factor: 12.531

Review 8.  Oncolytic measles virus strains as novel anticancer agents.

Authors:  Pavlos Msaouel; Mateusz Opyrchal; Evidio Domingo Musibay; Evanthia Galanis
Journal:  Expert Opin Biol Ther       Date:  2013-01-06       Impact factor: 4.388

9.  Systemically delivered measles virus-infected mesenchymal stem cells can evade host immunity to inhibit liver cancer growth.

Authors:  Hooi-Tin Ong; Mark J Federspiel; Chang M Guo; London Lucien Ooi; Stephen J Russell; Kah-Whye Peng; Kam M Hui
Journal:  J Hepatol       Date:  2013-07-16       Impact factor: 25.083

10.  Carrier Cells for Delivery of Oncolytic Measles Virus into Tumors: Determinants of Efficient Loading.

Authors:  Chun Xu; Mao Xia; Gang Meng; Chunyan Li; Aiqin Jiang; Jiwu Wei
Journal:  Virol Sin       Date:  2018-05-16       Impact factor: 4.327

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