Nakayuki Honma
Genzyme
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Publication
Featured researches published by Nakayuki Honma.
Clinical Cancer Research | 2008
Cecile Rouleau; Maritza Curiel; William Weber; Robert Smale; Leslie Kurtzberg; James Mascarello; Carol Berger; Gina Wallar; Rebecca G. Bagley; Nakayuki Honma; Kazumasa Hasegawa; Isao Ishida; Shiro Kataoka; Beth L. Thurberg; Khodadad Mehraein; Bruce Horten; Glenn Miller; Beverly A. Teicher
Purpose: Endosialin/CD248/tumor endothelial marker 1 is expressed in stromal cells, endothelial cells, and pericytes in various tumors; however, few studies have focused on expression in malignant cells. Experimental Design: We studied expression of endosialin in clinical specimens, cell culture, and animal models and designed an anti-endosialin therapeutic prototype. Results: Fifty human tumor cell lines and 6 normal cell types in culture were assayed by reverse transcription-PCR and/or flow cytometry for endosialin. Cell surface protein was found on 7 sarcoma lines, 1 neuroblastoma, and 4 normal cell types in culture. A fully human anti-endosialin antibody bound to human A-673 Ewings sarcoma cells and SK-N-AS neuroblastoma cells but not HT-1080 cells. Exposure of cells to an anti-human IgG conjugated to saporin resulted in growth inhibition only of endosialin-expressing cells. Endosialin expression was assessed by immunohistochemistry in 250 clinical specimens of human cancer including 20 cancer subtypes. Endosialin is frequently found in human cancers. Endosialin expression is mainly a perivascular feature in carcinomas, with some expression in stromal cells. In sarcomas, endosialin is expressed by malignant cells, perivascular cells, and stromal cells. Development and characterization of experimental models for studying endosialin biology in sarcomas and evaluating anti-endosialin therapies is presented. Conclusions: Findings suggest that an anti-endosialin immunotoxin might be a promising therapeutic approach for endosialin-positive neoplasia, especially synovial sarcoma, fibrosarcoma, malignant fibrous histiocytoma, liposarcoma, and osteosarcoma. Thus, a diagnostic/therapeutic targeted therapeutic approach to treatment of endosialin-expressing tumors may be possible.
Microvascular Research | 2008
Rebecca G. Bagley; Nakayuki Honma; William Weber; Paula Boutin; Cecile Rouleau; Srinivas Shankara; Shiro Kataoka; Isao Ishida; Bruce L. Roberts; Beverly A. Teicher
The formation of functional, mature blood vessels depends on the interaction between endothelial cells and pericytes. Commonality exists in the processes involved in vasculature development between tissues whether healthy or diseased. Endosialin/TEM 1 is a cell membrane protein that is expressed in blood vessels during embryogenesis and tumorigenesis but not in normal mature vessels. Antibodies developed to human endosialin were used to investigate endosialin expression and function in human prenatal brain pericytes and pericytes residing in tumors. Anti-endosialin was capable of preventing pericyte tube formation in culture and inhibited migration. Brain pericytes in culture had higher levels of endosialin/TEM 1 than TEMs-2, -3, -4, -5, -7, and -8. Immunocytochemistry revealed that endosialin was present in the cytoplasmic body and in the elongated extensions essential to pericyte function. Transgenic mice engineered to express human endosialin bred on an immunocompromised background allowed the growth of human tumor xenografts. In human colon carcinoma Colo205 and HT29 xenografts grown in human endosialin-transgenic mice, endosialin expression was largely confined to NG2-expressing perivascular cells and not CD31-positive endothelial cells. Similar methods applied to human ovarian and colon tumors confirmed endosialin expression by pericytes. The data indicate that endosialin is strongly expressed by pericytes during periods of active angiogenesis during embryonic and tumor development. Anti-endosialin antibodies may have value in identifying vasculature in malignant tissues. With the appropriate agent, targeting endosialin may interfere with blood vessel growth during tumor development.
Molecular Cancer Therapeutics | 2008
Rebecca G. Bagley; Cecile Rouleau; Thia St. Martin; Paula Boutin; William Weber; Melanie Ruzek; Nakayuki Honma; Mariana Nacht; Srinivas Shankara; Shiro Kataoka; Isao Ishida; Bruce L. Roberts; Beverly A. Teicher
Angiogenesis occurs during normal physiologic processes as well as under pathologic conditions such as tumor growth. Serial analysis of gene expression profiling revealed genes [tumor endothelial markers (TEM)] that are overexpressed in tumor endothelial cells compared with normal adult endothelial cells. Because blood vessel development of malignant tumors under certain conditions may include endothelial precursor cells (EPC) recruited from bone marrow, we investigated TEM expression in EPC. The expression of TEM1 or endosialin (CD248) and other TEM has been discovered in a population of vascular endothelial growth factor receptor 2+/CD31+/CD45−/VE-cadherin+ EPC derived from human CD133+/CD34+ cells. EPC share some properties with fully differentiated endothelial cells from normal tissue, yet reverse transcription-PCR and flow cytometry reveal that EPC express higher levels of endosialin at the molecular and protein levels. The elevated expression of endosialin in EPC versus mature endothelial cells suggests that endosialin is involved in the earlier stages of tumor angiogenesis. Anti-endosialin antibodies inhibited EPC migration and tube formation in vitro. In vivo, immunohistochemistry indicated that human EPC continued to express endosialin protein in a Matrigel plug angiogenesis assay established in nude mice. Anti-endosialin antibodies delivered systemically at 25 mg/kg were also able to inhibit circulating murine EPC in nude mice bearing s.c. SKNAS tumors. EPC and bone marrow–derived cells have been shown previously to incorporate into malignant blood vessels in some instances, yet they remain controversial in the field. The data presented here on endothelial genes that are up-regulated in tumor vasculature and in EPC support the hypothesis that the angiogenesis process in cancer can involve EPC. [Mol Cancer Ther 2008;7(8):2536–46]
International Journal of Oncology | 2009
Rebecca G. Bagley; William Weber; Cecile Rouleau; Min Yao; Nakayuki Honma; Shiro Kataoka; Isao Ishida; Bruce L. Roberts; Beverly A. Teicher
Archive | 2005
Beverly A. Teicher; Bruce L. Roberts; Shiro Kataoka; Tomoyuki Tahara; Nakayuki Honma
Archive | 2004
Beverly A. Teicher; Bruce L. Roberts; Shiro Kataoka; Tomoyuki Tahara; Nakayuki Honma
Archive | 2005
Beverly A. Teicher; Bruce L. Roberts; Shiro Kataoka; Tomoyuki Tahara; Nakayuki Honma
Archive | 2010
Nakayuki Honma; 本間央之; Akinori Mitsui; 三井秋徳; Isao Ishida; 石田功
Molecular Cancer Therapeutics | 2007
Cecile Rouleau; Genzyme Analytical Services; William Weber; Leslie Kurtzberg; Nakayuki Honma; Shiro Kataoka; Isao Ishida; Khodadad Mehraein; Bruce Horten; Beverly A. Teicher
Archive | 2005
Beverly A. Teicher; Bruce L. Roberts; Shiro Kataoka; Tomoyuki Tahara; Nakayuki Honma