Literature DB >> 19723653

The prioritization of cancer antigens: a national cancer institute pilot project for the acceleration of translational research.

Martin A Cheever1, James P Allison, Andrea S Ferris, Olivera J Finn, Benjamin M Hastings, Toby T Hecht, Ira Mellman, Sheila A Prindiville, Jaye L Viner, Louis M Weiner, Lynn M Matrisian.   

Abstract

The purpose of the National Cancer Institute pilot project to prioritize cancer antigens was to develop a well-vetted, priority-ranked list of cancer vaccine target antigens based on predefined and preweighted objective criteria. An additional aim was for the National Cancer Institute to test a new approach for prioritizing translational research opportunities based on an analytic hierarchy process for dealing with complex decisions. Antigen prioritization involved developing a list of "ideal" cancer antigen criteria/characteristics, assigning relative weights to those criteria using pairwise comparisons, selecting 75 representative antigens for comparison and ranking, assembling information on the predefined criteria for the selected antigens, and ranking the antigens based on the predefined, preweighted criteria. Using the pairwise approach, the result of criteria weighting, in descending order, was as follows: (a) therapeutic function, (b) immunogenicity, (c) role of the antigen in oncogenicity, (d) specificity, (e) expression level and percent of antigen-positive cells, (f) stem cell expression, (g) number of patients with antigen-positive cancers, (h) number of antigenic epitopes, and (i) cellular location of antigen expression. None of the 75 antigens had all of the characteristics of the ideal cancer antigen. However, 46 were immunogenic in clinical trials and 20 of them had suggestive clinical efficacy in the "therapeutic function" category. These findings reflect the current status of the cancer vaccine field, highlight the possibility that additional organized efforts and funding would accelerate the development of therapeutically effective cancer vaccines, and accentuate the need for prioritization.

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Year:  2009        PMID: 19723653      PMCID: PMC5779623          DOI: 10.1158/1078-0432.CCR-09-0737

Source DB:  PubMed          Journal:  Clin Cancer Res        ISSN: 1078-0432            Impact factor:   12.531


  77 in total

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2.  Tumor immunotherapy targeting fibroblast activation protein, a product expressed in tumor-associated fibroblasts.

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3.  A new dendritic cell vaccine generated with interleukin-3 and interferon-beta induces CD8+ T cell responses against NA17-A2 tumor peptide in melanoma patients.

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Journal:  Cancer Immunol Immunother       Date:  2005-08-20       Impact factor: 6.968

Review 4.  Technology insight: Applications of emerging immunotherapeutic strategies for Epstein-Barr virus-associated malignancies.

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Journal:  Nat Clin Pract Oncol       Date:  2005-03

5.  Peptides mimicking GD2 ganglioside elicit cellular, humoral and tumor-protective immune responses in mice.

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Journal:  Cancer Immunol Immunother       Date:  2008-07       Impact factor: 6.968

6.  Inducible expression of a prostate cancer-testis antigen, SSX-2, following treatment with a DNA methylation inhibitor.

Authors:  Jason A Dubovsky; Douglas G McNeel
Journal:  Prostate       Date:  2007-12-01       Impact factor: 4.104

Review 7.  GSK's antigen-specific cancer immunotherapy programme: pilot results leading to Phase III clinical development.

Authors:  Vincent G Brichard; Diane Lejeune
Journal:  Vaccine       Date:  2007-09-27       Impact factor: 3.641

8.  Identification of cytotoxic T-lymphocyte epitope(s) and its agonist epitope(s) of a novel target for vaccine therapy (PAGE4).

Authors:  Junko Yokokawa; Tapan K Bera; Claudia Palena; Vittore Cereda; Cinzia Remondo; James L Gulley; Philip M Arlen; Ira Pastan; Jeffrey Schlom; Kwong Y Tsang
Journal:  Int J Cancer       Date:  2007-08-01       Impact factor: 7.396

9.  Cancer vaccines: an overview.

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Journal:  Cancer Immun       Date:  2008-03-12

10.  Identification and characterization of T-cell epitopes deduced from RGS5, a novel broadly expressed tumor antigen.

Authors:  Cristina N Boss; Frank Grünebach; Katharina Brauer; Maik Häntschel; Valbona Mirakaj; Toni Weinschenk; Stefan Stevanovic; Hans-Georg Rammensee; Peter Brossart
Journal:  Clin Cancer Res       Date:  2007-06-01       Impact factor: 12.531

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  534 in total

1.  Rapid T cell-based identification of human tumor tissue antigens by automated two-dimensional protein fractionation.

Authors:  Philipp Beckhove; Rolf Warta; Britt Lemke; Diana Stoycheva; Frank Momburg; Martina Schnölzer; Uwe Warnken; Hubertus Schmitz-Winnenthal; Rezvan Ahmadi; Gerhard Dyckhoff; Mariana Bucur; Simone Jünger; Thomas Schueler; Volker Lennerz; Thomas Woelfel; Andreas Unterberg; Christel Herold-Mende
Journal:  J Clin Invest       Date:  2010-05-10       Impact factor: 14.808

2.  WT1 peptide vaccinations induce CD4 and CD8 T cell immune responses in patients with mesothelioma and non-small cell lung cancer.

Authors:  Lee M Krug; Tao Dao; Andrew B Brown; Peter Maslak; William Travis; Sara Bekele; Tatyana Korontsvit; Victoria Zakhaleva; Jedd Wolchok; Jianda Yuan; Hao Li; Leslie Tyson; David A Scheinberg
Journal:  Cancer Immunol Immunother       Date:  2010-06-08       Impact factor: 6.968

Review 3.  Re-adapting T cells for cancer therapy: from mouse models to clinical trials.

Authors:  Ingunn M Stromnes; Thomas M Schmitt; Aude G Chapuis; Sunil R Hingorani; Philip D Greenberg
Journal:  Immunol Rev       Date:  2014-01       Impact factor: 12.988

4.  Expression of Wilms' tumor gene (WT1) is associated with survival in malignant pleural mesothelioma.

Authors:  S Cedrés; M A Montero; E Zamora; A Martínez; P Martínez; L Fariñas; A Navarro; D Torrejon; A Gabaldon; S Ramon Y Cajal; E Felip
Journal:  Clin Transl Oncol       Date:  2013-12-10       Impact factor: 3.405

Review 5.  Hematopoietic stem cells for cancer immunotherapy.

Authors:  Eric Gschweng; Satiro De Oliveira; Donald B Kohn
Journal:  Immunol Rev       Date:  2014-01       Impact factor: 12.988

Review 6.  Design and development of therapies using chimeric antigen receptor-expressing T cells.

Authors:  Gianpietro Dotti; Stephen Gottschalk; Barbara Savoldo; Malcolm K Brenner
Journal:  Immunol Rev       Date:  2014-01       Impact factor: 12.988

7.  DNA Vaccines for Prostate Cancer.

Authors:  Douglas G McNeel; Jordan T Becker; Laura E Johnson; Brian M Olson
Journal:  Curr Cancer Ther Rev       Date:  2012-11-01

8.  Therapeutic bispecific T-cell engager antibody targeting the intracellular oncoprotein WT1.

Authors:  Tao Dao; Dmitry Pankov; Andrew Scott; Tatyana Korontsvit; Victoriya Zakhaleva; Yiyang Xu; Jingyi Xiang; Su Yan; Manuel Direito de Morais Guerreiro; Nicholas Veomett; Leonid Dubrovsky; Michael Curcio; Ekaterina Doubrovina; Vladimir Ponomarev; Cheng Liu; Richard J O'Reilly; David A Scheinberg
Journal:  Nat Biotechnol       Date:  2015-09-21       Impact factor: 54.908

Review 9.  Cancer vaccines: translation from mice to human clinical trials.

Authors:  Hoyoung Maeng; Masaki Terabe; Jay A Berzofsky
Journal:  Curr Opin Immunol       Date:  2018-03-16       Impact factor: 7.486

Review 10.  Mouse models in bone marrow transplantation and adoptive cellular therapy.

Authors:  Caroline Arber; Malcolm K Brenner; Pavan Reddy
Journal:  Semin Hematol       Date:  2013-06-11       Impact factor: 3.851

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