Abstract
Optimally designed cancer vaccines should combine the best tumor antigens with the most effective immunotherapy agents and delivery strategies to achieve positive clinical results. The unique immunoglobulin (Ig) idiotype on the surface of each B-cell lymphoma represents an ideal tumor-specific antigen for use as a cancer vaccine. It has been theorized that effective cancer vaccines can be developed using the minimum essential subset of T cell and B cell epitopes that comprise the ‘immunome’, the universe of neoplasm-derived peptides that interface with B and T cells of the host immune system. Idiotypic antigenic determinants of a B-cell lymphoma lie within the hypervariable regions and mainly within the complementarity-determining regions (CDR)s 3. Thus, the CDR3s are considered a “hot spot” of particular interest for construction of subunit vaccines. DNA vaccines, whose safety and tolerability are substantiated in completed and ongoing clinical trials, have emerged as a novel lymphoma vaccine formulation for antigen-specific immunotherapy. The molecular precision tools offered by gene-based vaccines allow to explore the use of CDR3 sequence as an antilymphoma vaccine.
Keywords: cancer vaccines, DNA vaccines, immunotherapy, personalised medicine, preclinical models, targeted cancer therapies, tumor-specific antigens, chemotherapy, Tumor-associated-antigen
Current Gene Therapy
Title: Design and Pre-Clinical Development of Epitope-based DNA Vaccines Against B-Cell Lymphoma
Volume: 11 Issue: 5
Author(s): Sandra Iurescia, Daniela Fioretti, Vito Michele Fazio and Monica Rinaldi
Affiliation:
Keywords: cancer vaccines, DNA vaccines, immunotherapy, personalised medicine, preclinical models, targeted cancer therapies, tumor-specific antigens, chemotherapy, Tumor-associated-antigen
Abstract: Optimally designed cancer vaccines should combine the best tumor antigens with the most effective immunotherapy agents and delivery strategies to achieve positive clinical results. The unique immunoglobulin (Ig) idiotype on the surface of each B-cell lymphoma represents an ideal tumor-specific antigen for use as a cancer vaccine. It has been theorized that effective cancer vaccines can be developed using the minimum essential subset of T cell and B cell epitopes that comprise the ‘immunome’, the universe of neoplasm-derived peptides that interface with B and T cells of the host immune system. Idiotypic antigenic determinants of a B-cell lymphoma lie within the hypervariable regions and mainly within the complementarity-determining regions (CDR)s 3. Thus, the CDR3s are considered a “hot spot” of particular interest for construction of subunit vaccines. DNA vaccines, whose safety and tolerability are substantiated in completed and ongoing clinical trials, have emerged as a novel lymphoma vaccine formulation for antigen-specific immunotherapy. The molecular precision tools offered by gene-based vaccines allow to explore the use of CDR3 sequence as an antilymphoma vaccine.
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Cite this article as:
Iurescia Sandra, Fioretti Daniela, Michele Fazio Vito and Rinaldi Monica, Design and Pre-Clinical Development of Epitope-based DNA Vaccines Against B-Cell Lymphoma, Current Gene Therapy 2011; 11(5) . https://dx.doi.org/10.2174/156652311797415863
DOI https://dx.doi.org/10.2174/156652311797415863 |
Print ISSN 1566-5232 |
Publisher Name Bentham Science Publisher |
Online ISSN 1875-5631 |

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