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Paramyxoviruses for Tumor-targeted Immunomodulation: Design and Evaluation Ex Vivo
Published on: January 7, 2019
[Current status and prospects of cancer vaccine therapy]
Takashi Mine1, Yasuhiro Terazaki, Kyogo Itoh
1Krume University School of Medicine.
Abstract:
Cancer vaccine is proceeding to a promising therapy against cancer since 1990 when expression cloning method of tumor associated antigens was reported. Clinical trials showed immunological therapies contribute to prolonged survival in patients with cancers, such as prostate cancer and melanoma, so that FDA approved a dendritic cell vaccine in USA, and peptide vaccines are developing energetically in recent years in Japan. Peptide vaccines have advantages immunologically and economically as a cancer vaccine spreads all over the world, because CTL epitope peptides of tumor associate antigen has a highly antigen-specificity, and can be synthesized uniformly in large quantities for easy handing agents. However it has weak points, such as limited effectiveness in clinical responses due to cancer cells escaped from cancer immunity and possibility of unfavorable immune responses. For development of cancer peptide vaccines, biomarkers related with clinical effects and methods to measure favorable and unfavorable immune responses are necessary about vaccine alone and combination with multidisciplinary modalities in large scale phase III studies.
Insights
Cancer peptide vaccines offer a promising, cost-effective cancer therapy. Further research is needed to identify biomarkers for clinical effectiveness and monitor immune responses for improved cancer treatment outcomes.
Area of Science:
- Oncology and Immunology
- Cancer Vaccine Development
Context:
- Cancer vaccines have evolved significantly since the 1990s, with approved dendritic cell vaccines and developing peptide vaccines.
- Peptide vaccines are advantageous due to their antigen-specificity, scalability, and economic viability for global cancer treatment.
- Challenges remain, including limited clinical response and potential for adverse immune reactions.
Purpose:
- To highlight the potential of cancer peptide vaccines.
- To identify the need for biomarkers to predict clinical efficacy.
- To emphasize the necessity of methods for monitoring immune responses in large-scale clinical trials.
Summary:
- Cancer peptide vaccines, derived from tumor-associated antigens, show promise for prolonged survival in patients with cancers like melanoma and prostate cancer.
- Their high antigen-specificity and mass production capabilities make them economically viable, but challenges like immune escape and unfavorable responses persist.
- Development requires biomarkers for clinical effects and methods to assess immune responses for vaccines used alone or in combination therapies.
Impact:
- Advances in cancer vaccine research can lead to more effective and personalized cancer treatments.
- Identifying reliable biomarkers will improve patient selection and treatment monitoring for cancer immunotherapies.
- Further development of cancer peptide vaccines could expand global access to advanced cancer care.
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