Priming anticancer active specific immunotherapy with dendritic cells.

Simone Mocellin

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PubMed · 15988908

Priming anticancer active specific immunotherapy with dendritic cells.

Simone Mocellin

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Abstract

Dendritic cells (DCs) probably represent the most powerful naturally occurring immunological adjuvant for anticancer vaccines. However, the initial enthusiasm for DC-based vaccines is being tempered by clinical results not meeting expectations. The partial failure of current vaccine formulations is explained by the extraordinary complexity of the immune system, which makes the task of exploiting the potential of such a biotherapeutic approach highly challenging. Clinical findings obtained in humans so far indicate that the immune system can be actively polarized against malignant cells by means of DC-based active specific immunotherapy, and that in some cases this is associated with tumor regression. This implies that under some unique circumstances, the naturally 'dormant' immune effectors can actually be employed as endogenous weapons against malignant cells. Only the thorough understanding of DC biology and tumor-host immune system interactions will allow researchers to reproduce, in a larger set of patients, the cellular/molecular conditions leading to an effective immune-mediated eradication of cancer.

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Animals Cancer Vaccines Clinical Trials as Topic Dendritic Cells Humans Immunotherapy, Active Neoplasms Journal Article Review

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Simone Mocellin. 2005. Priming anticancer active specific immunotherapy with dendritic cells.. https://pubmed.ncbi.nlm.nih.gov/15988908/

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