In the development of cancer vaccines, various approaches are being explored, including peptide vaccines using tumor-associated antigens (TAAs), glycan-based vaccines, mRNA vaccines, dendritic cell vaccines, and self-adjuvanting vaccines [1–5]. In particular, mRNA vaccines are gaining momentum in the oncology field following the success of COVID-19 vaccines. However, challenges remain, such as immune evasion of cancer cells, low antigenicity, and immune tolerance. Traditional cancer vaccines targeting TAAs have shown limited clinical efficacy. Consequently, efforts to improve adjuvants (immune activators) and to utilize neoantigens (tumor-specific antigens) are attracting increasing attention.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Tumor-Associated Antigens and Self-Adjuvant Vaccines

  • Koichi Fukase

摘要

In the development of cancer vaccines, various approaches are being explored, including peptide vaccines using tumor-associated antigens (TAAs), glycan-based vaccines, mRNA vaccines, dendritic cell vaccines, and self-adjuvanting vaccines [1–5]. In particular, mRNA vaccines are gaining momentum in the oncology field following the success of COVID-19 vaccines. However, challenges remain, such as immune evasion of cancer cells, low antigenicity, and immune tolerance. Traditional cancer vaccines targeting TAAs have shown limited clinical efficacy. Consequently, efforts to improve adjuvants (immune activators) and to utilize neoantigens (tumor-specific antigens) are attracting increasing attention.