Cancer Sciences Division, University of Southampton School of Medicine, Southampton General Hospital, Southampton, UK.
Curr Opin Immunol. 2010 Apr;22(2):264-70. doi: 10.1016/j.coi.2010.01.019. Epub 2010 Feb 19.
Genetic technology allows construction of DNA vaccines encoding selected tumor antigens together with molecules to direct and amplify the desired effector pathways. Their enormous promise has been marred by a problem of scaling up to human subjects. This is now largely overcome by electroporation, which increases both antigen expression and the inflammatory milieu. While the principles of vaccine design can be developed in mouse models, the real operative test is in the clinic, using patients in temporary remission. Monitoring of induced immunity, although commonly limited to blood, is providing objective qualitative and quantitative data on T-cell and antibody responses. Prolongation of remission is the goal and an activated immune system should achieve this.
基因技术可以构建 DNA 疫苗,将选定的肿瘤抗原与指导和放大所需效应途径的分子结合在一起。它们的巨大前景因扩大到人体受试者的问题而受到影响。这一问题现在在很大程度上通过电穿孔得到解决,电穿孔增加了抗原表达和炎症环境。虽然疫苗设计的原则可以在小鼠模型中进行开发,但真正的操作测试是在临床中,使用处于临时缓解期的患者。尽管对诱导免疫的监测通常仅限于血液,但它正在提供关于 T 细胞和抗体反应的客观定性和定量数据。延长缓解期是目标,激活的免疫系统应该能够实现这一目标。