Sinani Genada, Şenel Sevda
Faculty of Pharmacy, Department of Pharmaceutical Technology, Altinbas University, Istanbul, Türkiye.
Faculty of Pharmacy, Department of Pharmaceutical Technology, Hacettepe University, Ankara, Türkiye.
Drug Deliv. 2025 Dec;32(1):2517137. doi: 10.1080/10717544.2025.2517137. Epub 2025 Jun 19.
Use of highly purified antigens to improve vaccine safety has led to reduced immunogenicity and efficacy, resulting in the need for adjuvants to increase and/or modulate the immunogenicity of the vaccine. Despite the need for potent and safe vaccine adjuvants, currently, there are still very few adjuvants in licensed human vaccines. Advances in immunology and molecular biology, especially in the last decade, have allowed researchers to understand better how the adjuvants work and enhance immune responses. While aluminum salts are still the most widely used adjuvants, research has shifted toward the rational design of adjuvant systems containing immunostimulatory molecules. Application of systems biology, which is based on high-throughput technologies using mathematical and computational modeling, has provided a deeper understanding of the biological events elicited by vaccination as well as the influence of other factors such as sex, age, microbiota, genetics and metabolism on the immune response. By this means, it became possible to tailor potential vaccine adjuvants more precisely for a successful vaccine with enhanced efficacy, safety and protection. In this review, after describing the mechanism of action of the adjuvants, current adjuvants in licensed vaccines, as well as those under clinical development will be mentioned in detail. Finally, new approaches in vaccine adjuvant development using systems biology and artificial intelligence will be reviewed, and future directions in vaccine research in regard to efficacy, safety and quality aspects will be discussed.
使用高度纯化的抗原来提高疫苗安全性导致免疫原性和效力降低,从而需要佐剂来增强和/或调节疫苗的免疫原性。尽管需要高效且安全的疫苗佐剂,但目前在已获许可的人类疫苗中佐剂仍然很少。免疫学和分子生物学的进展,尤其是在过去十年中,使研究人员能够更好地理解佐剂的作用方式并增强免疫反应。虽然铝盐仍然是使用最广泛的佐剂,但研究已转向合理设计包含免疫刺激分子的佐剂系统。基于使用数学和计算建模的高通量技术的系统生物学应用,已使人们对疫苗接种引发的生物学事件以及性别、年龄、微生物群、遗传学和代谢等其他因素对免疫反应的影响有了更深入的了解。通过这种方式,更精确地定制潜在的疫苗佐剂以获得具有更高效力、安全性和保护作用的成功疫苗成为可能。在本综述中,在描述了佐剂的作用机制之后,将详细提及已获许可疫苗中的当前佐剂以及正在进行临床开发的佐剂。最后,将综述使用系统生物学和人工智能进行疫苗佐剂开发的新方法,并讨论疫苗研究在效力、安全性和质量方面的未来方向。
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