Oli Angus Nnamdi, Obialor Wilson Okechukwu, Ifeanyichukwu Martins Ositadimma, Odimegwu Damian Chukwu, Okoyeh Jude Nnaemeka, Emechebe George Ogonna, Adejumo Samson Adedeji, Ibeanu Gordon C
Department of Pharmaceutical Microbiology and Biotechnology, Faculty of Pharmaceutical Sciences, Nnamdi Azikiwe University, Awka, Nigeria.
Department of Immunology, College of Health Sciences, Faculty of Medicine, Nnamdi Azikiwe University, Anambra, Nigeria.
Immunotargets Ther. 2020 Feb 26;9:13-30. doi: 10.2147/ITT.S241064. eCollection 2020.
The use of vaccines have resulted in a remarkable improvement in global health. It has saved several lives, reduced treatment costs and raised the quality of animal and human lives. Current traditional vaccines came empirically with either vague or completely no knowledge of how they modulate our immune system. Even at the face of potential vaccine design advance, immune-related concerns (as seen with specific vulnerable populations, cases of emerging/re-emerging infectious disease, pathogens with complex lifecycle and antigenic variability, need for personalized vaccinations, and concerns for vaccines' immunological safety -specifically vaccine likelihood to trigger non-antigen-specific responses that may cause autoimmunity and vaccine allergy) are being raised. And these concerns have driven immunologists toward research for a better approach to vaccine design that will consider these challenges. Currently, immunoinformatics has paved the way for a better understanding of some infectious disease pathogenesis, diagnosis, immune system response and computational vaccinology. The importance of this immunoinformatics in the study of infectious diseases is diverse in terms of computational approaches used, but is united by common qualities related to host-pathogen relationship. Bioinformatics methods are also used to assign functions to uncharacterized genes which can be targeted as a candidate in vaccine design and can be a better approach toward the inclusion of women that are pregnant into vaccine trials and programs. The essence of this review is to give insight into the need to focus on novel computational, experimental and computation-driven experimental approaches for studying of host-pathogen interactions and thus making a case for its use in vaccine development.
疫苗的使用已使全球健康状况得到显著改善。它挽救了许多生命,降低了治疗成本,提高了动物和人类的生活质量。当前的传统疫苗是凭经验研发的,对其如何调节我们的免疫系统要么了解模糊,要么完全一无所知。即便面对潜在的疫苗设计进展,与免疫相关的问题(如特定弱势群体、新出现/再次出现的传染病病例、具有复杂生命周期和抗原变异性的病原体、个性化疫苗接种的需求,以及对疫苗免疫安全性的担忧——特别是疫苗引发可能导致自身免疫和疫苗过敏的非抗原特异性反应的可能性)也不断出现。这些担忧促使免疫学家寻求更好的疫苗设计方法,以应对这些挑战。目前,免疫信息学为更好地理解某些传染病的发病机制、诊断、免疫系统反应和计算疫苗学铺平了道路。免疫信息学在传染病研究中的重要性体现在所使用的计算方法方面多种多样,但都与宿主 - 病原体关系的共同特性相关联。生物信息学方法还用于为未表征的基因赋予功能,这些基因可作为疫苗设计的候选靶点,并且可能是将孕妇纳入疫苗试验和项目的更好方法。本综述的核心是深入探讨专注于研究宿主 - 病原体相互作用的新型计算、实验和计算驱动实验方法的必要性,从而论证其在疫苗开发中的应用。