Yao Lan, Chemaitelly Hiam, Goldman Emanuel, Gudina Esayas Kebede, Khalil Asma, Ahmed Rahaman, James Ayorinde Babatunde, Roca Anna, Fallah Mosoka Papa, Macnab Andrew, Cho William C, Eikelboom John, Qamar Farah Naz, Kremsner Peter, Oliu-Barton Miquel, Sisa Ivan, Tadesse Birkneh Tilahun, Marks Florian, Wang Lishi, Kim Jerome H, Meng Xia, Wang Yongjun, Fly Alyce D, Wang Cong-Yi, Day Sara W, Howard Scott C, Graff J Carolyn, Maida Marcello, Ray Kunal, Franco-Paredes Carlos, Mashe Tapfumanei, Ngongo Ngashi, Kaseya Jean, Ndembi Nicaise, Hu Yu, Bottazzi Maria Elena, Hotez Peter J, Ishii Ken J, Wang Gang, Sun Dianjun, Aleya Lotfi, Gu Weikuan
Department of Nutrition and Health Science, College of Health, Ball State University, Muncie, IN 47306, USA.
Department of Orthopedic Surgery and BME-Campbell Clinic, University of Tennessee Health Science Centre, Memphis, TN 38163, USA.
EClinicalMedicine. 2023 Sep 26;64:102222. doi: 10.1016/j.eclinm.2023.102222. eCollection 2023 Oct.
In counteracting highly infectious and disruptive respiratory diseases such as COVID-19, vaccination remains the primary and safest way to prevent disease, reduce the severity of illness, and save lives. Unfortunately, vaccination is often not the first intervention deployed for a new pandemic, as it takes time to develop and test vaccines, and confirmation of safety requires a period of observation after vaccination to detect potential late-onset vaccine-associated adverse events. In the meantime, nonpharmacologic public health interventions such as mask-wearing and social distancing can provide some degree of protection. As climate change, with its environmental impacts on pathogen evolution and international mobility continue to rise, highly infectious respiratory diseases will likely emerge more frequently and their impact is expected to be substantial. How quickly a safe and efficacious vaccine can be deployed against rising infectious respiratory diseases may be the most important challenge that humanity will face in the near future. While some organizations are engaged in addressing the World Health Organization's "blueprint for priority diseases", the lack of worldwide preparedness, and the uncertainty around universal vaccine availability, remain major concerns. We therefore propose the establishment of an international candidate vaccine pool repository for potential respiratory diseases, supported by multiple stakeholders and countries that contribute facilities, technologies, and other medical and financial resources. The types and categories of candidate vaccines can be determined based on information from previous pandemics and epidemics. Each participant country or region can focus on developing one or a few vaccine types or categories, together covering most if not all possible potential infectious diseases. The safety of these vaccines can be tested using animal models. Information for effective candidates that can be potentially applied to humans will then be shared across all participants. When a new pandemic arises, these pre-selected and tested vaccines can be quickly tested in RCTs for human populations.
在应对如新冠病毒病等具有高度传染性和破坏性的呼吸道疾病时,接种疫苗仍然是预防疾病、减轻疾病严重程度和挽救生命的首要且最安全的方法。不幸的是,疫苗接种往往并非针对新出现的大流行所采取的首要干预措施,因为研发和测试疫苗需要时间,而且确认安全性需要在接种疫苗后经过一段时间的观察,以检测潜在的迟发性疫苗相关不良事件。与此同时,诸如佩戴口罩和保持社交距离等非药物公共卫生干预措施可以提供一定程度的保护。随着气候变化及其对病原体进化和国际流动性的环境影响持续加剧,高传染性呼吸道疾病可能会更频繁地出现,预计其影响将是巨大的。针对不断增加的传染性呼吸道疾病,多快能够部署安全有效的疫苗可能是人类在不久的将来面临的最重要挑战。虽然一些组织正在致力于落实世界卫生组织的“重点疾病蓝图”,但全球准备不足以及通用疫苗供应的不确定性仍然是主要担忧。因此,我们提议建立一个由多个利益攸关方以及提供设施、技术和其他医疗及财政资源的国家支持的针对潜在呼吸道疾病的国际候选疫苗库。候选疫苗的类型和类别可以根据以往大流行和疫情的信息来确定。每个参与国或地区可以专注于研发一种或几种疫苗类型或类别,共同涵盖大多数(即便不是全部)可能的潜在传染病。这些疫苗的安全性可以通过动物模型进行测试。然后,可能适用于人类的有效候选疫苗的信息将在所有参与方之间共享。当新的大流行出现时,这些预先选定并经过测试的疫苗可以迅速在人体随机对照试验中进行测试。