Department of Pathology and Laboratory Medicine and Center for Cellular Immunotherapies, Perelman School of Medicine, University of Pennsylvania, Philadelphia, PA, 19104, USA.
Department of Basic and Applied Sciences, School of Dental Medicine, University of Pennsylvania, Philadelphia, PA, 19104, USA.
Mol Biotechnol. 2022 Nov;64(11):1177-1197. doi: 10.1007/s12033-022-00499-9. Epub 2022 Apr 29.
Malaria is one of the severe infectious diseases that has victimized about half a civilization billion people each year worldwide. The application of long-lasting insecticides is the main strategy to control malaria; however, a surge in antimalarial drug development is also taking a leading role to break off the infections. Although, recurring drug resistance can compromise the efficiency of both conventional and novel antimalarial medicines. The eradication of malaria is significantly contingent on discovering novel potent agents that are low cost and easy to administer. In this context, plant metabolites inhibit malaria infection progression and might potentially be utilized as an alternative treatment for malaria, such as artemisinin. Advances in genetic engineering technology, especially the advent of molecular farming, have made plants more versatile in producing protein drugs (PDs) to treat infectious diseases, including malaria. These recent developments in genetic modifications have enabled the production of native pharmaceutically active compounds and the accumulation of diverse heterologous proteins such as human antibodies, booster vaccines, and many PDs to treat infectious diseases and genetic disorders. This review will discuss the pivotal role of a plant-based production system that expresses natural antimalarial agents or host protein drugs to cure malaria infections. The potential of these natural and induced compounds will support modern healthcare systems in treating malaria infections, especially in developing countries to mitigate human fatalities.
疟疾是一种严重的传染病,每年在全球范围内导致约 5 亿人感染。长效杀虫剂的应用是控制疟疾的主要策略;然而,抗疟药物开发的激增也在发挥主导作用,以阻止感染。尽管如此,抗药性的反复出现可能会降低传统和新型抗疟药物的效果。疟疾的消除在很大程度上取决于发现新的有效药物,这些药物成本低且易于管理。在这种情况下,植物代谢物可以抑制疟疾感染的进展,并且可能作为疟疾的替代治疗方法,例如青蒿素。遗传工程技术的进步,特别是分子农业的出现,使植物在生产用于治疗传染病(包括疟疾)的蛋白质药物(PDs)方面更具多功能性。这些遗传修饰的最新进展使得能够生产天然的、具有药用活性的化合物和积累不同的异源蛋白质,如人抗体、增强疫苗和许多用于治疗传染病和遗传疾病的 PDs。本文将讨论基于植物的生产系统在表达天然抗疟剂或宿主蛋白药物以治疗疟疾感染方面的关键作用。这些天然和诱导化合物的潜力将支持现代医疗保健系统治疗疟疾感染,特别是在发展中国家,以减轻人类的死亡率。