
Genetic engineering now enables the design of live viral vaccines that are potentially transmissible. Some designs merely modify a single viral genome to improve on the age-old method of attenuation whereas other designs create chimeras of viral genomes. Transmission has the benefit of increasing herd immunity above that achieved by direct vaccination alone but also increases the opportunity for vaccine evolution, which typically undermines vaccine utility. Different designs have different epidemiological consequences but also experience different evolution. Approaches that integrate vaccine engineering with an understanding of evolution and epidemiology will reap the greatest benefit from vaccine transmission.
Immunity, Herd, Vaccines, Synthetic, Epidemiology, Vaccination, Viral Vaccines, Cross Reactions, Models, Theoretical, Vaccines, Attenuated, Article, Communicable Disease Control, Viruses, Humans, Disease Eradication, Genetic Engineering
Immunity, Herd, Vaccines, Synthetic, Epidemiology, Vaccination, Viral Vaccines, Cross Reactions, Models, Theoretical, Vaccines, Attenuated, Article, Communicable Disease Control, Viruses, Humans, Disease Eradication, Genetic Engineering
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