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Vaccination

Vaccines are arguably one of the most effective public health tools. By preventing disease, vaccines reduce the number of untimely deaths and provide considerable improvements to human health, especially that of children. Vaccines are a very diverse tool in public health, and are used in routine childhood immunisations, in elimination and eradication programmes, rapidly deployed in terms of outbreak response, and have a promising role to play in addressing the rising problem of antimicrobial resistance.

By influencing the dynamics of infectious diseases, vaccines also influence ecology and evolution of pathogens. Ideally, vaccines are sterilising, blocking transmission. When vaccines reduce disease but do not prevent infection (leaky vaccines), transmission still occurs which could drive the evolution of more virulent pathogens. Vaccines influence the ecology of pathogens and by shaping the immunity landscape can drive changes in predominant strains.

Vaccine modelling is central at CMMID and it inevitably overlaps with other themes, such as Elimination and eradication, Evolutionary dynamics, Health economics and Real-time outbreak control. At CMMID various groups model vaccines at different levels and over different time frames – from optimal deployment of vaccines in an outbreak setting, to long-term use and changing disease dynamics in elimination settings; from local vaccine effectiveness to global impact of vaccination; from potential impact of universal influenza vaccines on dynamics of influenza to use of vaccines in the context of AMR.

In general terms, mathematical modellers and health economists at CMMID conduct applied epidemiological and economic research to inform public health decisions about vaccination.

Research focus

Optimising vaccination strategies for control and elimination of immunizing infections Epidemiological and economic impact of vaccination programmes Global and country-specific decisions about vaccination Inform potential future investments and vaccine scale-up opportunities Impact of vaccines on antimicrobial resistance.

Modellers here work closely with a multidisciplinary group of researchers interested in vaccines, including epidemiologists, biostatisticians, social science researchers, computer scientists and clinicians.

Collaboration

Modellers here work closely with a multidisciplinary group of researchers interested in vaccines, including epidemiologists, biostatisticians, social science researchers, computer scientists and clinicians.

People

Petra Klepac (theme lead), Kaja Abbas (theme lead), Ifedayo Adetifa, Palwasha Anwari, Katherine AtkinsMegan AuzenbergsMarc BaguelinRosanna BarnardHikaru Bolt, Yung-Wai Chan, Andrew Clark, Madeleine ClarkRebecca ClarkSam  CliffordNicholas DaviesCharlie DiamondJohn EdmundsRosalind EggoAkira EndoStefan Flasche, Han FuNaomi Fuller​​​​​Sebastian Funk, Jada Hackman, Su Myat Han, David Hodgson, Albert Jan van Hoek, Mark Jit, Ojal john, Noriko Kitamura, Gwen Knight, Mihaly KoltaiFabienne Krauer, Jiayao LeiYang Liu, Caroline Mburu, Ciara McCarthy, Diana MendesChristinah MukandavireJames Munday, Tomoka Nakamura, Koh Jun Ong, Kathleen O'ReillyKiesha Prem, Simon Procter, George Qian, Matthew QuaifeBilly Quilty, Sophie Rhodes, Alexis RobertAlicia Rosello, Frank Sandmann, Alyssa Sbarra, Fiona Sun, Hira Tanvir, Deus Thindwa, Kevin van Zandvoort, Moritz Wagner, William Waites, Naomi WaterlowChathika WeerasuriyaRichard White

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