Project
Understanding the importance of animal hosts in disease ecology
As an animal ecologist I work in disease ecology. I study the impact of animal hosts species (presence/absence, densities, movements, community composition) on the spatial and temporal patterns in disease outbreaks or pathogen prevalence.
Description
The majority of my research projects has a spatial component, aimed at understanding the variation in infection risk from differences in the distribution and movements of the hosts species. The spatial distribution of animals are under the influence of various factors (e.g., resource availability, disease risk, predation risk) that operate at different spatial and temporal scales. These projects are often carried out on rodents or large mammalian herbivores, although I am also involved in bird and bat projects. For instance, the spatial patterns in avian influenza is highly correlated with the spatial location of flyways of migratory birds, with the presence of large wetlands, and with the community composition of these waterbirds. Hence, in order to understand these spatial patterns it is important to understand the distribution and movements of the carriers of the diseases, the hosts species.
A special research topic is the relationship between species richness and disease risk, as an increasing species richness is sometimes related to decrease or an increase in the probability of disease outbreaks, through a so-called dilution or amplification effects.
Disease ecology is therefore an exciting research field for ecologists that combines species interactions, the impact of human and environmental factors, and spatial analyses. As an animal ecologist I therefore collaborate with, e.g. virologists, entomologists, and veterinary and human health experts in various disease ecological studies.
Publications
- Köhler, Clara; Sprong, Hein; Fonville, Manoj; Esser, Helen; de Boer, Willem; van der Spek, Vincent; Spitzen-van der Sluijs, Annemarieke (2023) Sand lizards (Lacerta agilis) decrease nymphal infection prevalence for tick-borne pathogens Borrelia burgdorferi sensu lato and Anaplasma phagocytophilumin a coastal dune ecosystem. Journal of Applied Ecology 60:1115–1126.
- Yin, S. ; Yanjie Xu; Mingshuai Xu; Mart C.M. de Jong; Mees R.S. Huisman; Andrea Contina; Herbert H. T. Prins; Zheng Y. X. Huang; Willem F. de Boer (2022) Habitat loss exacerbates pathogen spread: An Agent-based model of avian influenza infection in migratory waterfowl. PLoS Comput Biol 18(8): e1009577. https://doi.org/10.1371/journal.pcbi.1009577
- Schreuder, J., Henrik J. de Knegt, Francisca C. Velkers, Armin R.W. Elbers, Julia Stahl, Roy Slaterus, J. Arjan Stegeman, Willem F. de Boer (2022) Wild bird densities and landscape variables predict spatial patterns in HPAI outbreak risk across the Netherlands. Pathogens 11.5: 549.
- Wang, Y.X., Matson, K.D., Santini, L., Visconti, P., Hilbers, J.P., Huijbregts, M.A., Xu, Y., Prins, H.H., Allen, T., Huang, Z.Y. and de Boer, W.F., 2021. Mammal assemblage composition predicts global patterns in emerging infectious disease risk. Global change biology, 27(20), pp.4995-5007.
- Leeuwis, T, M. Peel, WF de Boer (2018) Complexity in African savannas: direct, indirect, and cascading effects of animal densities, rainfall and vegetation availability. PLoS One 13(5): e0197149