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Granular spatial data and models of human behaviour are currently lacking for schistosomiasis. We collected 10 days of wearable GPS logger data from 452 individuals in rural Uganda to model water contact as a proxy indicator of usage at 69 georeferenced open water sites and 32 public taps/boreholes. Among participants, 63.9% and 33.6% visited ≥1 water sites and taps/boreholes, respectively. Exponential spatial decay models accurately predicted site-specific open water contact (auROC 0.87) and tap/borehole usage (0.92). There was no evidence of tap/borehole usage influencing open water contact. Incorporating mobility terciles did not improve simple spatial decay models. Integrating spatial decay-based estimates of open water site usage into an individual-based transmission model produced realistic estimates of one-year Schistosoma mansoni reinfection, and provided a ranking of water sites contributing to transmission. Our spatial decay models offer scalable tools for focal interventions for schistosomiasis.

More information

Type

Journal article

Publisher

Springer Nature

Publication Date

2026-03-30T00:00:00+00:00

Keywords

GPS, wearable, schistosomiasis, WASH, Schistosoma mansoni, focal, mobility, water contact, spatial, waterborne, transmission