Weaver, HayleeHawdon, John MHoberg, Eric P2015-12-081471-4922http://hdl.handle.net/1885/32600Soil-transmitted helminthiases (STHs) collectively cause the highest global burden of parasitic disease after malaria and are most prevalent in the poorest communities, especially in sub-Saharan Africa. Climate change is predicted to alter the physical environment through cumulative impacts of warming and extreme fluctuations in temperature and precipitation, with cascading effects on human health and wellbeing, food security and socioeconomic infrastructure. Understanding how the spectrum of climate change effects will influence STHs is therefore of critical importance to the control of the global burden of human parasitic disease. Realistic progress in the global control of STH in a changing climate requires a multidisciplinary approach that includes the sciences (e.g. thermal thresholds for parasite development and resilience) and social sciences (e.g. behavior and implementation of education and sanitation programs).Keywords: climate change; environmental change; helminthiasis; humidity; nematode; nematode life cycle stage; nonhuman; parasite control; parasite development; parasite incidence; parasite prevalence; parasite transmission; parasitism; review; socioeconomics; soil201010.1016/j.pt.2010.06.0092016-02-24