Research
In order to mitigate the effects of global climate change on the environment, we need a predictive understanding of the ecological interactions that drive biogeochemical processes. To that end, we study how plant and soil microbial communities mediate carbon cycling in a diverse array of terrestrial ecosystems .
The role of soil microbes in the stabilization and cycling of soil carbon
Soil is one of the most chemically complex substances on earth, and represents the largest terrestrial carbon pool. One of our major objectives is to understand how microbial physiology and community structure influence the formation and turnover of soil C along broad environmental gradients.
Tropical forest responses to climate change
Tropical forests exchange more carbon with the atmosphere than any other biome, and are experiencing rapid changes in climate and land use. We use a combination of observational and manipulative experiments to understand how the composition and function of these forests will change under future climates.
Plant-mycorrhizal interactions
Mycorrhizal fungi are ubiquitous root symbionts that play a major role in plant nutrient acquisition and influence the cycling of soil carbon. Our goal is to understand how soil nutrient stoichiometry influences the ecological relationship between plant and fungus in both arbuscular and ectomycorrhizal systems.
People
Bonnie Waring
Assistant Professor, Department of Biology, Utah State University
Jessica Murray
Graduate Student
Field and lab photos
