Emily Stanley

University of Wisconsin
218 Center for Limnology
680 North Park Street
Madison, WI 53706
(608) 263-2567

Research Projects

This Integrative Graduate Education and Research Training (IGERT) initiative supports the establishment of a broadly-based graduate training program that will equip students to combine the social, economic and biological sciences in the study of environmental problems presented by freshwater ecosystems.  Problem areas emphasized include studies of the economic value of environmental resources, the role of humans in the vulnerability of ecosystems to natural change, the impact of irreversible environmental changes, and the effect of ecosystem features on societal interactions.  The project is a joint effort of 20 faculty from the Departments of Agriculture and Applied Economics, Civil and Environmental Engineering, Forest Ecology and Management, Limnology, Rural Sociology, Soil Science and Zoology.  Educational opportunities center on three required IGERT seminar courses, one on selected topics related to current IGERT faculty research, one on relevant research methods, and one on team research during which student teams will test hypotheses generated from the topics and methods seminars.  In addition to its education and research initiatives, the program undertook a continuous self-evaluation effort led by a faculty member from the School of Education.  IGERT provides an opportunity for the development of new, well-focused multidisciplinary programs that bridge traditional organizational barriers, uniting faculty from several departments or institutions to establish a highly-interactive collaborative environment for both training and research.

Emerging research shows that hot spots for biological processing of elements such as nitrogen and phosphorus can be important in water bodies. We are exploring the importance of potential hot spots as well as cold spots for biological processing of these nutrients. The north temperate lakes (NTL) LTER has immediate access to diverse water bodies, including not only lakes but also abundant streams, rivers, and wetlands of various sizes and shapes. We are studying these habitats to answer questions related to ecosystem structure, functioning, hydrology, and biogeochemistry, with an emphasis on habitats ...

Lakes can influence stream chemistry across different spatial and temporal scales. The goal of this study is to understand the factors that influence how far downstream stream chemistry is influenced by upstream lakes. We will be collecting chemical and physical data in streams at varying distances downstream of lakes to address this question.

We live in a rapidly changing environment, yet scientists’ understanding of the ecological consequences of wholesale changes in climate and land use is in its infancy. So too is the incorporation of this knowledge into environmental management and policy, which is so critical because both climate and land use strongly affect ecosystems and the services that they provide to society.  The main goal of this research is to develop tools to measure and understand how climate and land use by themselves and as interacting factors affect lake ecosystems  across scales of time and space (cross-scale interactions), even as these factors are themselves, changing. A cross-scale interaction occurs when a factor at one scale, such as agricultural land use around a lake, interacts with a factor at another scale, such as the climate of the region the lake is located within. Such interactions can lead to situations where lakes in different climatic zones respond differently to agricultural land use in their watersheds, all else being equal.