Ecosystems Dynamics Branch: interdisciplinary research for addressing complex natural resource issues across landscapes and time

Product Type: 

Fact Sheet

Year: 

2013

Author(s): 

Bowen, Z.H., C.P. Melcher, and J.T. Wilson

Suggested Citation: 

Bowen, Z.H., C.P. Melcher, and J.T. Wilson. 2013. Ecosystems Dynamics Branch: interdisciplinary research for addressing complex natural resource issues across landscapes and time. Fact Sheet 2013-3009. Reston, VA: U.S. Geological Survey. 4 p.

Capabilities

The Ecosystem Dynamics Branch of the Fort Collins Science Center offers an interdisciplinary team of talented and creative scientists with exper¬tise in biology, botany, ecology, geology, biogeochemistry, physical sciences, geographic information systems (GIS), and remote-sensing, for tackling complex questions about natural resources. As demand for natural resources increases, the issues facing natural resource managers, planners, policy mak¬ers, industry, and private landowners are increasing in spatial and temporal scope, often involving entire regions, multiple jurisdictions, and long time¬frames. Needs for addressing these issues include (1) a better understanding of biotic and abiotic ecosystem components and their complex interactions; (2) the ability to easily monitor, assess, and visualize the spatially complex movements of animals, plants, water, and elements across highly variable landscapes; and (3) the techniques for accurately predicting both immediate and long-term responses of system components to natural and human-caused change. The overall objectives of our research are to provide the knowledge, tools, and techniques needed by the U.S. Department of the Interior, state agencies, and other stakeholders in their endeavors to meet the demand for natural resources while conserving biodiversity and ecosystem services.

Ecosystem Dynamics scientists use field and laboratory research, data assimilation, and ecological modeling to understand ecosystem patterns, trends, and mechanistic processes. This informa¬tion is used to predict the outcomes of changes imposed on species, habitats, landscapes, and climate across spatiotemporal scales. The products we develop include conceptual models to illustrate system structure and processes; regional baseline and integrated assessments; predictive spatial and mathematical models; literature syntheses; and frameworks or protocols for improved ecosystem monitoring, adaptive management, and program evaluation. The descriptions below provide snapshots of our three research emphases, followed by descriptions of select current projects.

      

Zack Bowen
Zack BowenCynthia MelcherJuliette WilsonCameron AldridgeCraig AllenPat AndersonTimothy AssalJill BaronNatasha CarrStephen GermaineEd HallDaniel ManierTracy MaskRobert McDougalDoug OurenButch RoelleJoanne SaherSpencer SchellKate SchoeneckerJason TackGregory WannLinda Zeigenfuss