Kristen L Bouska, PhD
My research interests include ecological resilience of large rivers, large river community ecology, restoration ecology, and impacts and adaptation to climate and land-use change.
As a large river ecologist, I investigate applied research questions based on ecological theory to inform management and conservation of large floodplain-river ecosystems.
Professional Experience
2021 – present: Research Ecologist, U.S. Geological Survey, Upper Midwest Environmental Sciences Center
2015 - present: Ecologist, U.S. Geological Survey, Upper Midwest Environmental Science Center (La Crosse, WI)
2015 – 2021: Ecologist, U.S. Geological Survey, Upper Midwest Environmental Sciences Center
2014 - 2015: Post-doctoral Research Associate, University of Missouri (Columbia, MO)
2010 - 2014: Graduate Research Assistant, Southern Illinois University (Carbondale, IL)
2009 - 2010: GIS Specialist, South Dakota Game, Fish and Parks (Pierre, SD)
2009 - 2010: Biology Instructor, Lowe
Education and Certifications
PhD – Environmental Resources and Policy, Southern Illinois University, 2014
MS – Biology, Kansas State University, 2008
BS – Biology, University of Wisconsin – La Crosse, 2006
Science and Products
Network connectivity contributes to native small-bodied fish assemblages in the upper Mississippi River system
Reimagining large river management using the Resist–Accept–Direct (RAD) framework in the Upper Mississippi River
Improving the Midwest Climate Change Vulnerability Assessment Tool to support regional climate adaptation
Diverse portfolios: Investing in tributaries for restoration of large river fishes in the Anthropocene
An assessment of the relation between metal contaminated sediment and freshwater mussel populations in the Big River, Missouri
Understanding ecological response to physical characteristics in side channels of a large floodplain-river ecosystem
Gene flow influences the genomic architecture of local adaptation in six riverine fish species
Geomorphic controls on floodplain connectivity, ecosystem services, and sensitivity to climate change: An example from the lower Missouri River
Resisting-accepting-directing: Ecosystem management guided by an ecological resilience assessment
Identifying monitoring information needs that support the management of fish in large rivers
Climate change adaptation thinking for managed wetlands
Aquatic vegetation dynamics in the Upper Mississippi River over 2 decades spanning vegetation recovery
Non-USGS Publications**
**Disclaimer: The views expressed in Non-USGS publications are those of the author and do not represent the views of the USGS, Department of the Interior, or the U.S. Government.
Workshop: Natural Solutions to Ecological and Economic Problems Caused by Extreme Precipitation Events in the Upper Mississippi River Basin
Improving the Midwest Climate Change Vulnerability Assessment Tool to Support Regional Climate Adaptation
Developing a Decision Making and Climate Adaptation Framework for National Wildlife Refuge System Managers in the Midwest
Vulnerability Assessment and Adaptation Planning for Projected Changes in Water Quality and Quantity for Protected Areas in the Upper Mississippi Watershed
Otolith microchemistry for determining natal origins of prey fishes in the Upper Mississippi River System
Biological and physical attributes of side channels of the Upper Mississippi River System
Habitat diversity and longitudinal connectivity limit the functional diversity and redundancy of fishes in a large river: Data
Watershed-based Midwest Climate Change Vulnerability Assessment Tool
Climate change has and is projected to continue to alter historic regimes of temperature, precipitation, and hydrology.
Science and Products
Network connectivity contributes to native small-bodied fish assemblages in the upper Mississippi River system
Reimagining large river management using the Resist–Accept–Direct (RAD) framework in the Upper Mississippi River
Improving the Midwest Climate Change Vulnerability Assessment Tool to support regional climate adaptation
Diverse portfolios: Investing in tributaries for restoration of large river fishes in the Anthropocene
An assessment of the relation between metal contaminated sediment and freshwater mussel populations in the Big River, Missouri
Understanding ecological response to physical characteristics in side channels of a large floodplain-river ecosystem
Gene flow influences the genomic architecture of local adaptation in six riverine fish species
Geomorphic controls on floodplain connectivity, ecosystem services, and sensitivity to climate change: An example from the lower Missouri River
Resisting-accepting-directing: Ecosystem management guided by an ecological resilience assessment
Identifying monitoring information needs that support the management of fish in large rivers
Climate change adaptation thinking for managed wetlands
Aquatic vegetation dynamics in the Upper Mississippi River over 2 decades spanning vegetation recovery
Non-USGS Publications**
**Disclaimer: The views expressed in Non-USGS publications are those of the author and do not represent the views of the USGS, Department of the Interior, or the U.S. Government.
Workshop: Natural Solutions to Ecological and Economic Problems Caused by Extreme Precipitation Events in the Upper Mississippi River Basin
Improving the Midwest Climate Change Vulnerability Assessment Tool to Support Regional Climate Adaptation
Developing a Decision Making and Climate Adaptation Framework for National Wildlife Refuge System Managers in the Midwest
Vulnerability Assessment and Adaptation Planning for Projected Changes in Water Quality and Quantity for Protected Areas in the Upper Mississippi Watershed
Otolith microchemistry for determining natal origins of prey fishes in the Upper Mississippi River System
Biological and physical attributes of side channels of the Upper Mississippi River System
Habitat diversity and longitudinal connectivity limit the functional diversity and redundancy of fishes in a large river: Data
Watershed-based Midwest Climate Change Vulnerability Assessment Tool
Climate change has and is projected to continue to alter historic regimes of temperature, precipitation, and hydrology.