Scott Dusterhoff's picture

Scott Dusterhoff

Lead Geomorphologist
Resilient Landscapes Program
Integrative Geomorphology
510-746-7350

Scott Dusterhoff is a geomorphologist at the San Francisco Estuary Institute with a background in fluvial geomorphology, watershed hydrology, and estuarine/tidal wetland dynamics. For more than a decade, Scott has been working in coastal and upland watersheds throughout California, Oregon, and Washington, as well as in the Mid-Atlantic, on projects that use in-depth scientific investigations to inform sustainable ecosystem management approaches. He specializes in understanding the impacts of land disturbance and flow regulation on geomorphic processes and aquatic habitat for a variety of endangered species. He has extensive experience using a combination of field-based data, numerical modeling, and geospatial tools to characterize fluvial and coastal sediment transport dynamics, assess hydrologic/hydraulic processes in watershed and estuarine environments, and construct watershed and estuary water and sediment budgets. Scott received a B.S in Geology from the University of Maryland and an M.S. in Environmental Sciences and Hydrology from the University of Virginia.

Related Projects, News, and Events

Resilience Atlas (Project)

The Resilience Atlas is a compilation of cutting-edge science, creative visions and relevant spatial data to support planners, designers, policy-makers, and residents in the creation of the healthy cities, shorelines and surrounding landscapes of the future. The main goal of the Resilience Atlas is to make the science of resilience more accessible to help communities successfully adapt and thrive in the face of climate change and other challenges.

Photo Credits: Micha Salomon (L), Dee Shea Himes (R)

Healthy Watersheds Resilient Baylands (Project)

The Healthy Watersheds Resilient Baylands project will enhance resilience to climate change through the implementation of several multi-benefit environmental projects by the San Francisco Estuary Partnership, SFEI, and 15 other organizations. The project has two major components: Multi-benefit Urban Greening and Tidal Wetlands Restoration. Through both components, we are developing science-based strategies that inform the design of innovative implementation projects.

Flood Control 2.0 Completed! (News)

SFEI and several agency partners recently completed a multi-year, EPA funded project called Flood Control 2.0. The goal of the project was to develop information that is useful for integrating habitat restoration into flood management at the Bay edge. Project outputs are now available at floodcontrol.sfei.org.

Picture from Google Earth

South Bay Landscape Vision Workshop (News)

On June 7, SFEI, in partnership with the Santa Clara Valley Water District and South Bay Salt Ponds Restoration Project, hosted a landscape “visioning” workshop in San Jose. The goal of the workshop was to develop a resilient, multi-benefit vision highlighting opportunities along the South Bay shoreline for supporting both tidal marsh restoration and flood management.

Historical Ecology and Landscape Change in the Central Laguna de Santa Rosa (Project)

This study synthesizes a diverse array of data to examine the ecological patterns, ecosystem functions, and hydrology that characterized a central portion of the Laguna de Santa Rosa during the mid-19th century, and to analyze landscape changes over the past 150 years. The primary purpose of this study was to help guide restoration actions and other measures aimed at reducing nutrient loads within this portion of the Laguna de Santa Rosa watershed.

Lower Walnut Creek Vision Just Released! (News)

SFEI recently released a resilient landscape vision for lower Walnut Creek that incorporates habitat restoration actions into flood risk management. The vision, developed in coordination with a team of regional science experts, highlights opportunities for restoring and sustaining vital tidal wetland habitats around lower Walnut Creek while supporting a high level of flood protection under rising San Francisco Bay water levels.

Design by Linda Wanczyk

RipZET: A GIS-based Tool for Estimating Riparian Zones (Project)

The Riparian Zone Estimator Tool (RipZET) is a decision support tool developed by the San Francisco Estuary Institute and Aquatic Science Center for the California Riparian Habitat Joint Venture and the California Water Resources Control Board to assist in the visualization and characterization of riparian areas in the watershed context.

Lower Walnut Creek Historical Ecology Study (Project)

During the mid-19th century, the lower Walnut Creek watershed was a landscape dominated by extensive wetlands, meandering creeks, and grassy plains. The marshes, sloughs, and meadows provided habitat and food for a huge number of wildlife species ranging from grizzly bears and elk to clapper rails and steelhead. Over the past 150 years, urban development, diking and filling of wetlands, and channelization of streams has resulted in dramatic changes to the watershed, and much of the historical habitat has been lost.

Flood Control 2.0 (Project)

Flood Control 2.0 is an ambitious regional effort aimed at helping restore stream and wetland habitats, water quality, and shoreline resilience around San Francisco Bay. The project leverages local resources from several forward-looking flood control agencies to redesign major flood control channels so that they provide both future flood conveyance and ecological benefit under a changing climate. This timely project will develop a set of innovative approaches for bringing environmental benefits and cost-savings to flood protection efforts at the mouths of creeks that drain to San Francisco Bay.

How Creeks Meet the Bay: Current Sediment Dynamics (News)

The transition zones between our watersheds and the Bay are often occupied by flood control channels that provide a variety of societal and environmental services but can require sediment removal to maintain flood conveyance capacity. The causes of sedimentation problems in these channels are often complex, driven in large part by a combination of high watershed sediment yield and excess tidal sediment accumulation due to decreased tidal scour.