Gregory Pasternack

Professor

University of California, Davis

United States

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Dr. Gregory Pasternack is a Professor at the University of California at Davis, USA. His research areas include the impacts of climate change on river ecosystems, machine learning applications in environmental science, and the ecological dynamics of riparian vegetation. His recent publications examine socio-economic risks related to extreme weather events, hydraulic habitats, and channel variability, contributing valuable insights into river classification and management.

Articles (18)

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2025

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2021

Collaborators (9)

Dipak Ghosal

University of California

UNITED STATES

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Mary L Cadenasso

UNITED STATES

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Nann A. Fangue

UNITED STATES

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Michael J. Stewardson

AUSTRALIA

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Samuel Sandoval Solis

Professor and Specialist in Water Resources

University of California, Davis

UNITED STATES

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NIKHIL KUMAR

University of California, Davis

UNITED STATES

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Belize Lane

Assistant Professor

Utah State University

UNITED STATES

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Fiona J. Dyer

University of Canberra

AUSTRALIA

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Zhihao Wang

University of California, Davis

UNITED STATES

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Gregory Pasternack

Research Interests

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About

Articles (18)

Socio‐Economic Risk of Rising Compound Precipitation‐Wind Extremes in San Francisco Bay Area

Machine learning-guided field site selection for river classification

Predictability of Cottonwood Recruitment Along a Dynamic, Regulated River

Spectral Slope and Coherence Quantitatively Summarize Nested Topographic Variability Patterns in Rivers

Guiding riparian vegetation planting with machine learning

Hydraulic Microhabitats at a Regulated River Confluence Influence Chinook Salmon Migratory Routing During Drought

Width undulation drives flow convergence routing in five flashy ephemeral river types across a dry summer subtropical region

Mind the information gap: How sampling and clustering impact the predictability of reach‐scale channel types in California (USA)

Identifying key channel variability functions controlling ecohydraulic conditions using synthetic channel archetypes

“Process‐based similarity” revealed by discharge‐dependent relative submergence dynamics of thousands of large bed elements

TempMesh – A Flexible Wireless Sensor Network for Monitoring River Temperatures

How to strengthen interdisciplinarity in ecohydraulics? Outcomes from ISE 2018

Channel‐reach morphology and landscape properties are linked across a large heterogeneous region

Channel Constriction Predicts Pool‐Riffle Velocity Reversals Across Landscapes

Chinook salmon rearing habitat–discharge relationships change as a result of morphodynamic processes

Flooding duration and volume more important than peak discharge in explaining 18 years of gravel–cobble river change

Geomorphic covariance structure of a confined mountain river reveals landform organization stage threshold

Automated analysis of lateral river connectivity and fish stranding risks. Part 2: Juvenile Chinook salmon stranding at a river rehabilitation site

Collaborators (9)

Dipak Ghosal

Mary L Cadenasso

Nann A. Fangue

Michael J. Stewardson

Samuel Sandoval Solis

NIKHIL KUMAR

Belize Lane

Fiona J. Dyer

Zhihao Wang

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