D. L. Roth
- ORCiD
- https://orcid.org/0000-0001-9502-7836
- OpenAlex ID
- https://openalex.org/A5074873621 (API record)
Associated Concepts [?]
- Geology
- Biology
- Physics
- Paleontology
- Geomorphology
- Sediment
- Quantum mechanics
- Geography
- Engineering
- Ecology
- Sediment transport
- Oceanography
- Environmental science
- Geotechnical engineering
- Computer science
- Thermodynamics
- Bed load
- Structural basin
- Seismology
- Mechanics
- Hydrology (agriculture)
- Particle (ecology)
- Meteorology
Authored Works
sorted by decreasing year, and then by display-name
- Using Short-Lived Radionuclides to Examine Bioturbation on Hillslopes After Wildfires
- Using Particle Size Distribution to Identify Changes in Sediment Transport After a Wildfire
- The Sound of Water: Spatially Continuous River Monitoring Through Distributed (Hydro)Acoustic Sensing
- Knock Knock, Who's There? Identifying the Source of Signals in the First DAS Deployment in a Fluvial Setting
- Identifying the Seismic Power Contribution of Tree-Captured Wind Using the Earthscope Transportable Array
- Characterizing Controls on Postfire Steepland Ravel - When Does Bioturbation Go Too Far for Diffusive Models?
- A Meta-analysis of Field Saturated Hydraulic Conductivity and Numerically Simulated Rainfall Partitioning for Post-Wildfire Burned Watersheds across the Western United States
- Variability in Post-Wildfire Soil Hydraulic Properties Related to Local and Regional Climatological, Geological, and Burn Characteristic Factors.
- URGE Pod Outcomes for the AGU EPSP Section
- The Seismic Signature of Tree-Captured Wind
- Linking bioturbation and wildfire to nonlocal transport in steeplands of the California Bay Area
- Lessons learned from the AGU EPSP URGE pod on how to structure an equitable, inclusive, and safe committee space
- Investigation of rill initiation using high-resolution topography after 2017 Thomas Fire, CA
- Insights on bioturbation-driven, post-fire soil mixing and sediment transport mechanics from short-lived radionuclides.
- Discrimination of Active and Inactive Burn Areas in the 2020 Cameron Peak Fire from Interferometric Synthetic Aperture Radar (InSAR) Time Series
- A river on fiber: capturing fluvial processes with distributed acoustic sensing
Linked Co-Authors
- Andrew D. Wickert
- Brandon Dugan
- Claire Masteller
- Dorothy J. Merritts
- Francis K. Rengers
- Ge Jin
- Hima J. Hassenruck‐Gudipati
- J. P. Perkins
- J. Prancevic
- Jeffrey Kwang
- Jill Marshall
- K. M. Hill
- Kristin Morell
- L. S. Sklar
- Lisa Luna
- M. A. Zimmer
- Matthew R. Siegfried
- Maximiliano Bezada
- N. M. Gasparini
- R. J. Michaelides
- R. P. Callahan
- Robert Mahon
- S. W. McCoy
- V. J. Sahakian
- Xin Sun
Linked Collaborating Institutions
- Colorado School of Mines
- Concordia University, Canada
- Dartmouth College, New Hampshire
- Franklin and Marshall College, Pennsylvania
- Pennsylvania State University
- Tulane University, Louisiana
- U.S. Geological Survey
- U.S. Geological Survey, Menlo Park
- UMass Amherst
- University of Arkansas, Fayetteville
- University of British Columbia, Canada
- University of California, Berkeley
- University of California, Santa Barbara
- University of California, Santa Cruz
- University of Minnesota, Twin Cities
- University of Nevada, Reno
- University of New Orleans, Louisiana
- University of North Dakota
- University of Oregon
- University of Potsdam, Germany
- University of Texas, Austin
- University of Wyoming
- Washington State University
- Washington University in Saint Louis, Missouri
- Yale University, Connecticut
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