Gregory Dumond
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Associate Professor
Also affiliated: Texas Tech University (2005); University of Massachusetts Amherst (2006–2010); Massachusetts Institute of Technology (2010)
Faculty Researcher
Research Areas
Links
Biography and Research Information
OverviewAI-generated summary
Gregory Dumond's research focuses on understanding geological processes through field observations and analytical techniques. His work investigates the evolution of Earth's crust, particularly under conditions of high pressure and temperature, and the mechanisms driving continental deformation. Dumond has published on topics ranging from the use of minerals like monazite as indicators of shear strain in orogenic belts to the geophysical characterization of geological structures such as alkaline-carbonatite complexes and uplifted mountain ranges.
His research also extends to the study of landslides, employing electrical resistivity imaging to understand subsurface conditions. Dumond is involved in projects examining the deep crustal evolution, including the impact of magmatic underplating on continental crust formation. He has received federal funding from the National Science Foundation (NSF) for two projects totaling over $1.3 million. One grant, as Principal Investigator, supports research into the impact of magmatic underplating on lower continental crust evolution. The other, as Co-Principal Investigator, funded the acquisition of a multicollector ICP-MS, enhancing capabilities in geology, archaeology, and paleobiology.
Dumond collaborates with researchers at the University of Arkansas at Fayetteville, including Govind Joshi, Barry Shaulis, Mohamed H. Aly, and Andrew P. Lamb, with whom he has co-authored multiple publications. His scholarly output includes 55 publications, with an h-index of 14 and over 700 citations, indicating a sustained contribution to the field of geology.
Metrics
- h-index: 14
- Publications: 56
- Citations: 737
Selected Publications
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Lead isotope studies of Precambrian basement in the midcontinent United States: Implications for metal sources in Mississippi Valley-type ores (2026)
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Phase equilibria modeling constraints on channel flow of metasedimentary crust beneath the southeastern Tibetan Plateau (2025)
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Phase Equilibria Modeling Constraints on Lower Crustal Pipe Flow Beneath the Southeastern Tibetan Plateau (2025)
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Geophysical characterization of an alkaline‑carbonatite complex using gravity and magnetic methods at Magnet Cove, Arkansas, USA (2024)
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CONTINENTAL CONSEQUENCES OF MAGMATIC INTRAPLATING OF SEDIMENTS LURKING IN THE DEEP (2024)
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Electrical Resistivity Imaging of Recent Landslides in Colorado Springs, Colorado, USA (2024)
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ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING (2023)
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CONSTRAINING HIGH TEMPERATURE DEFORMATION AND METAMORPHISM IN THE SOUTHERN WET MOUNTAINS, COLORADO, USA: NEW P-T-T RESULTS FROM HIGH GRADE METAMORPHIC BASEMENT AND IMPLICATIONS FOR THE PICURIS OROGENY (2023)
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Monazite as a monitor of shear strain in orogenic crust (2022)
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Tibetan dichotomy exposed in the Canadian Shield: A lower crustal perspective (2020)
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THE MONAZITE RECORD OF MELTING AND DEFORMATION IN OROGENIC CRUST (2019)
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EXHUMED RECORD OF CRUST-MANTLE INTERACTION AS A MECHANISM FOR UHT METAMORPHISM IN A THICKENED DEEP CRUSTAL HOT ZONE (2018)
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Multiphase inclusions in peritectic garnet from granulites of the Athabasca granulite terrane (Canada): Evidence of carbon recycling during Neoarchean crustal melting (2018)
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The Athabasca Granulite Terrane and Evidence for Dynamic Behavior of Lower Continental Crust (2018)
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Backarc origin for Neoarchean ultrahigh-temperature metamorphism, eclogitization, and orogenic root growth (2017)
Federal Grants 2 $1,359,238 total
Collaborative Research: Impact of Magmatic Underplating on the Evolution of Lower Continental Crust
Collaboration Network
Top Collaborators
- ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING
- Phase Equilibria Modeling Constraints on Lower Crustal Pipe Flow Beneath the Southeastern Tibetan Plateau
- Phase equilibria modeling constraints on channel flow of metasedimentary crust beneath the southeastern Tibetan Plateau
- Monazite as a monitor of shear strain in orogenic crust
- ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING
- Monazite as a monitor of shear strain in orogenic crust
- ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING
- Monazite as a monitor of shear strain in orogenic crust
- CONTINENTAL CONSEQUENCES OF MAGMATIC INTRAPLATING OF SEDIMENTS LURKING IN THE DEEP
- Monazite as a monitor of shear strain in orogenic crust
- ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING
- CONSTRAINING HIGH TEMPERATURE DEFORMATION AND METAMORPHISM IN THE SOUTHERN WET MOUNTAINS, COLORADO, USA: NEW P-T-T RESULTS FROM HIGH GRADE METAMORPHIC BASEMENT AND IMPLICATIONS FOR THE PICURIS OROGENY
- CONSTRAINING HIGH TEMPERATURE DEFORMATION AND METAMORPHISM IN THE SOUTHERN WET MOUNTAINS, COLORADO, USA: NEW P-T-T RESULTS FROM HIGH GRADE METAMORPHIC BASEMENT AND IMPLICATIONS FOR THE PICURIS OROGENY
- ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING
- ATHABASCA ANALOG FOR TIBETAN LOWER CRUSTAL FLOW AND STRAIN PARTITIONING
- Electrical Resistivity Imaging of Recent Landslides in Colorado Springs, Colorado, USA
- Electrical Resistivity Imaging of Recent Landslides in Colorado Springs, Colorado, USA
- Electrical Resistivity Imaging of Recent Landslides in Colorado Springs, Colorado, USA
- Geophysical characterization of an alkaline‑carbonatite complex using gravity and magnetic methods at Magnet Cove, Arkansas, USA
- Geophysical characterization of an alkaline‑carbonatite complex using gravity and magnetic methods at Magnet Cove, Arkansas, USA