His main research concerns Geotechnical engineering, Porous medium, Multiphase flow, Saturation and Imbibition. Jason I. Gerhard works mostly in the field of Porous medium, limiting it down to topics relating to Capillary action and, in certain cases, Permeability, as a part of the same area of interest. His Permeability research incorporates themes from Hydraulic conductivity and Two-phase flow.
His research integrates issues of Relative permeability and Capillary pressure in his study of Multiphase flow. The study incorporates disciplines such as Petroleum engineering, Ignition system, Phase, Flux and Chemical engineering in addition to Saturation. Throughout his Imbibition studies, Jason I. Gerhard incorporates elements of other sciences such as Macroscopic scale and Infiltration.
Jason I. Gerhard spends much of his time researching Environmental remediation, Combustion, Smouldering, Porous medium and Waste management. His Environmental remediation research is multidisciplinary, incorporating perspectives in Soil science, Environmental engineering, Groundwater, Coal tar and Environmental chemistry. His biological study spans a wide range of topics, including Multiphase flow, Colloid and Permeability.
His work carried out in the field of Multiphase flow brings together such families of science as Saturation, Relative permeability and Capillary pressure. His Saturation research is multidisciplinary, incorporating elements of Infiltration and Mass transfer. His study looks at the relationship between Geotechnical engineering and fields such as Capillary action, as well as how they intersect with chemical problems.
His scientific interests lie mostly in Smouldering, Combustion, Environmental remediation, Heat transfer and Waste management. His Smouldering research incorporates elements of Heat of combustion, Thermal and Porous medium. Jason I. Gerhard interconnects Computational fluid dynamics and Permeability in the investigation of issues within Porous medium.
His Environmental remediation research is multidisciplinary, relying on both Environmental chemistry, Soil science, Soil contamination and Environmental engineering. The Soil science study combines topics in areas such as Saturation, Drainage and Groundwater. His Saturation study combines topics from a wide range of disciplines, such as Hydrogeology and Geotechnical engineering.
Jason I. Gerhard mainly investigates Combustion, Smouldering, Heat transfer, Environmental remediation and Waste management. His Combustion research focuses on subjects like Pyrolysis, which are linked to Autoignition temperature and Scientific method. His studies deal with areas such as Organic liquids, Thermal, Thermal equilibrium and Thermal non equilibrium as well as Smouldering.
His Environmental remediation study incorporates themes from Electrokinetic phenomena, Silt, Environmental engineering and Environmental chemistry. Jason I. Gerhard interconnects In situ chemical oxidation, Porous medium and Permeability in the investigation of issues within Electrokinetic phenomena. His Waste management research is multidisciplinary, relying on both Airflow and Water content.
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Predicting colloid transport through saturated porous media: A critical review
Ian L. Molnar;William P. Johnson;Jason I. Gerhard;Clinton S. Willson.
Water Resources Research (2015)
Measurement and prediction of the relationship between capillary pressure, saturation, and interfacial area in a NAPL-water-glass bead system.
Mark L. Porter;Dorthe Wildenschild;Gavin Grant;Jason I. Gerhard.
Water Resources Research (2010)
Small-scale forward smouldering experiments for remediation of coal tar in inert media
Paolo Pironi;Christine Switzer;Guillermo Rein;Andres Fuentes.
Proceedings of the Combustion Institute (2009)
Self-Sustaining Smoldering Combustion: A Novel Remediation Process for Non-Aqueous-Phase Liquids in Porous Media
C. Switzer;P. Pironi;J.I. Gerhard;G. Rein.
Environmental Science & Technology (2009)
Variability of point source infiltration rates for two‐phase flow in heterogeneous porous media
Bernard H. Kueper;Jason I. Gerhard.
Water Resources Research (1995)
pH control for enhanced reductive bioremediation of chlorinated solvent source zones
Clare Robinson;D.A. Barry;Perry L. McCarty;Jason I. Gerhard;Jason I. Gerhard.
Science of The Total Environment (2009)
Capillary pressure characteristics necessary for simulating DNAPL infiltration, redistribution, and immobilization in saturated porous media
J. I. Gerhard;J. I. Gerhard;B. H. Kueper.
Water Resources Research (2003)
Self-sustaining smoldering combustion for NAPL remediation: laboratory evaluation of process sensitivity to key parameters.
Paolo Pironi;Christine Switzer;Jason I. Gerhard;Guillermo Rein.
Environmental Science & Technology (2011)
Smouldering combustion as a treatment technology for faeces: Exploring the parameter space
L. Yermán;Rory M. Hadden;J. Carrascal;Ivo Fabris.
Fuel (2015)
Relative permeability characteristics necessary for simulating DNAPL infiltration, redistribution, and immobilization in saturated porous media
J. I. Gerhard;J. I. Gerhard;B. H. Kueper.
Water Resources Research (2003)
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