Georgios Kourakos
University of California, Davis | Researcher
Recent Activity
ABSTRACT:
This repository contains information about the model that is used in the 10.1029/2020WR029354 paper.
The current version of the model simulates steady state unconfined groundwater flow. It is based on the finite element method using quadrilateral or hexahedral finite elements for the domain discretization. For the mesh generation we use adaptive mesh refinement where we start from a coarse mesh and refine the areas of the domain where there is rapid change in the hydraulic head.
In addition the water table elevation is treated as an additional unknown and the iterations of the unconfined non linear problem are blended with the iterations of the adaptive mesh refinement process.
ABSTRACT:
This repository contains information about the model that is used in our ########### paper.
The current version of the model simulates steady state unconfined groundwater flow. It is based on the finite element method using quadrilateral or hexahedral finite elements for the domain discretization. For the mesh generation we use adaptive mesh refinement where we start from a coarse mesh and refine the areas of the domain where there is rapid change in the hydraulic head.
In addition the water table elevation is treated as an additional unknown and the iterations of the unconfined non linear problem are blended with the iterations of the adaptive mesh refinement process.
ABSTRACT:
This repository contains the output data and related GIS files to the Agricultural managed aquifer recharge study conducted in the area of Orland Artois Water District
ABSTRACT:
This repository contains information about the C2VSim model and the required changes to run Managed aquifer recharge scenarios
ABSTRACT:
This repository contains support material, model and data on a Managed Aquifer Recharge study in the Orland Artois Water District.
Using the California Central Valley Groundwater-Surface Water Simulation model (C2VSim) we tested a number of managed aquifer recharge scenarios.
More information about the study can be found in the following paper:
Kourakos, G., Dahlke, H. E., & Harter, T. ( 2019). Increasing Groundwater Availability and Seasonal Baseflow through Agricultural Managed Aquifer Recharge in an Irrigated Basin. Water Resources Research, 55. https://doi.org/10.1029/2018WR024019
Contact
| (Log in to send email) |
| All | 0 |
| Collection | 0 |
| Resource | 0 |
| App Connector | 0 |
Created: Aug. 8, 2019, 11:14 a.m.
Authors: Kourakos, Georgios · Dahlke, Helen · Harter, Thomas
ABSTRACT:
This repository contains support material, model and data on a Managed Aquifer Recharge study in the Orland Artois Water District.
Using the California Central Valley Groundwater-Surface Water Simulation model (C2VSim) we tested a number of managed aquifer recharge scenarios.
More information about the study can be found in the following paper:
Kourakos, G., Dahlke, H. E., & Harter, T. ( 2019). Increasing Groundwater Availability and Seasonal Baseflow through Agricultural Managed Aquifer Recharge in an Irrigated Basin. Water Resources Research, 55. https://doi.org/10.1029/2018WR024019
Created: Aug. 8, 2019, 12:52 p.m.
Authors: Kourakos, Georgios · Dahlke, Helen · Harter, Thomas
ABSTRACT:
This repository contains information about the C2VSim model and the required changes to run Managed aquifer recharge scenarios
Created: Aug. 12, 2019, 7:06 p.m.
Authors: Kourakos, Georgios · Dahlke, Helen · Harter, Thomas
ABSTRACT:
This repository contains the output data and related GIS files to the Agricultural managed aquifer recharge study conducted in the area of Orland Artois Water District
Created: Dec. 21, 2020, 9:53 a.m.
Authors: Kourakos, Georgios · Harter, Thomas
ABSTRACT:
This repository contains information about the model that is used in our ########### paper.
The current version of the model simulates steady state unconfined groundwater flow. It is based on the finite element method using quadrilateral or hexahedral finite elements for the domain discretization. For the mesh generation we use adaptive mesh refinement where we start from a coarse mesh and refine the areas of the domain where there is rapid change in the hydraulic head.
In addition the water table elevation is treated as an additional unknown and the iterations of the unconfined non linear problem are blended with the iterations of the adaptive mesh refinement process.
Created: May 14, 2021, 1:41 p.m.
Authors: Kourakos, Georgios · Harter, Thomas
ABSTRACT:
This repository contains information about the model that is used in the 10.1029/2020WR029354 paper.
The current version of the model simulates steady state unconfined groundwater flow. It is based on the finite element method using quadrilateral or hexahedral finite elements for the domain discretization. For the mesh generation we use adaptive mesh refinement where we start from a coarse mesh and refine the areas of the domain where there is rapid change in the hydraulic head.
In addition the water table elevation is treated as an additional unknown and the iterations of the unconfined non linear problem are blended with the iterations of the adaptive mesh refinement process.