- 03 Aug 2020 - 17 Aug 2020
- Direct link to Open Course
The IHE Delft partnership programme, funded by the Ministry of Foreign Affairs of the Netherlands, supports several activities related to online education development and takes this opportunity to offer the Open Course on Groundwater Modelling using MODFLOW and Model Muse, in cooperation with IHE Delft partner Hatarilabs.
Running from 3-17 August 2020, the course provides basic knowledge about MODFLOW and Model Muse providing the skills to develop, run, and post-process models. The course, run by Saul Montoya from HatariLabs and Hans van der Kwast from IHE Delft includes five webinars on the follwoing dates & times:
- Monday 3 August, from 18.00 hrs CEST (one hour webinar).
- Friday 7 August, from 18.00 hrs CEST (one hour webinar).
- Monday 10 August, from 18.00 hrs CEST (one hour webinar).
- Friday 14 August, from 18.00 hrs CEST (one hour webinar).
- Monday 17 Augsut, from 18.00 hrs CEST (one hour webinar).
About the lecturer, Saul Montoya, MSc
Saul Montoya is a Hydrogeologist and Numerical Modeler. He is a Civil Engineer graduated from the Catholic University in Lima with postgraduate studies in Management and Engineering of Water Resources (WAREM Program) from Stuttgart University – Germany with mention in Groundwater Engineering and Hydroinformatics. Saul has a strong analytical capacity for the interpretation, conceptualization and modeling of the surface and underground water cycle and their interaction.
He is in charge of numerical modeling for contaminant transport and remediation systems of contaminated sites. Inside his hydrological and hydrogeological investigations. Saul has developed a holistic comprehension of the water cycle, understanding and quantifying the main hydrological dynamic process of precipitation, runoff, evaporation and recharge to the groundwater system.
The development of the course consists of practical exercises designed to demonstrate the functionality of MODFLOW applied in groundwater. In this course the student will learn to:
- Use the ModelMuse environment and tools for modeling.
- Know the potential of Model Muse to build MODFLOW models.
- Design a grid and boundary conditions.
- Build and simulate numerical models.
Introduction to MODFLOW and Model Muse
- Download and installation of MODFLOW
- Description of the main window of ModelMuse:
- Download and installation of Programs to MODFLOW
- Specifying the location where several programs related to MODFLOW with Modflow Program Location.
Exercise: Learning the functions of the basic tools found on MODFLOW screen.
- Creating, Selecting and Editing Objects in ModelMuse.
- Description types of objects as Points, Polylines, Polygons, Straight – Lines and Rectangles.
Exercise: Generating Grids on Model Muse
- Description tool menu Grid
- Specifying a uniform initial grid.
- Using Object to specify a grid.
Exercise: Defining Layer Groups, Time on MODFLOW and learned about Output Control.
- Description tool MODFLOW Layer Groups.
- Defining spatial discretization.
- Specifying temporal discretization.
- Description about Output Control.
Exercise: Description MODFLOW Package and Programs
- Learning about Flow Package.
- Knowing the principal functions about the Boundary Condition.
- Learning about Solvers, Observations, Post processors.
Exercise: Developing a multilayer groundwater model
- Defining model grid
- Defining model properties
- Adding boundary conditions.
- Running the model
- Visualize the head hydraulic.
- Analyzing water balance
Exercise: Three-dimensional steady-state simulation with recharge, constant-head, a river and wells.
- Definition of grid and vertical discretization.
- Definition of boundary conditions.
- Setting hydraulic parameters.
- Visualization of results and water balance.
Exercise: Build a groundwater model
- Definition of active and inactive zone.
- Discretization of the aquifer.
- Establish the hydraulic parameters.
- Import DEM.
- Analysis of initial head.
Exercise: Simulation a groundwater model
- Defining package and program
- Setting of boundary conditions: RCH, EVT, DRN.
- Analysis of the global water balance.
Exercise: Simulation transient-state aquifer modelling with piezometers.
- Adding piezometers and wells
- Compare values observed and simulated.
- Representation of the water table.