
Build and calibrate a hydrological model for an industrial project in hEC-HMS using observed data, learn rainfall analysis, curve number, time of concentration, lag time, and 2D flood inundation.
Explore preparing a depth-duration-frequency curve using the Gumbel method from India water resource information system data, converting daily rainfall to multi-duration series, and computing mean, standard deviation, and return periods.
Create a dem in arcmap by clipping srtm data to the district boundary using esri data and bhuvan sources, then export and resize the terrain file.
Learn to calculate curve numbers in QGIS using the CN generator plugin, set up project sites, run the curve number workflow, and obtain effective curve numbers by basin.
Define the site coordinate system to UTM zone 44 with WGS84, select the project lines in Autodesk Civil 3D, and export the map to a shapefile using Civil 3D only.
Learn to delineate the catchment in HEC-HMS by building basin and terrain, setting the project site, processing drainage and streams, and merging subbasins to define the watershed.
Learn to prepare a hydrological model in hec-hms by defining curve numbers, computing time of concentration, and applying a unit hydrograph with 100-year rainfall data for 400-year simulations.
Prepare a hydrological model in HEC-HMS using the SAS type II method with a 100-year 24-hour rainfall, apply to all basins, and compute outflow hydrograph to assess discharge and overflow.
Export sub basin, junctions, and region outlets from HEC-HMS using GIS, exporting each layer in QGIS and saving separate basin files for later review.
Select the three basins and the project site in QGIS, then export the design basin by saving the selected features and exporting the areas that fall within the basin.
Learn to set up a flood inundation model in HEC RAS Part 1 by configuring projection, importing basin and reach, and defining downstream normal depth with an unsteady hydrograph.
Review flood inundation results from the HEC-RAS run, adjust depth and velocity, and use the profile and water surface data to justify a 2.5 m safety level with culverts.
Are you looking to gain hands-on experience in hydrological modeling for real-world engineering projects? This course is designed to take you through the complete process of hydrological modeling of an industrial catchment using HEC-HMS (Hydrologic Engineering Center – Hydrologic Modeling System), one of the most widely used tools in water resources engineering.
In this practical, project-based course, you'll learn how to develop and simulate a rainfall-runoff model for an industrial site—from data collection to result interpretation. Whether you're a student, water resources professional, or civil/environmental engineer, this course will equip you with the skills needed to confidently model surface hydrology using HEC-HMS.
What You'll Learn:
Fundamentals of hydrological modeling in the context of industrial projects
Setting up a project in HEC-HMS with subbasins, reaches, junctions, and meteorological data
Applying the SCS Curve Number method and SCS Unit Hydrograph for runoff modeling
Incorporating real rainfall and land use data into your model
Running simulations to generate hydrographs and analyze peak flows
Interpreting output results for decision-making and design support
Exporting results and preparing project reports
Who This Course is For:
Civil and Environmental Engineers
Water Resource Professionals
Engineering Students and Researchers
Consultants working on site drainage and stormwater management
Anyone looking to develop expertise in HEC-HMS modeling
Requirements:
Basic understanding of hydrology and watershed processes
Familiarity with GIS and HEC-HMS (recommended but not mandatory)
A computer with HEC-HMS installed (free software)
Course Highlights:
Real industrial site case study
Step-by-step demonstrations
Practical insights from professional experience
Downloadable resources and model files
Lifetime access and certification
Join now and take your hydrological modeling skills to the next level by working on a real industrial project using HEC-HMS!