The Advanced BIM Master's Program in River Channel and Hydraulic Infrastructure Modeling is a specialization program designed for civil and hydraulic engineering professionals seeking to update their skills and gain a deeper understanding of project management using BIM methodology. This program addresses the digital transformation that is redefining infrastructure engineering, directly impacting the work of civil, canal, and port engineers, as well as civil and industrial engineers involved in the development of hydraulic and port projects. The shift toward digital construction (VDC) using BIM methodology in hydraulic infrastructure is essential for maintaining professional competitiveness and relevance in the sector. Through this program, you will update your knowledge of integrating BIM into all phases of a project’s lifecycle, with a particular focus on the management of hydraulic engineering projects. You will master the use of advanced BIM software such as GIS, Civil 3D, and Revit, which are essential for the precise modeling of watercourses and the efficient management of infrastructure. You will cover everything from the fundamental concepts of surface and river hydrology to the application of relevant standards, strengthening your ability to lead complex projects with a solid technical foundation. You will develop skills in the preliminary cartographic preparation process using Geographic Information Systems (GIS), including the delineation of watersheds and watercourses with QGIS, and you will delve into flood analysis with HEC-HMS, mastering its design and evaluation parameters. This comprehensive approach will enable you to implement and manage advanced and sustainable solutions in the water resources sector.
Objectives
You will lead the integration of Building Information Modeling (BIM) methodology into all phases of project and construction management for hydraulic engineering infrastructure projects.
You will master the use of advanced software such as GIS, Civil 3D, and Revit for river channel modeling and water infrastructure management.
You will design pre-strategies
A mapping process using Geographic Information Systems (GIS) to accurately delineate watersheds and watercourses with QGIS.
You will implement hydrological models and flood calculations using HEC
HMS, managing its design parameters to ensure a robust and reliable evaluation.
You will evaluate the impact of design and management decisions on water infrastructure projects, taking into account relevant regulations and sustainability criteria.
You will manage surface and river hydrological data, applying advanced concepts to make strategic decisions in the field of BIM hydrology.
You will optimize the planning and execution of complex hydraulic projects by integrating BIM modeling to improve efficiency and reduce risks.
You will analyze and implement innovative solutions for water resource management, addressing the sector's current challenges using BIM technology.
Methodology
At Educa PHAROS, we use a highly practical methodology focused on the direct application of knowledge in the student’s professional environment, combining theoretical content with real-world case studies, digital tools, and the guidance of a specialized teaching team.
Program
Basic Concepts of Surface Hydrology (I).
Basics of Surface Hydrology (II). From Rain to Runoff
Basic Concepts of Surface Hydrology (III). The Rational Method.
Hydrological Modeling (I). The HEC-HMS Model and Transport Models.
Hydrological Modeling (II). Geographic Information Systems.
Basic Concepts of River Hydraulics (I).
Basic Concepts in River Hydraulics (II). One-Dimensional and Two-Dimensional Models.
Basic Concepts in River Hydraulics (III). Draft Calculation.
Hydraulic modeling.
Geographic Information Systems
Data Models
Digital Terrain Models
Spatial Data Infrastructures
Geographic Information Services and Metadata
The Open-Source Software QGIS: Installation and Application Structure
Relevant Regulations. Application of the Modified Rational Method
Work Area Layout. Download and Trim the MDT
Model Preparation. Deriving the Flow Network and the Watershed
Calculation of Hydrological Parameters
Calculating Flow Rates Using an Automated Spreadsheet
Software versions. Download and installation. Documentation
Workflow Diagram. Components
First component: Basin Model Manager
Second and third components: Time-Series Data Manager and Meteorological Model Manager
Fourth component (Control Specifications Manager) and results display
GIS Features (I)
GIS Features (II)
GIS Features (III)
Design Parameters
Model Calibration
The HEC-RAS model
The HEC-RAS Interface
Geometry of Natural Watercourses (I)
Geometry of Natural Watercourses (II)
Geometry of Natural Watercourses (III)
The RiverGIS add-on
The database
The territorial basis of the hydraulic model
Required mapping. Preprocessing
The RiverGIS database
Installing HEC-RAS
The geometry file
The flow file
The Hydraulic Model
Displaying Results
Advanced Options
Bridges and Overpasses
In-line structures, lateral structures, and flow obstructions
The Variable Regime
Modeling the Failure of Dams and Reservoirs
The HEC-RAS two-dimensional model
The digital elevation model in 2D modeling
Creating Land Plots with RAS Mapper
Creating Geometry Data with RAS Mapper
Hydraulic Conditions Under Variable Flow Conditions
Creating 2D Geometries in HEC-RAS
Hydraulic Conditions in Two-Dimensional Modeling with HEC-RAS
Relationships Between Geometric Elements
Hydraulic Conditions in Two-Dimensional Modeling with HEC-RAS
2D Simulation Under Variable Conditions
Introduction to the IBER Model and Software Installation
Hydraulic bases
Setting Up the IBER Environment
Preparing and Importing Geometries
Fluid Conditions and Boundary Conditions
Definition of roughness
Mesh Types and Methods
Calculation and Interpretation of Results
Obtaining Cross-Sections
Hazard Maps
Graphical Outputs in 1D HEC-RAS (I)
Graphical Outputs in HEC-RAS 1D (II)
Display Using Tables
Incidents. Errors, warnings, and notes
Flood contours and depth grids
Displaying Results in HEC-RAS 2D
Dynamic Maps
3D Visualization
Static maps. Exporting results to GIS
Flood Risk Maps
Point clouds and point cloud data on the web
Modeling from images using ReCap Photo and generating models with ReCap Photo
Modeling from images using ReCap Pro and model generation with ReCap Pro
Point Clouds with Civil 3D
Point Clouds with InfraWorks
GIS in Civil 3D
GIS in InfraWorks
Preliminary drafts for bids
Presentations and Virtual Reality
Overview of the Tools and Introduction to the Hydraflow Hydrograph Extension
Hydraflow Hydrographs Extension. Initial Contact
Hydraflow Hydrographs Extension. Workflow and Getting Started with the Hydraflow Express Extension
Components of the Hydraflow Express Extension
Reference Tables and Getting Started with Hydraflow Storm Sewers
Working with Hydraflow Storm Sewers
Installation and Presentation of Storm and Sanitary Analysis (SSA)
SSA Components
Models and Presentation at SSA
Networks and Outcomes in Sub-Saharan Africa
Grading Element
Grading Criteria
Tread Design
Creating Grade Lines
Volume Measurement
Element Catalogs
Part Editing
Network Modeling
Irrigation Network Profile
BIM Deliverables
The SAC Interface
Basic Elements of Geometry (I)
Basic Elements of Geometry (II)
Elements of Advanced Geometry (I)
Advanced Geometry (II)
Organizers, conditionals, and lists
Definition of Parameters and Variables
SAC in Civil 3D
Lane Design
Shoulder Design
Design of Curb Gutters
Generic Terms and Circular Sections
Tunnel Design
Slope Design
Transitions
Channel Design
Designing a Manifold in SAC
Designing a Collector in Civil 3D
Linear Model to .IFC
Standard cross-sections for grade-leveling
Loose-Material Dams
Design Profiles
Parametric Sections
Foundation Area
BIM Deliverables: Cross-Sections
Site Study
Dam Body Modeling
Linear Dimensions of the Dam Body
Auxiliary Linear Structures
BIM Deliverables
Integration of the Linear Design and Detailed Design
Detailed view of the dam body
Modeling of Switching Elements
Modeling Control Elements
Definition of Dam Body Model Details
Creating Parameters in Civil 3D
Creating Solids and Adding Properties to Solids
Creating Parameters in Revit
Using Parameters in Revit
Deliverables Derived from Revit Parameters. Application to Construction Monitoring
The SWMM environment for hydraulic network designs
Definition of Watersheds
Rain by Design. Time Series
Hydraulic profile of the conduits
Analysis Results. Visualization and Reports
Hydrological and Hydraulic Study Using Storm Sanitary Analysis
Educa PHAROS is a training solution for businesses that centralizes learning, simplifies user management, and allows progress to be tracked through dashboards and reports.
It is designed for organizations that want to develop internal skills, standardize role-based training, and have traceability and learning metrics.
It includes learning paths by profile, user and permission management, progress reports, certification, and access to masterclasses or live sessions (depending on the plan).
It is based on best practices in security, access control, learning tracking, and implementation support. Customize this text according to your commitments (SLA, compliance, etc.).
Educa PHAROS is a next-generation training model that places a company’s human capital at the forefront. Through a platform that adapts to each company’s corporate image and offers a total of more than 900 courses, it provides training tailored to each organization’s specific needs. The unlimited flat-rate plan provides each company with the number of courses that best suits its needs, as well as the ability to determine which employees will have access.
Civil Engineering 
Spanish 
Credits: 60 ECTS
Leadership and Management 
Spanish
60 ECTS