The Master’s degree in Geotechnical Engineering and Foundations at Structuralia aims at strengthening, increasing and consolidating the knowledge and skills of construction, geology and civil engineering professionals in the field of Geotechnical Engineering through a total of 9 modules.
Objectives
The students who successfully complete the Master’s degree in Geotechnical Engineering and Foundations will have knowledge and skills to perform specialized tasks and develop their professional career in the field of geotechnical engineering in civil engineering and construction companies, as well as in architecture firms.
- Strengthen and increase the student’s knowledge of geotechnical engineering.
- Provide solid theoretical and practical foundations for geotechnical engineering tasks.
- Provide indispensable tools for further professional and/or academic development in geotechnical engineering.
- Initiate students into numerical modeling and advanced constitutive models for soils and rocks in geotechnical engineering
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
Soil - Concept and Formation
Soil - Types of soil and sedimentary deposits
Granular Soils - Gravels and Sands
Cohesive Soils - Silts and Clays
Cohesive Soils - Structure, Types and Properties of clays
Basic Properties - Volume and Weight
Basic Properties - Granular Soils
Basic Properties - Cohesive Soils
Unified Soil Classification System (USCs)
AASHTO Soil Classification System
The Rock Cycle. Plate Tectonics and Deformations of the Earth’s Crust.
Igneous Rocks
Sedimentary Rocks
Metamorphic Rocks
Rock, Rock Matrix and Rock Mass
Properties of the Rock Matrix
Properties of The Rock Mass. Discontinuities
Geomechanical Classifications - RMR (ROCK MASS RATING)
Geomechanical Classifications - The Q Index
The GSI Index - Geological Strength Index
Groundwater. Aquifer Types.
Darcy's Law. Hydraulic Head and Hydraulic Gradient. Permeability.
Mechanics and Theory of Fluid Flow in Porous Media.
Flow Nets.
The Method of Fragments.
The Effective Stress Principle. Application in Soil and Rocks.
Stress Distribution in the Ground.
Hydraulic heave, uplift, internal erosion and piping.
Filters. Concept, Use and Preliminary Design.
Water Effects on the Rock Matrix and the Rock Mass.
Introduction.
The Magnitude of the Consolidation Settlement.
The Evolution of the Consolidation Settlement.
The Parabolic Isochrones Theory.
Preloading and Mixed and Radial Consolidation
Construction of Wells.
Design of Wells. Analytical Solutions for Individual Wells.
Design of Groups of Wells. Analytical Solutions for groupd of wells.
Construction of Wellpoints.
Design of Wellpoints.
Preliminary Works
Design and Planning of Ground Investigation
Ground Investigation and Preliminary Research
Drilling Techniques [2] and Sampling methods
In Situ Testing for Soils and Rock Masses
Identification and State Tests (I)
Identification and State Tests (II)
Resistance Tests (I)
Resistance Tests (II)
Interpretation of Triaxial Shear Tests
Deformability Tests
Interpretation of Oedometer Tests
Compaction and Reuse Tests
Rocks Tests (I)
Rocks Tests (II)
Introduction to Instrumentation and Monitoring
Instrumentation Equipment I
Instrumentation Equipment II
Instrumentation Equipment III
Real case studies
The Stress Tensor. Total, Effective and Pore Stresses. Mohr’s Circle for Stresses.
Strain Tensor. Mohr’s Circle for strains.
Continuum mechanics. Definition of the mathematical problem..
Elasticity Equations and Parameters.
Main Elastic Solutions in Soil and Rock Mechanics.
Introduction to Plasticity.
Yield Criterion. Types of Plastic Behavior.
Plastic Flow and Plastic Potential.
Main Theorems and Postulates of the Theory of Plasticity.
The Mohr-Coulomb Elastoplastic Model.
Rheological Models.
The Hardening Soil Model.
The Hardening Soil Small Model.
The Cam-Clay Model.
The Hoek and Brown Constitutive Model.
The Barton-Choubey Constitutive Model for Joints and Discontinuities.
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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 
English 
Credits: 60 ECTS
Leadership and Management 
Spanish
60 ECTS