Master's degree in Geotechnical Engineering
Barcelona School of Civil Engineering (ETSECCPB)
The master's degree in Geotechnical Engineering (master's degree website) provides students with the training to pursue professional and academic careers in the fields of geotechnical engineering, hydrogeology, geophysics and earthquake engineering. Students develop specialist knowledge of geophysics and earthquake engineering and acquire the skills to predict, evaluate and reduce seismic hazards.
Specialisations
- Geotechnical Engineering
- Groundwater Hydrology
- Earthquake Engineering and Geophysics
- Duration and start date
- 2 academic years, 120 ECTS credits. Starting September and February
- Timetable and delivery
- Mornings and afternoons. Face-to-face
- Fees and grants
- Approximate fees for the master’s degree, excluding other costs (does not include non-teaching academic fees and issuing of the degree certificate):
€3,320 (€12,662 for non-EU residents).
More information about fees and payment options
More information about grants and loans - Language of instruction
- Spanish
Information on language use in the classroom and students’ language rights.
- Location
- Barcelona School of Civil Engineering
- Official degree
- Recorded in the Ministry of Education's degree register
- General requirements
- Academic requirements for admission to master's degrees
- Places
- 45
- Pre-enrolment
- Pre-enrolment closed (consult the new pre-enrolment periods in the academic calendar).
How to pre-enrol - Enrolment
- How to enrol
- Legalisation of foreign documents
- All documents issued in non-EU countries must be legalised and bear the corresponding apostille.
- Specialisation in (Eng) Especialitat en Enginyeria Geotècnica
- Specialisation in (Eng) Especialitat en Enginyeria Sísmica i Geofísica
- Specialisation in (Eng) Especialitat en Hidrologia Subterrània
First semester
- Continuum Mechanics 5
- Foundations and Earth Retaining Structures 5
- Geology for Engineering 5
- Groundwaves Generation and Propagation 5
- Modelling in Geoengineering 5
- Modelling of Flow and Transport in Porous Media 5
- Rock Mechanics 5
- Soils Mechanics 5
- Continuum Mechanics 5
- Geology for Engineering 5
- Groundwaves Generation and Propagation 5
- Modelling in Geoengineering 5
- Modelling of Flow and Transport in Porous Media 5
- Rock Mechanics 5
- Sismology 5
- Soils Mechanics 5
- Continuum Mechanics 5
- Geology for Engineering 5
- Groundwaves Generation and Propagation 5
- Modelling in Geoengineering 5
- Modelling of Flow and Transport in Porous Media 5
- Modelling of Soil and Groundwater Contamination 5
- Rock Mechanics 5
- Soils Mechanics 5
Second semester
- Advanced Soil Mechanics 5
- Geomechanics of Breakage 5
- Modern Monitoring Techniques for Ground Movements 5
- Numerical Modelling Tool in Geoengineering 5
- Slope Stability 5
- Tunnels and Rock Mechanics 5
- Unsaturated Soil Mechanics 5
- Advanced Methods in Seismic Damage Evaluation 5
- Bridges 5
- Composite Materials Structures 5
- Earthquake Engineering 5
- Geophysical Prospection 5
- Numerical Modelling Tool in Geoengineering 5
- Seismic Risk Assessment and Reduction 5
- Static and Dynamic Structural Analysis 5
- Tunnels and Rock Mechanics 5
- Aquifer Mechanics 5
- Aquifers Balance and Recharge 5
- Groundwater and Environment 5
- Interaction Between Groundwater and Civil Works 5
- Numerical Modelling Tool in Geoengineering 5
- Stochastic Methods in Hydrology 5
- Tunnels and Rock Mechanics 5
Third semester
- Constitutive Equations of Materials 5
- Geographic Information Systems 5
- Geotechnical Design and Construction 5
- Numerical Models in Geotechnical Engineering 5
- Quaternary Geology 5
- Seminars 5
- Soil Behaviour and Advanced Modelling 5
- Statistics Applied to Civil and Earthquake Engineering 5
- Advanced Seismic Resistent Design 5
- Geographic Information Systems 5
- Seismic Hazard Assessment 5
- Seminars 5
- Sismometry 5
- Statistics Applied to Civil and Earthquake Engineering 5
- Environmental Isotope Techniques in Groundwater Hydrology 5
- Geographic Information Systems 5
- Hydrogeochemical Modelling 5
- Hydrometeorological Processes and Their Interactions with the Ground 5
- Reactive Transport 5
- Seminars 5
- Statistics Applied to Civil and Earthquake Engineering 5
- Stochastic Modelling of Transport in Hete 5
Fourth semester
- CompulsoryECTS
- OptionalECTS
- ProjectECTS
Professional opportunities
- Professional opportunities
- Graduates of the master's degree are generally employed as managers or as experts working on teams in areas and activities related to geotechnical engineering.
- Management and planning of geotechnical works.
- Management and planning of water resources.
- Modelling, assessment and management of geological resources.
- Assessment and reduction of seismic risk.
- Assessment and reduction geological risk.
- Assessment and reduction of hydrogeological risk, including soil contamination.
- Land survey campaigns.
- Energy resource prospecting campaigns.
- Planning and management of waste storage solutions.
- Civil engineering, geotechnical, geological and seismic consulting.
- Hydrology and hydrogeology consulting.
- Doctoral studies in civil, geotechnical, geological and earthquake engineering.
- Doctoral studies in hydrology and hydrogeology.
- Competencies
-
Generic competencies
Generic competencies are the skills that graduates acquire regardless of the specific course or field of study. The generic competencies established by the UPC are capacity for innovation and entrepreneurship, sustainability and social commitment, knowledge of a foreign language (preferably English), teamwork and proper use of information resources.
Specific competencies
On completion of the master's degree, graduates will be able to:
• Apply scientific and technological concepts in analysing and solving problems.
• Characterise the geological environment and its interaction with civil works.
• Interpret laboratory tests and field observations to identify the mechanisms responsible for the Earth's response.
• Plan laboratory experiment programmes.
• Make, use and interpret models in analysing and solving problems.
• Observe, interpret, quantify and mathematically model the various processes that govern the Earth's response.
• Perform, present and defend, to a university examination board, an original, individually prepared exercise consisting of a study or project in the field of geotechnical engineering that brings together the competencies acquired in their education, adopts advances and new developments in the field and contributes innovative ideas.
Specialisation in Geotechnical Engineering
If they specialise in this area, they will be able to:
• Apply their knowledge of soil and rock mechanics in the study, design, construction and operation of foundations, embankments, slopes, tunnels and other structures.
• Apply advanced scientific and advanced technological concepts in analysing and solving complex geotechnical engineering problems.
• Carry out studies of land and urban area management, including the construction of tunnels and other underground railway infrastructure.
Specialisation in Groundwater Hydrology
If they specialise in this area, they will be able to:
• Evaluate and manage the environmental impact of waste storage and soil and subsoil contamination.
• Calculate, evaluate and regulate surface water and groundwater resources.
• Plan and implement hydraulic installations, including transport, distribution and storage facilities for solids, liquids and gases and water treatment and urban, industrial and hazardous waste management plants.
• Environmentally evaluate projects, plants and facilities.
• Evaluate and manage geological resources, including groundwater and mineral and thermal springs.
Specialisation in Earthquake Engineering and Geophysics
If they specialise in this area, they will be able to:
• Apply their knowledge of soil and rock mechanics in the study, design, construction and operation of foundations, embankments, slopes, tunnels and other constructions over or through land, whatever their nature and state and whatever the purpose of the work.
• Design civil structures considering seismic loads.
• Design remedial solutions.
• Assess seismic risk. Consider and design risk reduction measures.
• Identify all types of structures and materials.
• Design, plan, implement and maintain civil structures and buildings.
• Analyse structures by applying software design and advanced structural design methods.
• Assess structural integrity.
Check the degree’s main quality indicators in the University Studies in Catalonia portal of the Catalan University Quality Assurance Agency. Find information on topics such as degree evaluation results, student satisfaction and graduate employment data.
Further information
Further information
- UPC school
- Barcelona School of Civil Engineering (ETSECCPB)
- Academic coordinator
- Jean Vaunat
- Academic calendar
- General academic calendar for bachelor’s, master’s and doctoral degrees courses
- Academic regulations
- Academic regulations for master's degree courses at the UPC
Pre-enrolment
Pre-enrolment for this master’s degree is currently closed.
Use the “Request information” form to ask for information on upcoming pre-enrolment periods.