The Master’s in Energy Technology for Sustainable Development offers in-depth specialization for professionals in the energy sector who seek to lead the transition toward a sustainable model. You will explore the global environmental and energy context, analyzing the dynamics that drive the adoption of renewable energy technologies over non-renewable ones. This perspective will enable you to make informed decisions regarding the strategic direction of energy projects and policies, driving the global energy transition. You will delve into the technical characteristics of hydro and wind power generation, understanding their applications and optimization strategies to maximize performance and efficiency. You will explore the technological context and specific characteristics of biomass energy, from its fundamentals to its most advanced technical features. This knowledge will enable you to evaluate and select the most appropriate solutions for various energy production scenarios, taking into account their impact and feasibility. In addition, you will specialize in the design and management of renewable electricity self-consumption facilities. You will master the key aspects and specific equipment required for these systems, always within the context of current developments and applicable regulations. You will develop a strategic vision for implementing projects that not only optimize consumption but also actively contribute to energy sustainability and operational efficiency. This program is designed to help you update your skills and lead innovation in the sector, anticipating market demands and future regulations, thereby solidifying your profile as an expert in sustainable energy.
Objectives
• Integrate the global energy and environmental context into the strategy for sustainable projects. • Evaluate energy generation technologies—both renewable and conventional—to optimize their application in large-scale initiatives. • Design efficient electricity generation systems based on hydro and wind resources. • Manage the implementation of biomass technologies—from their broader context to their technical specifications—to support sustainable development. • Lead electricity self-consumption projects using renewable sources, ensuring compliance with applicable regulations. • Implement advanced systems and specialized equipment to optimize the efficiency and integration of self-consumption installations. • Demonstrate the technical and economic feasibility of renewable energy projects, taking into account their entire life cycle.
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 cases, digital tools, and support from a team of specialized instructors.
Program
The Kyoto Protocol and Environmental Issues
Environmental Consequences
History and Current Energy Context
Global Energy Reserves
Introduction to Types of Power Generation
Primary and Final Energy
Definition and Types of Energy Vectors
Renewable and Non-Renewable Energy Sources
Non-renewable energy sources: nuclear and fossil fuels
Solar Renewable Energy Sources
Technological Classification of Renewable Energy Sources
Groups and subgroups of the various renewable energy technologies.
Introduction to Hydro and Wind Power Generation
Water-Based Energy Technologies: Hydroelectric and Ocean Energy
Wind Energy Technologies: Onshore and Offshore Wind Power
Introduction to Biomass Energy
Advantages and Disadvantages of Biomass Among Energy Sources
Context and Energy Requirements for Biomass at the European and National Levels
Classification of the Different Types of Biomass
Characteristics of the Different Types of Biomass
Energy Conversion Using Thermochemical and Biochemical Methods
Forms of energy: heat, biofuel, electricity generation, and cogeneration
Applications and Boilers: A Case Study
Economic Aspects of Biomass Conversion
Biofuels: Biodiesel and Bioethanol
The Electricity Market: The Electricity Pool, How It Works, and Billing Terms
Electric Power Distribution
Centralized and Distributed Electricity Generation
Technical Characteristics of Distributed Generation Networks.
Smart Energy and Communication Microgrids: Near or Distant Future?
Energy Self-Consumption: Concept, Benefits, and Possibilities
Network parity
Types of Self-Consumption
Load Management and Monitoring Equipment
Measurement and Control Equipment. Unidirectional and Bidirectional Meters
Net and Instantaneous Self-Consumption. Problems, Solutions, and Current Status
European Policy Framework
National Regulatory Framework for Self-Consumption
Procedure for Connecting Renewable Energy Facilities to the Low-Voltage Grid
Phases and steps for applying to connect renewable energy facilities of any capacity
Procedure for Legalizing Self-Consumption Installations
Financial Compensation for Renewable Energy Fed into the Grid
Technical Characteristics and Types of Low-Voltage Power Generation Systems. ITC-BT-40.
General Terms and Conditions
Connection Requirements. Types of Self-Consumption Plans
Diagram of off-grid systems. Type A.
Diagrams of a C1-type power generation facility connected to the distribution grid and associated supply system
Diagrams of a C1-type power generation system connected to the internal grid and associated power supply
Diagrams of a C2-type power generation facility with an associated power supply
Maximum Power in Low-Voltage Interconnected Power Plants
Switchgear and metering equipment to be installed at the interconnection point
Reactive Power Control
Connection Cables
Waveform
Protections
Grounding Systems
Startup
Cogeneration and Absorption
Heat Pumps
Energy Storage Systems
Hydrogen Fuel Cells
CO2 Capture and Storage
Current Situation at the Thermal Power Plant
The Future of Thermoelectric Power
Introduction to Thermodynamics
Thermal Machines and Thermodynamic Cycles for Electricity Generation
Classification of Concentrating Solar Thermal Systems (CSTS)
Concentration of solar radiation
Comparison of the Different Systems
Main Components of Parabolic Trough Collectors
Solar Field Configuration
The Power Block
Electrical, Control, and Auxiliary Systems
Angle of incidence of a parabolic trough collector
Energy Balance of the Parabolic Trough Collector
Components
Overview of Central Tower Technology
Energy Balance
Parabolic Dish Technology
Fresnel Concentrator Technology
Hybridization
Storage
R&D&I Development
Examples of plants in operation
Maintenance. Failures and Consequences
Investment Structure
Benefits and Environmental Impact
History of Hydrogen
What is hydrogen?
Current Electricity and Energy Matrix
Hydrogen as an Energy Carrier
Outlook for the Hydrogen Roadmap
PEM Electrolysis
Alkaline Electrolysis
SOEC and AEM Electrolysis
Hydrogen Storage
Hydrogen Distribution
Fuel Cells
PEM Fuel Cells
AT Fuel Cells
Hydrogen Turbines and Engines
Fuel-Cell Vehicles
Refueling stations
Sizing of Major Equipment
Safety Considerations. Explosive Atmospheres
Design of Hydrogen-Related Facilities and Fuel Cells
Example of an installation calculation.
Basics of Instrumentation
Types of Sensors and Transducers
Data Acquisition Systems
Calibration of Measuring Equipment
Instrument Maintenance and Inspection
Electrical parameters: voltage, current, power
Thermal parameters: temperature, heat flux
Flow Measurement in Fluid Systems
Monitoring in Solar Power Systems
Monitoring in Wind Power Systems
Energy Management Systems (EMS)
Programmable Logic Controllers (PLCs) and Their Application in Energy Facilities
Energy Systems Automation
Energy Demand Management
Remote Monitoring of Energy Facilities
Communication Protocols in Energy Systems
Wireless Sensor Networks
SCADA Technologies for Monitoring and Control
Cybersecurity in the Monitoring of Energy Facilities
Example of Implementing a Communication System for Monitoring
Concepts and Objectives of Environmental Impact Assessment (EIA)
Legal and Regulatory Framework for EIA
Environmental Impact Assessment Methodologies
Key Stakeholders, Procedures, and Phases of an EIA
Life Cycle Assessment (LCA)
Energy and Types of Energy Projects
Environmental Effects of Fossil Fuels
Solar Energy and Its Environmental Impact
Wind Energy and Its Environmental Impact
Hydropower and Its Environmental Impact
Qualitative and Quantitative Environmental Impact Assessment Techniques
Environmental Testing and Simulation Models
Key Environmental Indicators
Environmental Mitigation Measures
Compensatory and Remedial Measures
Environmental Impact Assessment of Solar Farms
Environmental Impact Assessment of Wind Energy Projects
Environmental Impact Assessment for Power Generation Projects: Biomass
Impact Analysis of Large Linear Energy Infrastructure: Power Lines
Compendium of Best Practices in Environmental Management for Energy Projects
Introduction to HVAC Systems
Primary loop
Secondary loop
Heating and Cooling
Transport Fluid and Terminal Units
Aerothermal Energy: Concept and Characteristics
Geothermal Heating. Design and Calculations
Geothermal Energy: Concept and Characteristics
Geothermal Energy: Design and Calculations
Comparative Study
Introduction to Ventilation
Ventilation Systems in Residential Buildings
Ventilation in Commercial Buildings
Primary Air Conditioners
Ventilation Systems: Design and Calculations
Introduction
Demand Assessment
Residential Buildings: Design and Calculations
Commercial Buildings: Design and Calculations
Case Study
Session 1: Introduction to Sustainable Construction
Educa PHAROS is a training solution for businesses that centralizes learning, simplifies user management, and allows you to track progress 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 traceability, 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 identity and offers a total of more than 900 courses, it provides tailored training for each organization. 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.
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Industry, Energy, and the Environment 
Spanish 
Credits: 60 ECTS
Leadership and Management 
Spanish
60 ECTS
Architecture and Construction