The Master’s degree in Hydrogen Energy Projects has been designed to provide students with cross-disciplinary knowledge related to key aspects of the hydrogen energy production sector. In fact, it is intended to help students develop the necessary skills to successfully participate in various projects, from the conceptual to the strategic stage. Therefore, and to this end, this program has been structured into 9 modules that progressively explore the characteristics of hydrogen as an element, as well as its energy and environmental impact. This program also examines the context of hydrogen as an energy source by analyzing the associated production technologies and the subsequent conversion process using fuel cells. It also covers storage and control systems within the supply chain, the implications of hydrogen for mobility and infrastructure, and, of course, its uses and applications. In addition, other key aspects—such as the construction of hydrogen refueling stations, the strategic and geopolitical dimensions of the sector, and, finally, the economic and business aspects of hydrogen production—are also addressed. Furthermore, the program provides the necessary theoretical framework, case studies, and practical exercises to enable students to apply the knowledge they have acquired. Finally, at the end of the course, all the knowledge and skills learned throughout the master’s program will be assessed through a final project.
Objectives
By pursuing this master's degree, students will be able to:
- Learn about hydrogen in terms of its properties as an element, as an energy carrier, and its environmental impact.
- Explore hydrogen production and conversion methods.
- Apply relevant storage and control systems.
- Explore the associated infrastructure and modes of transportation.
- Master the use and applications of hydrogen.
- Explore the fundamental aspects of hydrogen fueling stations.
- Learn about the key players in the sector through a strategic perspective.
- Master the economic and business aspects associated with hydrogen energy projects
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 History of Hydrogen
What is hydrogen?
Current Electricity and Energy Mix
Hydrogen as an energy carrier
Prospects for the Hydrogen Roadmap
PEM electrolysis
Alkaline electrolysis
SOEC and AEM electrolysis
Hydrogen Storage
Hydrogen Distribution
Fuel Cells
PEM fuel cell
High-temperature fuel cell
Hydrogen Turbines and Engines
Hydrogen vehicles
Refuelling stations
Sizing of Main Equipment
Safety Considerations: Explosive Atmospheres
Design of Hydrogen and Fuel Cell Facilities
Examples of installation calculations
Energy Production and Its Evolution
Fossil fuels. The end of an era
Strategies for Sustainability
Energy Demand and Transition
Energy and the Future of Fuel
Climate Change
Effects and Strategies Related to Climate Change
The Energy Transition Roadmap
The Evolution of the Energy Transition
Carbon credits and ESG criteria
Drivers of the Energy Transition
Renewable electricity generation, electrification, and storage
Mobility and Transportation
Carbon capture and storage
Circular Economy and New Materials
Hydrogen (H2)
Bioenergy
Integration of bioenergy processes with other technologies
The Cities of the Future (Smart Cities)
Entrepreneurship and Enabling Technologies and Developments for Decarbonization
Hydrogen production
Hydrocarbon Reforming
Partial oxidation and other hydrocarbon-based processes
Coal and Biomass Gasification
Advantages and Disadvantages: A Comparison of the Different Processes
Electrolytic processes
Alkaline electrolysers
Polymer electrolyzer
Alternatives for Green Hydrogen Production
Level of technological maturity
Origin and Operation of Fuel Cells
Composition and Types of Fuel Cells
Operation of Polymer Batteries
Polymer battery components
Progress and Future Expectations
Solid-oxide fuel cells. Geometries and materials
Fuel Cell Efficiency
Alkaline, phosphoric acid, and molten carbonate batteries
Microbial fuel cell
Fuel Cell Design and Costing
Storage Systems and Their Characteristics
Storage in the form of compressed hydrogen gas
Pressure Vessels: Types, Characteristics, and Development Objectives
Specifications of the EIHP (European Integrated Hydrogen Project)
Examples of development projects
Liquid Hydrogen Storage Systems and Characteristics
Storage, distribution, and dispensing of liquid hydrogen
Liquid Hydrogen Storage Tanks: Types, Characteristics, and Development Objectives
Specifications of the EIHP (European Integrated Hydrogen Project)
Examples of development projects
General Concepts
Metal hydrides
Intermetallic compounds
Carbonaceous materials and organic polymers
Glass microspheres
Control Theory
Model-Based Predictive Control (MPC)
Hydrogen System Modeling
Control Strategies
Related standards and regulations
Light transport
Heavy-duty transport
Captive fleets
Railway sector
Infrastructures
Energy Transition in Air Transport
Sustainable aviation fuels
Energy Transition in Maritime Transport
Sustainable Fuels for Maritime Transport
The Evolution of Air and Maritime Transportation
Risk of hydrogen
Hydrogen Detection
Security Considerations
Explosive environments
Hydrogen Risk Assessment
Hydrogen Production Pathways
Distributed generation systems
Comparison of Power Generation Systems
Environmental, Health, and Safety Aspects of Hydrogen Production Pathways
Safety and Risks Associated with Hydrogen Transmission, Distribution, and Storage
Large-scale power generation
Decentralized power generation systems
Microgeneration Power Systems
Uninterruptible Power Supply (UPS) Systems
Combined heat and power systems
Introduction and Future Outlook for Mobile Applications
Forklift trucks
Passenger cars and buses
Air Mobility and Maritime Mobility
Other vehicles
Reversible fuel cells
Space Applications
Micro fuel cells
Portable generators
Other systems
Power-to-X: Fundamentals and Concepts
Power-to-Gas (PTG)
Power-to-Liquid (PTL)
Power-to-Heat (PTH)
Hydrogen and Its Applications Worldwide
Materials, pipelines, and accessories
Feed systems and storage
Hydrogen compressors
Auxiliary components and systems
Hydrogen dispensers
Setup and Operation of a Hydrogen Refueling Station
Instrumentation and Control Systems
Inspection Protocols
Gas Station Operations
Maintenance Tasks
Safety Fundamentals
Safety Methodologies and Risk Assessment
Risk mitigation, explosive atmospheres, and ATEX
Safety Distance at Hydrogen Facilities
Protective measures against external agents
ISO 14687. Hydrogen Fuel Quality
ISO 17268. Hydrogen refueling devices
ISO 19880-1. Fueling stations. General requirements
ISO 22734. Electrolyzers
IEC 62282-3-100. Stationary Fuel Cell Power Systems
The Basics of the Geopolitics of the Energy Transition
The Political History of Hydrogen: Bubbles and Expectations
The Rise of Hydrogen Geopolitics
Hydrogen Geopolitics in the Context of Climate Change
Actors in hydrogen geopolitics
Importers: The Case of the European Union
Hydrogen in the Survival and Energy Transition of Petro-States: The Case of the Gulf Cooperation Council
Emerging exporters and neo-extractivism
Emerging Tech Superpowers: China
Emerging Industrial Power: The United States
Hydrogen in the New Globalization of Derisking, Decoupling, and Friendshoring
Strategic Minerals for the Hydrogen Economy
The Geopolitics of Electrolyzers
Hydrogen and the Reconfiguration of Value Chains
Hydrogen and the Return of Industrial Policies
Hydrogen diplomacy
Hydrogen and the Geopolitics of Critical Infrastructure
Hydrogen and Green Colonialism
Allies and Rivals in Hydrogen Geopolitics
Comparative Study of Hydrogen Strategies in the EU
Europe's technological, economic, and environmental potential
European deployment plans: the hydrogen valleys
Drivers for Hydrogen and Fuel Cell Investment
Supply and Demand Development Initiatives
The Path to Technology Commercialization
Fuel Cell Handling Equipment
Residential use. Fuel cell cogeneration
Combined Heat and Power (CHP)
Hydrogen Production Without CO2 Capture. Part I
Hydrogen Production with and without CO2 Capture. Part II
Overview of Economic Viability
Economic Viability Plan
Investment and Financing Plan
Profitability and Risks in Hydrogen Projects: A Financial Approach
Commercialization Strategies and Feasibility in the Hydrogen Industry: Economic and Business Perspectives
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.
Industry, Energy, and the Environment 
English 
Credits: 60 ECTS
Leadership and Management 
Spanish
60 ECTS
Architecture and Construction