A comprehensive and 100% online program, exclusive to TECH, with an international perspective backed by our membership in the American Society for Engineering Education”

Climate change, the scarcity of fossil resources, and the progressive deterioration of the environment have driven both public and private institutions to make a strong commitment to cleaner and more sustainable energy sources. In this context, hydrogen has emerged as one of the most promising energy vectors, supported by major energy companies seeking to maintain their leadership through technological innovation. 

This scenario creates highly favorable professional opportunities for engineering graduates who wish to specialize in a constantly expanding field. However, this requires highly qualified professionals with a global vision of the sector and advanced technical knowledge of each link in its value chain: production, storage, transport, distribution, and final application. As such, this university program represents an excellent opportunity for engineering professionals who want to advance their careers from anywhere and at any time.

Throughout the program, students will delve into key aspects such as fuel cells, hydrogen refueling stations for vehicles, current regulations, emerging markets, and applicable safety criteria. In addition, they will benefit from dynamic teaching resources, case studies, and multimedia content that will equip them to successfully address the planning, management, and techno-economic evaluation of projects linked to this technology. As a complement, participants will also receive the academic support of 10 rigorous Masterclasses delivered by a distinguished International Guest Director.

Thanks to TECH's membership in the American Society for Engineering Education (ASEE), its students gain free access to annual conferences and regional workshops that enrich their engineering education.  Additionally, they enjoy online access to specialized publications such as Prism and the Journal of Engineering Education, enhancing their academic development and expanding their professional network on an international scale.

A renowned International Guest Director will deliver exclusive Masterclasses on the latest innovations in Hydrogen Technology ”

This Master's Degree in Hydrogen Technology contains the most complete and up-to-date university program on the market. Its most notable features are:

• The development of practical case studies presented by experts in Hydrogen Technology
• The graphic, schematic, and practical contents with which they are created, provide scientific and practical information on the disciplines that are essential for professional practice
• Practical exercises where self-assessment can be used to improve learning
• Its special emphasis on innovative methodologies
• Theoretical lessons, questions to the expert, debate forums on controversial topics, and individual reflection assignments
• Content that is accessible from any fixed or portable device with an internet connection

Specialize in hydrogen production from biomass using techniques such as gasification and pyrolysis”

The teaching staff includes professionals from the field of Hydrogen Technology who contribute their work experience to this program, along with distinguished specialists from leading societies and prestigious universities.

The multimedia content, developed with the latest educational technology, will provide the professional with situated and contextual learning, i.e., a simulated environment that will provide an immersive learning experience designed to prepare for real-life situations.

This program is designed around Problem-Based Learning, whereby the student must try to solve the different professional practice situations that arise throughout the program. For this purpose, the professional will be assisted by an innovative interactive video system created by renowned and experienced experts.

Discover how hydrogen is obtained as a byproduct in petrochemical and chlor-alkali processes"

Delve into the generation, transport, and use of hydrogen in innovative vehicle projects"

The contents of this Master's Degree have been designed by specialists in energy engineering and sustainability. Thanks to this approach, the curriculum explores the hydrogen value chain in depth, from its production through electrolysis to its final use in mobility, industry, and power generation. The syllabus covers technical, regulatory, and economic aspects, as well as project management tools and feasibility analysis. In this way, graduates will be prepared to lead strategic projects in the hydrogen sector and contribute to the transition toward a cleaner and more efficient energy model.

Study the innovative methods of water separation for the production of green hydrogen”

Module 1. Hydrogen as an Energy Vector

1.1. Hydrogen as an Energy Vector. Global Context and Need

1.1.1. Political and Social Context
1.1.2. Paris Agreement on CO₂ Emission Reduction
1.1.3. Circularity

1.2. Hydrogen Development

1.2.1. Discovery and Production of Hydrogen
1.2.2. Role of Hydrogen in Industrial Society
1.2.3. Hydrogen Today

1.3. Hydrogen as a Chemical Element: Properties

1.3.1. Properties
1.3.2. Permeability
1.3.3. Flammability Index and Buoyancy

1.4. Hydrogen as a Fuel

1.4.1. Production of Hydrogen
1.4.2. Storage and Distribution of Hydrogen
1.4.3. The Use of Hydrogen as a Fuel

1.5. Hydrogen Economy

1.5.1. Decarbonization of the Economy
1.5.2. Renewable Energy Sources
1.5.3. The Path Toward the Hydrogen Economy

1.6. Hydrogen Value Chain

1.6.1. Production
1.6.2. Storage and Transportation
1.6.3. Final Uses

1.7. Integration with Existing Energy Infrastructures: Hydrogen as an Energy Vector

1.7.1. Regulations
1.7.2. Issues Related to Hydrogen Embrittlement
1.7.3. Integration of Hydrogen into Energy Infrastructures. Trends and Realities

1.8. Hydrogen Technologies. Current Status

1.8.1. Hydrogen Technologies
1.8.2. Technologies in Development
1.8.3. Key Projects for Hydrogen Development

1.9. Relevant “Model Projects”

1.9.1. Production Projects
1.9.2. Flagship Projects in Storage and Transport
1.9.3. Projects Applying Hydrogen as an Energy Vector

1.10. Hydrogen in the Global Energy Mix: Current Situation and Perspectives

1.10.1. The Energy Mix. Global Context
1.10.2. Hydrogen in the Energy Mix. Current Situation
1.10.3. Pathways for Hydrogen Development. Perspectives

Module 2. Hydrogen Production and Electrolysis

2.1. Production from Fossil Fuels

2.1.1. Production by Hydrocarbon Reforming
2.1.2. Generation through Pyrolysis
2.1.3. Coal Gasification

2.2. Production From Biomass

2.2.1. Hydrogen Production by Biomass Gasification
2.2.2. Hydrogen Generation through Biomass Pyrolysis
2.2.3. Aqueous Reforming

2.3. Biological Production

2.3.1. Water Gas Shift Reaction (WGSR)
2.3.2. Dark Fermentation for Biohydrogen Generation
2.3.3. Photofermentation of Organic Compounds for Hydrogen Production

2.4. By-Product of Chemical Processes

2.4.1. Hydrogen as a By-Product of Petrochemical Processes
2.4.2. Hydrogen as a By-Product of Caustic Soda and Chlorine Production
2.4.3. Synthesis Gas as a By-Product Generated in Coke Ovens

2.5. Water Separation

2.5.1. Photolytic Hydrogen Formation
2.5.2. Hydrogen Generation by Photocatalysis
2.5.3. Hydrogen Production by Thermal Water Splitting

2.6. Electrolysis: the Future of Hydrogen Generation

2.6.1. Hydrogen Generation by Electrolysis
2.6.2. Oxidation-Reduction Reaction
2.6.3. Thermodynamics of Electrolysis

2.7. Electrolysis Technologies

2.7.1. Low-Temperature Electrolysis: Alkaline and Anionic Technology
2.7.2. Low Temperature Electrolysis: PEM
2.7.3. High-Temperature Electrolysis

2.8. Stack: The Heart of an Electrolyzer

2.8.1. Materials and Components in Low-Temperature Electrolysis
2.8.2. Materials and Components in High-Temperature Electrolysis
2.8.3. Stack Assembly in Electrolysis

2.9. Balance of Plant and System

2.9.1. Balance of Plant Components
2.9.2. Balance of Plant Design
2.9.3. Balance of Plant Optimization

2.10. Technical and Economic Characterization of Electrolyzers

2.10.1. Capital and Operating Costs
2.10.2. Technical Characterization of an Electrolyzer Operation
2.10.3. Techno-Economic Modeling

Module 3. Hydrogen Storage, Transportation and Distribution

3.1. Hydrogen Storage, Transportation, and Distribution Forms

3.1.1. Hydrogen Gas
3.1.2. Liquid Hydrogen
3.1.3. Hydrogen Storage in Solid State

3.2. Hydrogen Compression

3.2.1. Hydrogen Compression. Need
3.2.2. Problems Associated with the Compression of Hydrogen
3.2.3. Equipment

3.3. Gaseous State Storage

3.3.1. Problems Associated with Hydrogen Storage
3.3.2. Types of Storage Tanks
3.3.3. Storage Tank Capacities

3.4. Transportation and Distribution in Gaseous State

3.4.1. Transportation and Distribution in Gaseous State
3.4.2. Distribution by Road
3.4.3. Use of the Distribution Network

3.5. Hydrogen Storage, Transportation and Distribution as Liquid

3.5.1. Process and Conditions
3.5.2. Equipment
3.5.3. Current Status

3.6. Storage, Transportation and Distribution as Methanol

3.6.1. Process and Conditions
3.6.2. Equipment
3.6.3. Current Status

3.7. Storage, Transportation and Distribution as Green Ammonia

3.7.1. Process and Conditions
3.7.2. Equipment
3.7.3. Current Status

3.8. Storage, Transportation and Distribution as LOHC (Liquid Organic Hydrogen Carriers)

3.8.1. Process and Conditions
3.8.2. Equipment
3.8.3. Current Status

3.9. Hydrogen Export

3.9.1. Hydrogen Export. Need
3.9.2. Production Capacities of Green Hydrogen
3.9.3. Transportation: Technical Comparison

3.10. Techno-Economic Comparative Analysis of Large-Scale Logistics Alternatives

3.10.1. Cost of Hydrogen Export
3.10.2. Comparison of Different Means of Transport
3.10.3. The Reality of Large-Scale Logistics

Module 4. Final Uses of Hydrogen

4.1. Industrial Uses of Hydrogen

4.1.1. Hydrogen in Industry
4.1.2. Origin of the Hydrogen Used in Industry. Environmental Impact
4.1.3. Industrial Applications in Industry

4.2. Industries and Hydrogen: Production of e-Fuels

4.2.1. e-Fuel Versus Traditional Fuels
4.2.2. Classification of e-Fuels
4.2.3. Current Status of e-Fuels

4.3. Ammonia Production: The Haber-Bosch Process

4.3.1. Nitrogen in Figures
4.3.2. Haber-Bosch Process. Process and Equipment
4.3.3. Environmental Impact

4.4. Hydrogen in Refineries

4.4.1. Hydrogen in Refineries. Need
4.4.2. Hydrogen Used Today. Environmental Impact and Cost
4.4.3. Short- and Long-Term Alternatives

4.5. Hydrogen in Steel Plants

4.5.1. Hydrogen in Steel Plants. Need
4.5.2. Hydrogen Used Today. Environmental Impact and Cost
4.5.3. Short- and Long-Term Alternatives

4.6. Natural Gas Substitution: Blending

4.6.1. Properties of the Blend
4.6.2. Challenges and Required Improvements
4.6.3. Opportunities

4.7. Injection of Hydrogen into the Natural Gas Network

4.7.1. Methodology
4.7.2. Current Capacities
4.7.3. Challenges

4.8. Hydrogen in Mobility: Fuel Cell Vehicles

4.8.1. Context and Need
4.8.2. Equipment and Schemes
4.8.3. Current Status

4.9. Cogeneration and Electricity Production with Fuel Cells

4.9.1. Production with Fuel Cells
4.9.2. Grid Injection
4.9.3. Microgrids

4.10. Other Final Uses of Hydrogen:  Chemical, Semiconductor, and Glass Industries

4.10.1. Chemical Industry
4.10.2. Semiconductor Industry
4.10.3. Glass Industry

Module 5. Hydrogen Fuel Cells

5.1. PEMFC (Proton-Exchange Membrane Fuel Cell)

5.1.1. Chemistry Governing PEMFCs
5.1.2. Operation of the PEMFC
5.1.3. Applications of PEMFCs

5.2. Membrane-Electrode Assembly in PEMFCs

5.2.1. Materials and Components of MEA
5.2.2. Catalysts in PEMFCs
5.2.3. Circularity in PEMFC

5.3. Stack in PEMFCs

5.3.1. Stack Architecture
5.3.2. Assembly
5.3.3. Current Generation

5.4. Balance of Plant and System in PEMFCs

5.4.1. Components of the Balance of Plant
5.4.2. Balance of Plant Design
5.4.3. System Optimization

5.5. SOFC (Solid Oxide Fuel Cells)

5.5.1. Chemistry Governing SOFCs
5.5.2. Operation of SOFCs
5.5.3. Applications of SOFCs

5.6. Other Types of Fuel Cells: Alkaline, Reversible, Direct Methanation

5.6.1. Alkaline Fuel Cells
5.6.2. Reversible Fuel Cells
5.6.3. Direct Methanation Fuel Cells

5.7. Applications of Fuel Cells I. In Mobility, Power Generation, Thermal Generation

5.7.1. Fuel Cells in Mobility
5.7.2. Fuel Cells in Power Generation
5.7.3. Fuel Cells in Thermal Generation

5.8. Fuel Cell Applications II. Techno-Economic Modeling

5.8.1. Technical and Economic Characterization of PEMFCs
5.8.2. Capital and Operating Costs
5.8.3. Technical Characterization of PEMFC Performance
5.8.4. Techno-Economic Modeling

5.9. Sizing PEMFCs for Different Applications

5.9.1. Static Modeling
5.9.2. Dynamic Modeling
5.9.3. Integration of PEMFCs in Vehicles

5.10. Grid Integration of Stationary Fuel Cells

5.10.1. Stationary Fuel Cells in Renewable Microgrids
5.10.2. System Modeling
5.10.3. Techno-Economic Study of a Stationary Fuel Cell

Module 6. Hydrogen Refueling Stations

6.1. Hydrogen Vehicle Refueling Corridors and Networks

6.1.1. Hydrogen Vehicle Refueling Networks. Current Status
6.1.2. Global Hydrogen Vehicle Refueling Station Deployment Targets
6.1.3. Cross-Border Corridors for Hydrogen Refueling

6.2. Types of Hydrogen Refueling Stations, Modes of Operation, and Dispensing Categories

6.2.1. Types of Hydrogen Refueling Stations
6.2.2. Operational Modes of Hydrogen Refueling Stations
6.2.3. Dispensing Categories According to Standards

6.3. Design Parameters

6.3.1. Hydrogen Refueling Station. Elements
6.3.2. Design Parameters Based on Hydrogen Storage Type
6.3.3. Design Parameters Based on Intended Station Use

6.4. Storage and Pressure Levels

6.4.1. Storage of Gaseous Hydrogen in Refueling Stations
6.4.2. Pressure Levels in Gas Storage
6.4.3. Storage of Liquid Hydrogen in Refueling Stations

6.5. Compression Stages

6.5.1. Hydrogen Compression. Need
6.5.2. Compression Technologies
6.5.3. Optimization

6.6. Dispensing and Precooling

6.6.1. Precooling by Standard and Vehicle Type. Need
6.6.2. Cascade Hydrogen Dispensing
6.6.3. Thermal Phenomena in Dispensing

6.7. Mechanical Integration

6.7.1. On-Site Hydrogen Production Refueling Stations
6.7.2. Refueling Stations Without On-Site Hydrogen Production
6.7.3. Modularization

6.8. Applicable Regulations

6.8.1. Safety Regulations
6.8.2. Hydrogen Quality Standards and Certifications
6.8.3. Civil Regulations

6.9. Preliminary Design of a Hydrogen Refueling Station

6.9.1. Case Study Presentation
6.9.2. Case Study Development
6.9.3. Resolution

6.10. Cost Analysis

6.10.1. Capital and Operating Costs
6.10.2. Technical Characterization of a Hydrogen Refueling Station’s Operation
6.10.3. Techno-Economic Modeling

Module 7. Hydrogen Markets

7.1. Energy Markets

7.1.1. Integration of Hydrogen in the Gas Market
7.1.2. Interaction of Hydrogen Price with Fossil Fuels Prices
7.1.3. Interaction of the Hydrogen Price with the Electricity Market Prices

7.2. Calculation of LCOHs and Sales Price Ranges

7.2.1. Presentation of the Case Study
7.2.2. Development of the Case Study
7.2.3. Resolution

7.3. Global Demand Analysis

7.3.1. Current Hydrogen Demand
7.3.2. Hydrogen Demand from New Applications
7.3.3. Objectives for 2050

7.4. Analysis of Hydrogen Production and Types

7.4.1. Current Hydrogen Production
7.4.2. Green Hydrogen Production Plans
7.4.3. Impact of Hydrogen Production on the Global Energy System

7.5. International Roadmaps and Plans

7.5.1. Presentation of International Plans
7.5.2. Analysis of International Plans
7.5.3. Comparison of Different International Plans

7.6. Potential Green Hydrogen Market

7.6.1. Green Hydrogen in the Natural Gas Network
7.6.2. Green Hydrogen in Mobility
7.6.3. Green Hydrogen in Industries

7.7. Large-Scale Projects in Deployment: U.S, Japan, Europe, China

7.7.1. Project Selection
7.7.2. Analysis of Selected Projects
7.7.3. Conclusions

7.8. Centralization of Production: Countries with Export and Import Potential

7.8.1. Renewable Hydrogen Production Potential
7.8.2. Renewable Hydrogen Import Potential
7.8.3. Large-Volume Hydrogen Transport

7.9. Guarantees of Origin

7.9.1. Need for a Guarantees of Origin System
7.9.2. CertifHy
7.9.3. Approved Guarantees of Origin Systems

7.10. Hydrogen Supply Contracts: Offtake Contracts

7.10.1. Importance of Offtake Agreements for Hydrogen Projects
7.10.2. Key Elements of Offtake Agreements: Price, Volume and Duration
7.10.3. Review of a Standard Contract Structure

Module 8. Regulatory and Safety Aspects of Hydrogen

8.1. EU Policies

8.1.1. European Hydrogen Strategy
8.1.2. REPowerEU Plan
8.1.3. Hydrogen Roadmaps in Europe

8.2. Incentive Mechanisms for the Deployment of the Hydrogen Economy

8.2.1. Need for Incentive Mechanisms for the Deployment of the Hydrogen Economy
8.2.2. European-Level Incentives
8.2.3. Examples of Incentives in European Countries

8.3. Applicable Regulations for Production, Storage, Mobility, and Integration into the Gas Grid

8.3.1. Applicable Regulation for Production and Storage
8.3.2. Regulations for the Use of Hydrogen in Mobility
8.3.3. Regulations for the Use of Hydrogen in the Gas Grid

8.4. Standards and Best Practices in Safety Plan Implementation

8.4.1. Applicable Standards: CEN/CELEC
8.4.2. Best Practices in Safety Plan Implementation
8.4.3. Hydrogen Valleys

8.5. Required Project Documentation

8.5.1. Technical Projects
8.5.2. Environmental Documentation
8.5.3. Certification

8.6. European Directives. Application Key: PED, ATEX, LVD, MD and EMC

8.6.1. Pressure Equipment Regulations
8.6.2. Explosive Atmosphere Regulations
8.6.3. Chemical Storage Regulations

8.7. International Hazard Identification Standards: HAZID/HAZOP Analysis

8.7.1. Hazard Analysis Methodology
8.7.2. Risk Analysis Requirements
8.7.3. Execution of Risk Analysis

8.8. Plant Safety Integrity Level Analysis (SIL)

8.8.1. SIL Analysis Methodology
8.8.2. SIL Analysis Requirements
8.8.3. SIL Analysis Execution

8.9. Plant Certification and CE Marking

8.9.1. Need for Certification and CE Marking
8.9.2. Authorized Certification Bodies
8.9.3. Documentation

8.10. Permits and Approval: Case Study

8.10.1. Technical Projects
8.10.2. Environmental Documentation
8.10.3. Certification

Module 9. Hydrogen Project Planning and Management

9.1. Scope Definition: Reference Projects

9.1.1. Importance of Proper Scope Definition
9.1.2. WBS (Work Breakdown Structure)
9.1.3. Scope Management in Project Development

9.2. Characterization of Stakeholders and Entities in Hydrogen Project Management

9.2.1. Need for Stakeholder Characterization
9.2.2. Stakeholder Classification
9.2.3. Stakeholder Management

9.3. Relevant Project Contracts in the Hydrogen Sector

9.3.1. Classification of the Most Relevant Contracts
9.3.2. Contracting Process
9.3.3. Contract Content

9.4. Definition of Objectives and Impacts for Hydrogen Projects

9.4.1. Objectives
9.4.2. Impacts
9.4.3. Objectives vs. Impacts

9.5. Work Plan in a Hydrogen Project

9.5.1. Importance of the Work Plan
9.5.2. Constituent Elements
9.5.3. Development

9.6. Deliverables and Key Milestones in Hydrogen Projects

9.6.1. Deliverables and Milestones. Defining Client Expectations
9.6.2. Deliverables
9.6.3. Milestones

9.7. Project Scheduling in Hydrogen Projects

9.7.1. Preliminary Steps
9.7.2. Definition of Activities. Timeline, PM Effort, and Stage Relationships
9.7.3. Available Graphical Tools

9.8. Identification and Classification of Risks in Hydrogen Projects

9.8.1. Creation of the Project Risk Plan
9.8.2. Risk Analysis
9.8.3. Importance of Project Risk Management

9.9. Analysis of the EPC Phase of a Reference Hydrogen Project

9.9.1. Detailed Engineering
9.9.2. Procurement and Supply
9.9.3. Construction Phase

9.10. Analysis of the O&M Phase of a Hydrogen Type Project

9.10.1. Development of the Operation and Maintenance Plan
9.10.2. Maintenance Protocols. Importance of Preventive Maintenance
9.10.3. Management of the Operation and Maintenance Plan

Module 10. Technical-Economic Analysis and Feasibility of Hydrogen Projects

10.1. Power Supply for Green Hydrogen 

10.1.1. The Keys to PPAs (Power Purchase Agreement)
10.1.2. Self-Consumption with Green Hydrogen
10.1.3. Hydrogen Production in Off-Grid Configuration

10.2. Technical and Economic Modeling of Electrolysis Plants

10.2.1. Definition of Production Plant Requirements
10.2.2. CAPEX (Capital Expenditure)
10.2.3. OPEX (Operational Expenditure)

10.3. Technical and Economic Modeling of Storage Facilities according to Formats (GH2, LH2, Green Ammonia, Methanol, LOHC)

10.3.1. Technical Assessment of Different Storage Facilities
10.3.2. Cost Analysis
10.3.3. Selection Criteria

10.4. Technical and Economic Modeling of Transportation, Distribution, and End-Use Assets

10.4.1. Evaluation of Transportation and Distribution Costs
10.4.2. Technical Limitations of Current Hydrogen Transportation and Distribution Methods
10.4.3. Selection Criteria

10.5. Structuring of Hydrogen Projects. Financing Alternatives

10.5.1. Key Factors in Choosing Financing
10.5.2. Private Equity Financing
10.5.3. Public Financing

10.6. Identification and Characterization of Project Revenues and Costs

10.6.1. Revenues
10.6.2. Costs
10.6.3. Joint Evaluation

10.7. Cash Flow Calculation and Project Profitability Indicators (IRR, NPV, Others)

10.7.1. Cash Flow
10.7.2. Profitability Indicators
10.7.3. Practical Case

10.8. Feasibility and Scenario Analysis

10.8.1. Scenario Design
10.8.2. Scenario Analysis
10.8.3. Scenario Evaluation

10.9. Use Case Based on Project Finance

10.9.1. Relevant Roles of the SPV (Special Purpose Vehicle)
10.9.2. Development Process
10.9.3. Conclusions

10.10. Assessment of Barriers to Project Feasibility and Future Outlook

10.10.1. Existing Barriers to Hydrogen Project Feasibility
10.10.2. Assessment of the Current Situation
10.10.3. Future Prospects

Explore alkaline, PEM, and high-temperature electrolysis in depth in this university program”