Master's Degree in Continuing Education in Green Hydrogen Projects
PRESENTATION
Objectives
• Lead the conceptualization and design of initiatives in this sector, taking into account its role as an energy source and its environmental impact. • Oversee the implementation of advanced methods for the production and conversion of energy from this resource, optimizing processes and resources. • Design strategies for the storage and control of this resource, ensuring the safety and operational efficiency of facilities. • Manage the development of energy infrastructure and transportation systems for this energy vector, taking into account logistics and applicable regulations. • Evaluate the applications of this energy vector in electricity generation and other industrial uses, identifying opportunities for innovation. • Make strategic decisions regarding the financing of sustainable projects and their economic viability, starting from the initial phase. • Integrate decarbonization techniques and technologies into the planning of sustainable energy projects. • Analyze the context of climate change and the energy transition to position high-impact 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
- 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.
- Energy Production and Its Evolution
- Fossil Fuels: The End of an Era
- Strategies for Sustainability
- Energy Demand and the Energy Transition
- Energy and the Future
- Climate Change
- Effects and Strategies Related to Climate Change
- Energy Transition Roadmap
- The Evolution of the Energy Transition
- Carbon taxes and ESG criteria
- Key Drivers of the Energy Transition
- Renewable Power Generation, Electrification, and Energy Storage
- Mobility and Transportation
- Carbon Capture and Storage
- Circular Economy and New Materials
- Hydrogen (H2)
- Bioenergy
- Integration of bioenergy processes with other technologies
- Cities of the Future (Smart Cities)
- Entrepreneurship and Enabling Technologies and Developments for Decarbonization
- Hydrogen Production
- Hydrocarbon Refinery
- Partial oxidation and other hydrocarbon-based processes
- Coal and Biomass Gasification
- Advantages and Disadvantages: A Comparison of the Different Processes
- Electrolytic Processes
- Alkaline Electrolyzers
- Polymer Electrolyzers
- Alternative Method for Producing Green Hydrogen
- Technology Readiness Level
- The Origins and Operation of Fuel Cells
- Composition and Types of Fuel Cells
- How Polymer Batteries Work
- Components of Polymer Batteries
- Progress and Future Outlook
- Solid-oxide fuel cells. Geometries and materials.
- Fuel Cell Efficiency
- Alkaline, phosphoric acid, and molten carbonate batteries
- Biobatteries
- Design and Cost Estimation of a Fuel Cell
- Features and Storage Systems
- Storage in the form of compressed hydrogen gas
- Pressurized Tanks: Types, Characteristics, and Development Objectives
- EIHP (European Integrated Hydrogen Project) Specifications
- Examples of Development Projects
- Characteristics and Systems for Storing Liquid Hydrogen
- Storage, Distribution, and Dispensing of Liquid Hydrogen
- Liquid Hydrogen Storage Tanks: Types, Characteristics, and Development Goals
- EIHP (European Integrated Hydrogen Project) Specifications
- Examples of Development Projects
- General Concepts
- Metal hydrides
- Intermetallic compounds
- Carbonaceous materials and organic polymers
- Glass microspheres
- Control Theory
- Model-Based Predictive Control
- Modeling Hydrogen-Based Systems
- Control Strategies
- Related Regulations
- Light rail.
- Heavy-duty transportation
- Captive fleets
- Railway Sector
- Infrastructure
- Energy Transition in Air Transport
- Sustainable Aviation Fuels (SAF)
- Energy Transition in Maritime Transport
- Sustainable Fuels for Maritime Transport
- Trends in Air and Maritime Transportation
- Risks Associated with Hydrogen
- Hydrogen Detection
- Safety Considerations
- Explosive atmospheres
- Hydrogen Risk Assessment
- The Hydrogen Journey
- Distributed Generation Systems
- Comparison of Management Systems
- Environmental, Health, and Safety Considerations Along the Hydrogen Value Chain
- Safety and Risk in the Transmission, Distribution, and Storage of Hydrogen
- Large-scale electricity generation
- Distributed Generation
- Microgeneration Systems
- Uninterruptible Power Supply Systems
- Combined Heat and Power Systems
- Introduction and Future Prospects for Mobile Applications
- Forklifts
- Passenger cars and buses
- Air Travel and People with Limited Mobility
- Other vehicles
- Reversible fuel cells
- Space Applications
- Micro fuel cells
- Portable Generators
- Other systems
- Fundamentals and Concepts of Power-to-X
- Power-to-Gas (PTG)
- Power-to-Liquid (PTL)
- Power-to-heat (PTH)
- Applications in the World of Hydrogen
- Materials, Pipes, and Fittings
- Power Supply and Storage Systems
- Hydrogen Compressors
- Components and Auxiliary Systems
- Hydrogen dispensers
- Installation and Operation of the Hydrogen Fueling Station
- Control and Instrumentation Systems
- Inspection Protocols
- Gas Station Operations
- Maintenance Work
- Key Safety Considerations
- Security Methodologies and Risk Assessment
- Risk Mitigation and ATEX Explosive Atmospheres
- Safety Distances at Hydrogen Facilities
- Measures to Protect Against External Factors
- ISO 14687. Quality of hydrogen fuel
- ISO 17268. Hydrogen refueling devices
- ISO 19880-1. General Requirements for Gas Stations
- ISO 22734. Electrolyzers
- IEC 62282-3-100. Stationary Fuel Cell Power Generation Systems
- Geopolitical Factors Shaping the Transition
- The Political History of Hydrogen: Bubbles and Expectations
- The Rise of Hydrogen Geopolitics
- The Geopolitics of Hydrogen in the Context of Climate Change
- The Key Players in the Geopolitics of Hydrogen
- Importers: The Case of the European Union
- Hydrogen in the Survival and Energy Transition of Oil-Exporting Countries: The Case of the Gulf Cooperation Council
- Emerging Exporters and Neo-Extractivism
- Emerging Technological Powers: The Case of China
- Emerging Industrial Powers: The Case of 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 Industrial Value Chains
- Hydrogen and the Return of Industrial Policy
- Hydrogen Diplomacy
- Hydrogen and the Geopolitics of Infrastructure
- Hydrogen and Green Colonialism
- Allies and Rivals in the Geopolitics of Hydrogen
- "A Comparative Study of Hydrogen Strategies in the European Union"
- Europe's Technological, Economic, and Environmental Potential
- European deployment plans, hydrogen valleys
- Factors Driving Investment in Hydrogen and Fuel Cells
- Supply- and Demand-Side Development Initiatives
- The Path to Commercializing the Technology
- Fuel Cell Handling Equipment
- Residential use. Fuel cell micro-cogeneration
- Combined Heat and Power (CHP)
- H2 Production Without CO2 Capture (I)
- Hydrogen Production with and without CO2 Capture (II)
- The Viability Plan
- Production and Expense Plan
- Investment and Financing Plan
- Reports: Income Statement, Balance Sheet, and Cash Flow Statement
- Key Indicators, Analysis, and Simulations
- First Steps in Raising Capital
- Internal Funding Sources
- Sources of External Funding
- Sources of Blended Finance
- How to Negotiate Our Financing
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