Green Hydrogen Course

Lesson 1 • Renewable Energy Sources for Electrolysis

Identifies solar, wind, and hydropower as primary electricity inputs for green hydrogen. Links renewable intermittency to electrolyser design and operational challenges.

Lesson 2 • Hydrogen Production Pathways Overview

Maps all major production methods using the colour-coding convention. Positions green hydrogen within the broader production landscape for informed comparison.

Lesson 3 • Global Green Hydrogen Market Context

Surveys current production volumes, cost benchmarks, and demand projections worldwide. Frames the economic and strategic urgency driving industry investment.

Lesson 4 • Water Electrolysis Fundamentals

Explains the electrochemical splitting of water into hydrogen and oxygen. Provides the thermodynamic and kinetic basis needed for understanding electrolyser technologies.

Lesson 1 • Proton Exchange Membrane Electrolysis

Details PEM electrolyser construction, membrane materials, and dynamic response capabilities. Highlights advantages for coupling with variable renewable energy sources.

Lesson 2 • Alkaline Electrolysis Systems

Examines the design, components, and operating principles of alkaline electrolysers. Establishes the baseline technology against which newer systems are benchmarked.

Lesson 3 • Scaling and Stack Integration

Addresses the engineering challenges of scaling from single cells to multi-megawatt systems. Bridges laboratory performance data to industrial plant design decisions.

Lesson 4 • Solid Oxide Electrolysis Systems

Covers high-temperature solid oxide electrolyser operation and co-electrolysis potential. Connects thermal integration opportunities to industrial process heat applications.

Lesson 1 • Material-Based Hydrogen Storage

Surveys metal hydrides, chemical hydrides, and porous materials as solid-state storage options. Highlights gravimetric and volumetric density trade-offs versus conventional methods.

Lesson 2 • Underground and Large-Scale Storage

Examines salt caverns, depleted reservoirs, and aquifers as bulk seasonal storage options. Links geological storage to grid-scale energy balancing strategies.

Lesson 3 • Liquid Hydrogen Storage

Explains cryogenic liquefaction processes, boil-off losses, and insulation strategies. Connects high energy density advantages to long-distance transport use cases.

Lesson 4 • Compressed Gaseous Hydrogen Storage

Covers high-pressure tank design, materials, and compression energy requirements. Establishes the most commercially mature storage pathway as a reference point.

Lesson 1 • Liquid Hydrogen Tanker Logistics

Details cryogenic road and maritime tanker operations for high-volume long-distance delivery. Links liquefaction costs to total delivered hydrogen cost calculations.

Lesson 2 • Tube Trailer and Cylinder Distribution

Examines road-based compressed hydrogen delivery for small-to-medium demand centres. Connects logistics costs to the economic viability of distributed end-use applications.

Lesson 3 • Hydrogen Carriers: Ammonia and LOHC

Introduces ammonia and liquid organic hydrogen carriers as chemical transport vectors. Evaluates reconversion energy penalties against volumetric density advantages.

Lesson 4 • Pipeline Transport of Hydrogen

Covers dedicated hydrogen pipelines, material embrittlement risks, and repurposing of natural gas networks. Establishes pipeline economics as the lowest-cost bulk transport option.

Lesson 1 • Sector Coupling and System Integration

Demonstrates how green hydrogen links electricity, heat, transport, and industry sectors. Builds a systems-thinking perspective on hydrogen's role in integrated energy networks.

Lesson 2 • Hydrogen in Power Generation

Examines hydrogen combustion turbines and fuel cells for grid-scale electricity generation. Positions hydrogen as a long-duration storage and dispatchable power asset.

Lesson 3 • Building Heat and Domestic Applications

Surveys hydrogen boilers, blending in gas networks, and micro-CHP systems for buildings. Evaluates safety, efficiency, and infrastructure compatibility for residential deployment.

Lesson 4 • Fuel Cell Technology for Mobility

Explains proton exchange membrane fuel cell operation and its integration in vehicles. Links hydrogen quality standards to fuel cell stack performance and longevity.

Lesson 1 • Revenue Streams and Offtake Structures

Examines hydrogen sales contracts, certificates of origin, and carbon credit revenues. Links bankable offtake agreements to project financing feasibility.

Lesson 2 • Financial Modelling Fundamentals

Introduces discounted cash flow, net present value, and internal rate of return for project assessment. Provides the analytical toolkit for comparing green hydrogen investment scenarios.

Lesson 3 • Cost Reduction Pathways to 2050

Analyses learning curves, economies of scale, and technology improvements driving cost reduction. Connects cost trajectory projections to investment timing decisions.

Lesson 4 • Risk Assessment and Mitigation

Identifies technical, market, and regulatory risks specific to green hydrogen projects. Develops risk mitigation strategies integrated into project financial structures.

Lesson 1 • Regulatory Permitting Processes

Maps the permitting sequence for hydrogen production, storage, and distribution facilities. Prepares students to manage regulatory engagement throughout project development.

Lesson 2 • Hydrogen Hazard Properties

Characterises hydrogen's flammability, buoyancy, and embrittlement hazards relative to other fuels. Establishes the physical basis for all subsequent safety design decisions.

Lesson 3 • Facility Safety Design Principles

Covers ventilation, leak detection, separation distances, and pressure relief for hydrogen facilities. Translates hazard properties into engineered safety controls and layout requirements.

Lesson 4 • International Standards and Certification

Surveys globally recognised standards bodies and certification frameworks for hydrogen equipment. Enables practitioners to identify applicable standards for components and systems.

Lesson 1 • Feasibility Study Methodology

Structures a green hydrogen feasibility study from resource assessment through financial close. Synthesises all prior course knowledge into a coherent project development workflow.

Lesson 2 • Emerging Technologies and Future Outlook

Surveys photoelectrochemical, biological, and advanced thermochemical production pathways. Positions current investments within a long-term technology evolution perspective.

Lesson 3 • Project Financing Structures

Examines project finance, equity, debt, and grant funding mechanisms for green hydrogen. Connects capital structure choices to risk allocation and investor requirements.

Lesson 4 • National and Regional Hydrogen Strategies

Analyses how governments design hydrogen strategies, targets, and support mechanisms. Enables practitioners to align project development with national policy frameworks.