Course Introduction

Hydrogen is emerging as a strategic energy carrier for industrial decarbonization, clean mobility, long-duration energy storage, fertilizer production, refining, shipping, and other hard-to-abate sectors. Developing viable hydrogen projects requires an integrated understanding of energy resources, production technologies, infrastructure, markets, regulation, financing, safety, environmental requirements, and project execution. This course provides a structured framework for planning and developing hydrogen projects from concept through investment readiness and delivery.

The Hydrogen Project Planning and Development Course equips professionals with practical capabilities to assess hydrogen opportunities, develop project concepts, evaluate technologies, establish project requirements, assess markets, structure infrastructure, manage stakeholders, and prepare projects for implementation. The course examines green, blue, and other hydrogen production pathways while placing particular emphasis on renewable hydrogen and integrated hydrogen projects linked to renewable power generation.

Participants will explore the complete hydrogen project development lifecycle, including opportunity identification, market assessment, resource evaluation, technology selection, site selection, feasibility studies, project configuration, production sizing, infrastructure planning, permitting, environmental and social assessment, risk management, financing, procurement, contracting, and development planning. Particular attention is given to the interfaces between hydrogen production facilities, renewable generation, water supply, storage, transportation, conversion facilities, industrial users, ports, and electricity networks.

The course also examines the technical and commercial factors that determine project viability. Participants will consider electrolyzers, compression systems, purification, water treatment, storage, pipelines, liquefaction, ammonia conversion, methanol production, fuel cells, renewable power integration, and balance-of-plant systems. Digital technologies including process simulation, GIS, digital twins, AI-enabled forecasting, predictive analytics, remote monitoring, and integrated project controls are introduced to demonstrate how technology can support better development decisions.

Commercial structuring and financing are central themes of the course. Participants will explore project economics, levelized cost considerations, hydrogen offtake agreements, power purchase arrangements, EPC contracting, equipment supply, infrastructure agreements, guarantees of origin, certification, carbon accounting, investment decision-making, and bankability. The course also addresses the evolving regulatory environment and the importance of aligning hydrogen projects with national energy strategies, international standards, environmental requirements, and emerging clean hydrogen certification frameworks.

By completing the course, participants will be better prepared to identify commercially attractive hydrogen opportunities and transform them into structured, technically credible, financeable development projects. They will gain a stronger understanding of how to coordinate technology, energy supply, water, infrastructure, markets, stakeholders, safety, environmental considerations, and finance. The course is designed to support informed investment decisions and successful development of safe, sustainable, scalable, and commercially viable hydrogen projects.

Duration

5 days

Who Should Attend

• Hydrogen project managers and project development professionals responsible for clean energy and hydrogen investments.

• Renewable energy developers developing integrated renewable power and hydrogen production projects.

• Energy, chemical, process, electrical, mechanical, civil, and industrial engineers supporting hydrogen developments.

• Project developers and investment professionals evaluating green, blue, and other hydrogen production opportunities.

• EPC contractors and engineering consultants involved in hydrogen facility design, construction, and project delivery.

• Energy transition professionals working on industrial decarbonization, clean fuels, renewable energy, and sustainable infrastructure.

• Commercial and contract managers responsible for hydrogen offtake agreements, EPC contracts, equipment supply, and project partnerships.

• Procurement and supply-chain professionals sourcing electrolyzers, compressors, storage systems, pipelines, renewable equipment, and balance-of-plant systems.

• Financial analysts, investors, lenders, and advisors assessing hydrogen project economics, bankability, risks, and investment opportunities.

• Government officials, regulators, policymakers, and infrastructure planners involved in hydrogen strategy and market development.

• Environmental, health, safety, and social professionals supporting hydrogen project permitting, risk management, and regulatory compliance.

• Utility and grid professionals involved in renewable power supply, electricity infrastructure, grid integration, and energy system planning.

• Port, logistics, industrial, and infrastructure professionals exploring hydrogen export, storage, transportation, and industrial applications.

• Sustainability and decarbonization professionals developing clean energy strategies and emissions reduction programs.

• Professionals seeking to develop practical capabilities in hydrogen project planning, development, feasibility, investment, and implementation.

Course Objectives

• Develop a comprehensive understanding of the hydrogen project development lifecycle and apply structured methodologies from opportunity identification and feasibility through investment readiness and project implementation.

• Evaluate hydrogen production pathways including electrolysis and other production routes while understanding their technical requirements, resource needs, emissions profiles, economics, and application suitability.

• Assess hydrogen project opportunities by analyzing renewable energy availability, electricity supply, water resources, land requirements, infrastructure, markets, offtake potential, regulation, and project development constraints.

• Develop practical skills for defining project scope, production capacity, technology configuration, development milestones, infrastructure requirements, project interfaces, resource needs, and execution strategies.

• Evaluate project economics using capital expenditure, operating costs, energy consumption, utilization, financing assumptions, hydrogen production costs, offtake revenues, incentives, and lifecycle financial considerations.

• Develop procurement and contracting strategies for electrolyzers, renewable generation, compressors, storage systems, pipelines, water treatment, power equipment, EPC services, and other major hydrogen project components.

• Identify and manage technical, commercial, regulatory, environmental, safety, supply-chain, infrastructure, market, technology, and stakeholder risks that may affect hydrogen project development.

• Understand hydrogen market development, offtake structures, certification requirements, carbon accounting, guarantees of origin, clean hydrogen standards, and emerging international trade frameworks.

• Apply digital technologies including GIS, process simulation, digital twins, AI, predictive analytics, integrated project controls, and data platforms to improve feasibility assessment, project planning, and development decisions.

• Develop strategies for creating safe, sustainable, scalable, financeable, and commercially viable hydrogen projects while responding to emerging technologies, changing policies, new markets, and global clean energy trends.

Comprehensive Course Outline

Module 1: Hydrogen Economy Fundamentals and Project Development Lifecycle

• Understanding hydrogen's role in industrial decarbonization, clean mobility, energy storage, power generation, chemicals, fertilizers, refining, shipping, and other hard-to-abate applications.

• Reviewing major hydrogen production pathways including green, blue, turquoise, grey, and other emerging approaches, with emphasis on technical characteristics, emissions, resource requirements, and applications.

• Examining the complete hydrogen project lifecycle from opportunity identification and market assessment through feasibility, development, financing, engineering, construction, commissioning, and operations.

• Assessing emerging hydrogen economy trends including green hydrogen hubs, hydrogen valleys, integrated renewable projects, export corridors, clean fuel markets, and cross-border hydrogen infrastructure.

Module 2: Hydrogen Market Assessment, Opportunity Identification and Offtake

• Assessing potential hydrogen demand across industrial, mobility, power generation, fertilizer, refining, shipping, aviation fuel, synthetic fuels, and other emerging application sectors.

• Identifying project opportunities by evaluating local energy resources, industrial demand, infrastructure availability, policy support, market gaps, technology maturity, and potential competitive advantages.

• Developing hydrogen offtake strategies covering long-term agreements, merchant markets, industrial supply contracts, derivatives, hydrogen carriers, and integrated downstream applications.

• Evaluating emerging hydrogen market mechanisms including clean fuel standards, carbon markets, certification systems, guarantees of origin, and international hydrogen trading frameworks.

Module 3: Site Selection, Resource Assessment and Project Feasibility

• Evaluating hydrogen project locations based on renewable energy resources, electricity availability, water supply, land, infrastructure, industrial demand, logistics, environmental constraints, and grid connectivity.

• Conducting technical feasibility assessments covering production capacity, electrolyzer configuration, operating profiles, renewable integration, water treatment, compression, storage, transportation, and downstream requirements.

• Developing commercial feasibility studies incorporating capital expenditure, operating costs, utilization, energy prices, hydrogen production costs, revenues, incentives, financing assumptions, and sensitivity analysis.

• Applying GIS, satellite data, resource mapping, digital models, and scenario analysis to compare development sites, infrastructure options, energy sources, and project configurations.

Module 4: Hydrogen Production Technologies and Engineering Development

• Understanding electrolyzer technologies including alkaline, PEM, solid oxide, and emerging systems, together with their performance characteristics, operating requirements, efficiency, flexibility, and degradation.

• Coordinating engineering requirements for water treatment, electrolyzers, rectifiers, compressors, purification, cooling, storage, piping, electrical systems, control systems, safety systems, and balance-of-plant facilities.

• Developing preliminary process configurations, equipment specifications, capacity requirements, operating philosophies, utilities requirements, layouts, interfaces, and technical performance criteria.

• Evaluating emerging production technologies and innovations including advanced electrolyzers, high-temperature electrolysis, integrated renewable-electrolysis systems, and improved hydrogen efficiency solutions.

Module 5: Renewable Power, Water and Infrastructure Integration

• Assessing renewable power supply options for hydrogen production, including solar, wind, hybrid generation, grid electricity, dedicated renewable assets, and flexible energy supply arrangements.

• Evaluating water requirements, treatment technologies, desalination options, water quality, wastewater management, resource availability, and environmental implications of hydrogen production.

• Planning hydrogen infrastructure including compression, storage, pipelines, trucking, ports, terminals, liquefaction, ammonia conversion, methanol synthesis, and other transportation pathways.

• Managing interfaces between renewable generation, electrical networks, electrolyzers, water systems, hydrogen facilities, storage, transportation infrastructure, and industrial or export users.

Module 6: Project Planning, Development Strategy and Project Controls

• Developing hydrogen project scope statements, work breakdown structures, development plans, milestones, deliverables, responsibilities, interfaces, assumptions, and decision gates.

• Establishing integrated schedules covering feasibility, permitting, financing, engineering, procurement, manufacturing, construction, commissioning, certification, offtake readiness, and commercial operations.

• Developing cost estimates, development budgets, project controls, financial forecasts, risk allowances, contingency strategies, progress measurement systems, and management reporting.

• Applying digital project controls, scenario modelling, AI-assisted forecasting, automated dashboards, digital twins, and data analytics to improve development decisions and project performance.

Module 7: Procurement, Contracting and Supply Chain Management

• Developing procurement strategies for electrolyzers, renewable energy systems, transformers, compressors, storage equipment, water treatment systems, pipelines, controls, and other hydrogen infrastructure.

• Evaluating suppliers based on technology maturity, performance, bankability, manufacturing capability, warranties, degradation assumptions, service capacity, financial strength, and lifecycle support.

• Structuring EPC, equipment supply, technology licensing, operations and maintenance, power supply, water supply, transportation, infrastructure, and offtake agreements.

• Managing emerging supply-chain risks involving electrolyzer manufacturing capacity, critical materials, semiconductor availability, technology changes, geopolitical conditions, shipping constraints, and supplier concentration.

Module 8: Hydrogen Project Economics, Financing and Commercial Structuring

• Developing project financial models incorporating capital expenditure, operating costs, electricity prices, utilization, financing structures, hydrogen production costs, revenues, incentives, taxes, and lifecycle assumptions.

• Assessing bankability requirements including technology maturity, offtake quality, supplier strength, performance guarantees, contractual structures, regulatory certainty, and long-term revenue visibility.

• Evaluating hydrogen offtake agreements, power purchase agreements, transportation contracts, storage arrangements, certification mechanisms, guarantees, and other commercial structures.

• Exploring emerging financing models including blended finance, public-private partnerships, climate finance, development finance, infrastructure funds, strategic investment, and green financing instruments.

Module 9: Safety, Environmental, Regulatory and Stakeholder Management

• Understanding hydrogen hazards including flammability, leakage, embrittlement, high-pressure systems, cryogenic conditions, ignition risks, confined spaces, and interactions with other hazardous materials.

• Developing hydrogen safety management systems covering hazard identification, HAZID, HAZOP, emergency response, fire protection, detection systems, hazardous area classification, operating procedures, and personnel training.

• Managing environmental and social considerations including water consumption, renewable land use, biodiversity, emissions, waste, local communities, industrial impacts, and environmental permitting.

• Coordinating regulators, utilities, communities, landowners, investors, industrial users, technology providers, infrastructure owners, and other stakeholders throughout project development and approvals.

Module 10: Certification, Digitalization, Sustainability and Future Hydrogen Trends

• Understanding clean hydrogen certification, guarantees of origin, carbon intensity methodologies, lifecycle emissions accounting, traceability, monitoring, reporting, and verification requirements.

• Applying digital twins, AI, machine learning, predictive analytics, remote monitoring, process optimization, cybersecurity, and integrated data platforms to improve hydrogen project development and operations.

• Evaluating emerging hydrogen applications including green ammonia, e-methanol, sustainable aviation fuels, hydrogen mobility, long-duration energy storage, power-to-X, and industrial decarbonization.

• Developing future-ready hydrogen strategies covering large-scale electrolyzers, hydrogen hubs, export terminals, pipeline networks, underground storage, renewable integration, circularity, and evolving international hydrogen markets.

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.