This module covers the basics of hydrogen technology, including its physical and chemical properties, and hydrogen production processes. It explores the current state, and key challenges of the current industrial technologies. It also highlights the market size, benefits, and major R&D needs for each technology.

• Understanding the properties, classification, benefits, and challenges of hydrogen as an energy carrier.
• Exploring the current landscape of hydrogen production facilities and their crucial role in sustainability efforts, pollution reduction, and combating climate change.
• Acquiring fundamental knowledge of hydrogen production technologies, encompassing both conventional and advanced industrial processes.

Analysis of the environmental impacts of different hydrogen production methods. This includes an analysis of the carbon footprint, energy consumption, and waste generation associated with various technologies. This case study will provide insights into the importance of sustainable and eco-friendly hydrogen production technologies for mitigating climate change and promoting environmental stewardship.

This module focuses on green hydrogen production technologies, such as electrolysis and biomass gasification, as well as emerging options such as photoelectrochemical, thermolysis, and biological processes.

• Classification of green hydrogen production methods: Thermal, electrical, hybrid, and biological approaches.
• Understanding the fundamentals of green hydrogen production methods, including principles, mechanisms, and materials involved.
• Thermodynamic analysis of green hydrogen production processes, covering basic thermodynamics and the thermodynamics of electrolysis.
• Comparison of theoretical efficiencies among different green hydrogen production methods to assess viability and potential for optimization.
• Identifying opportunities for innovation and improvement in green hydrogen production processes to enhance efficiency and sustainability.

To provide participants with an in-depth understanding of these two commonly used electrolysis technologies, we will discuss the operating principles, materials, components, and designs. The tutorial will also include a comparison of the advantages and limitations of each technology. By the end of the tutorial, participants will be equipped with the knowledge and skills needed to evaluate the performance and suitability of PEM and alkaline electrolysers for different hydrogen production scenarios.

This module delves into the technical options for handling, storing, and transporting hydrogen, including compression, liquefaction, and solid-state storage methods.

• Principle of cryogenic liquid hydrogen storage, including advantages and disadvantages compared to other storage methods.
• State-of-the-art technology and prospects of underground compressed hydrogen storage, assessing feasibility and potential applications.
• Solid-state hydrogen storage methods: chemical sorption, metal hydride, complex hydride, porous materials, and carbon materials, examining current state, limitations, and future prospects.
• Current state, limitations, and prospects of hydrogen transport, focusing on key challenges and innovative solutions.
• Current state of hydrogen transport faces challenges such as infrastructure development and storage capacity limitations.
• Morocco's role in the emerging green and clean global energy infrastructure, analyzing potential contributions and growth opportunities.

To focus on the principles, materials, and technologies involved in storing hydrogen in solid-state materials. Participants will learn about the advantages and limitations of solid-state storage compared to conventional storage methods. The tutorial will cover the latest research and developments in solid-state hydrogen storage, such as the innovative system based on adiabatic concepts under development at UMEP. Participants will gain an understanding of the technical and economic feasibility of solid-state hydrogen storage, as well as the potential applications in various sectors, including transportation and stationary storage.

This module explores the synthesis of green molecules, such as green ethanol, methanol, and E-Fuels, which is produced using hydrogen as a feedstock. It also covers the production of green ammonia, which is gaining popularity as a carbon-free fertilizer and energy carrier.

• Introduction to hydrogen conversion technologies into valuable green molecules like methanol, ethanol, and ammonia, emphasizing their role in sustainable energy production.
• Exploration of green molecules markets, properties, and applications, including an overview of their significance in various industries.
• Overview of production, storage, and distribution processes for green ammonia, highlighting its use as a medium for hydrogen storage and an energy vector.

To provide participants with an in-depth understanding of the process for producing Ammonia from hydrogen and nitrogen. Participants will learn about its operating principles, catalysts, and designs involved. The case study will also explore the advantages and limitations of the Haber-Bosch process, including its energy efficiency, and economic viability. By the end of the case study, participants will be equipped with the knowledge and skills needed to evaluate the performance and suitability of the Haber-Bosch process.

• Introduction to fuel cell technologies, including their working principles, types, main development constraints, and future market prospects.
• Industrial practices for producing fuel cells, stacks, and modules, along with considerations for security and safety issues.
• Context of fuel cell use in mobility, highlighting main limitations and advantages of fuel cell vehicles compared to traditional combustion engines.

To provide participants with an understanding of how fuel cells are used in transportation, specifically in vehicles such as cars, buses, and trains. Participants will learn about the advantages and limitations of fuel cell vehicles compared to battery-based electrical vehicles. By the end of the case study, participants will be able to evaluate the performance and suitability of different types of fuel cells for transportation applications, and to identify opportunities for innovation and improvement of fuel cell vehicles.

• Examination of industrial and national frameworks or programs concerning hydrogen safety, covering properties and hazards of hydrogen and general aspects of hydrogen safety.
• Discussion of safety standards for hydrogen transportation, outlining regulations and protocols to ensure safe handling and transport of hydrogen.
• Strategies for mitigation, prevention, risk reduction, and emergency procedures related to hydrogen safety, emphasizing proactive measures to address potential hazards.

To focus on balancing safety and innovation in the hydrogen industry. To explore real-world scenarios where the safe handling and storage of hydrogen are crucial, as well as the regulatory and environmental considerations that need to be taken into account. The case study will provide an opportunity to analyze and evaluate the risks and benefits of various hydrogen technologies and their potential impact on safety and the environment. The case study will also examine the role of industry stakeholders, policymakers, and regulators in ensuring the safe and sustainable development of the hydrogen economy.

• Examination of government policies and incentives for hydrogen adoption globally, focusing on tax credits, subsidies, grants, and regulatory frameworks.
• Analysis of the economic and environmental benefits and challenges associated with transitioning to a hydrogen economy, considering factors such as emissions reduction, energy security, and economic growth.
• Exploration of successful hydrogen projects, exploring their business models, financing strategies, and risk management approaches to inform future initiatives.

To focus on the development of a hydrogen factory business plan and explores the challenges and opportunities associated with building a sustainable hydrogen economy. This case study will provide practical insights into the business methods, policy, and strategies. It will also evaluate the environmental and economic benefits of the hydrogen factory, including its potential to reduce greenhouse gas emissions, improve air quality, and create jobs in the hydrogen sector.

• Opportunity for participants to apply knowledge gained in the program to real-world problems or projects related to green hydrogen and its applications.
• Engagement in research, analysis, and development of solutions or proposals for specific issues or challenges in the field of green hydrogen technology.
• Emphasis on deepening participants' knowledge in a specific area of research within the field of green hydrogen technology.
• Application of critical thinking, problem-solving, and innovative approaches to address real-world problems in the field.

To examine how existing businesses can use hydrogen to improve their operations, reduce emissions, and meet sustainability goals. To prompt the candidate to think about how they can use the knowledge and skills they have gained throughout the master's program to innovate in their own industry. Candidates will be encouraged to identify a specific issue or challenge in their industry that could be addressed through the use of hydrogen technologies, and to develop a proposal for a solution or project that integrates hydrogen.