This program offers a deep dive into green hydrogen production technologies and the synthesis of sustainable green molecules, such as green ammonia and e-fuels. Participants will explore both the theoretical and practical aspects of hydrogen production methods, along with the processes for converting hydrogen into valuable, environmentally friendly molecules. Through hands-on case studies and tutorials, this program equips participants with a comprehensive understanding of the hydrogen economy and its applications in various industries.Upon completing this program, participants will be able to:
Understand and evaluate various green hydrogen production methods, including electrolysis, biomass gasification, and emerging technologies like photo-electrochemical processes.
Analyze and compare the efficiencies and thermodynamics of different hydrogen production processes.
Identify opportunities for innovation in hydrogen production to enhance efficiency and sustainability.
Gain insights into the synthesis of green molecules such as ammonia, methanol, and ethanol, and understand their applications across different sectors.
Conduct techno-economic assessments of green molecule production, focusing on viability, storage, and commercialization potential.
Apply knowledge gained from case studies (PEM and Alkaline Electrolyzers, Haber-Bosch process) to real-world scenarios, evaluating the efficiency, suitability, and scalability of each technology.
Comprehensive Coverage: Combines fundamental knowledge of green hydrogen production with practical applications in green molecule synthesis.
Real-World Applications: Focuses on the industrial and economic viability of green molecules and their significance in sustainable energy production.
Industry-Relevant Skills: Develops practical competencies applicable to a variety of industries, including energy, transportation, and chemical manufacturing.
Knowledge of hydrogen production technologies, including electrolysis and thermodynamic principles.
Ability to evaluate and compare the efficiency and feasibility of green hydrogen production methods.
Understanding of green molecule synthesis (e.g., ammonia, methanol) and its importance in energy and industrial applications.
Skills in analyzing production, storage, and distribution processes for green molecules, including cost-benefit analysis.
Admission is based on an application review, considering candidates' experience and skills.
Part 1 : Green Hydrogen Production Technologies and Emerging Options
Classification of Green Hydrogen Production Methods: Thermal, electrical, hybrid, and biological approaches.
Fundamentals of Green Hydrogen Production: Principles, mechanisms, and materials involved in production methods.
Thermodynamic Analysis: Basic thermodynamics and electrolysis thermodynamics.
Efficiency Comparison: Theoretical efficiencies of various production methods and their optimization potential.
Innovation and Improvement: Opportunities for enhancing the efficiency and sustainability of green hydrogen production.
Case Study: Tutorials on PEM and Alkaline Electrolyzers – Covers operating principles, materials, components, designs, and comparison of performance and limitations.
Part 2 : Green Molecules Synthesis and Green Ammonia
Introduction to Green Molecule Synthesis: Conversion of hydrogen into valuable molecules (methanol, ethanol, ammonia).
Green Molecules Market and Applications: Market overview and significance in energy and industrial sectors.
Production, Storage, and Distribution: Analysis of production processes, storage solutions, and distribution networks for green ammonia and other green molecules.
Techno-Economic Assessment: Evaluation of the viability, scalability, and commercialization potential of green molecules.
Industrial Integration: Role of green molecules in various industries and synergies for sustainable development.
Case Study: Tutorial on Haber-Bosch Process – In-depth understanding of ammonia synthesis, covering operating principles, catalyst design, energy efficiency, and economic feasibility.