Master the foundational technology powering the global green hydrogen revolution.
As the world pivots to renewables, the challenge of scaling efficient, durable, and cost-effective hydrogen production remains the primary bottleneck.
What are the benefits?
- Master the core chemical principles of liquid electrolyte water splitting.
- Optimize material selection for high-pH, corrosive environments.
- Design advanced diaphragm systems for maximum gas purity.
- Implement scalable operational strategies for industrial-scale plants.
- Gain unparalleled depth with 210 curated concepts mapped across 21 chapter-specific appendices for comprehensive technical mastery.
What is the roadmap?
1 - The Fundamentals of Water Splitting: Understanding the core science of electrolysis
2 - Electrochemical Thermodynamics: Energy balance and potential requirements
3 - Kinetics of the Hydrogen Evolution Reaction: Optimizing the cathode process
4 - The Oxygen Evolution Reaction: Tackling the bottleneck of electrolysis
5 - Potassium Hydroxide Electrolytes: Managing high-pH chemical environments
6 - Electrolyte Conductivity and Mass Transport: Ensuring efficient ion movement
7 - The Role of the Diaphragm: Separating gases in a liquid environment
8 - Advanced Porous Diaphragm Materials: Innovations in Zirfon and beyond
9 - Electrode Geometry and Surface Area: Maximizing the reaction interface
10 - Nickel-Based Electrocatalysis: The workhorse of alkaline systems
11 - Electrolysis Cell Architecture: Monopolar vs. Bipolar designs
12 - Zero-Gap Cell Configuration: Eliminating electrolyte resistance
13 - Bubble Dynamics and Management: Dealing with gas evolution in liquids
14 - Thermal Management Systems: Regulating heat in large-scale stacks
15 - Power Electronics and Rectification: Converting AC grid power to DC
16 - Corrosion Mitigation in Alkaline Media: Protecting the balance of plant
17 - Gas Processing and Purification: Reaching industrial hydrogen standards
18 - System Control and Automation: Operating safely and efficiently
19 - Scaling Up: From Lab to Megawatt: Challenges in industrial scaling
20 - Intermittent Operation and Renewables: Coupling with wind and solar
21 - Safety Standards and Risk Management: Preventing hazards in hydrogen production
Who is the target reader?
Designed for chemical engineers, energy researchers, and industrial system designers.
How can you take action?
Bridge the gap between lab-scale chemistry and the industrial infrastructure needed to decarbonize the planet.
Equip yourself with the engineering rigor to lead the next generation of energy storage.