E-Learning

Hydrogen Basics

329,80 €
plus 19% VAT. 60,2 €
Price incl. VAT 390 €

Course Details

Description​

Dive into the exciting world of hydrogen technology with our ‘Hydrogen Fundamentals’ E-Learning course. Start your journey with the history of hydrogen and explore its unique properties. Through interactive content, learn about the important reaction limits of hydrogen, gaining confidence in its handling. The E-Learning course demonstrates the versatility of hydrogen through practical examples of private and commercial applications. Finally, the course guides you through the complex basics of electrolysis. This E-Learning allows you to gain substantial knowledge of hydrogen technologies, enabling you to actively contribute to shaping a sustainable future with the knowledge you have acquired.

Benefit

Target Audience​

Our online course is suitable for both newcomers and individuals seeking to deepen their specific expertise. The target audience includes:

Learning objectives​

Learning Content​

  • Hydrogen in general
    • Occurrence of hydrogen on Earth
    • Chemical formula of water and hydrogen
    • Hydrogen in the periodic table
    • Characteristics of hydrogen
    • Historical facts (Cavendish & de Lavoisier)
  • Properties
    • Physical properties
    • Simulation of the gas explosion experiment
  • Ignition limits
    • Reactable gas mixture
    • Composition of air
    • Flammability of gases using the example of a propane burner
    • Ignition limits (lower and upper ignition limit) of propane gas
    • Volumetric composition of an ignitable gas mixture
    • Simulation of the volumetric gas composition using the example of a propane burner
  • Detonation limits
    • Comparison of reactivity between hydrogen and propane gas in volume
    • Detonation limits (lower and upper detonation limit) of hydrogen
    • Types of explosions (detonation and deflagration)
    • Type of explosion for hydrogen
    • Explosiveness of hydrogen in volume
    • Detonation velocity of hydrogen
    • Comparison of ignition limits of hydrogen
  • Private applications
    • Historical applications
    • Historical hazards of hydrogen use
    • Ignition limits of hydrogen
    • Comparison of typical vehicle propulsion systems with fuel cell (hydrogen) vehicles
    • Facts about propulsion systems
    • Setup of an autonomous hydrogen system for residential use
    • Components of an autonomous hydrogen system for residential use
    • Framework conditions for an ecological hydrogen system for residential use
    • Generation, storage, and utilization of hydrogen through renewable energy sources using a simulation
  • General information
    • Examples of hydrogen applications (in chemistry, steel production, as an energy carrier, and in the energy industry)
    • Explanations of the applications
  • Energy industry
    • Utilization of wind power plants
    • Characteristics of renewable energy
    • Visualization of fluctuating power
    • Principle of usable power ranges
    • Basic characteristics of generation methods (wind power and solar)
    • Statistical power demand of an average household
    • Ratio of power demand and generated power
    • Randomized simulation of household power demand
    • Utilization of hydrogen as an energy carrier
    • Conversion and storage of hydrogen in relation to generated power
    • Randomized simulation of conversion and storage based on household power demand as a representative for all end consumers
  • Chemical applications
    • Examples of chemical compounds
    • Composition of compounds containing the element hydrogen
    • Reactivity of hydrogen based on its properties and characteristics
    • Composition of untreated iron ore/iron oxide
    • Reduction of ore by hydrogen or carbon
    • Differences between oxidation and reduction
    • Reaction in the blast furnace
    • Chemical process of smelting iron oxide to steel using hydrogen
  • Energy carriers & content
    • Comparison of typical energy carriers (gasoline, diesel, battery, and hydrogen)
    • Explanation of the unit kWh/m³ (kilowatt-hour per cubic meter)
    • Forms of energy storage
    • Mathematical derivation of potential energy through a simulated experimental setup
    • Units of energy
    • Comparison of typical energy carriers (gasoline, diesel, battery, and hydrogen) in kWh/m³
    • Volumetric comparison using a comprehensible example
    • Volumetric demand in relation to its density
    • Compression potential of elements in the periodic table
    • Explanation of the unit kWh/kg (kilowatt-hour per kilogram)
    • Comparison of typical energy carriers (gasoline, diesel, battery, and hydrogen) in kWh/kg
  • Electrolysis in general
    • Purpose of electrolysis
    • Hydrogen occurrence
    • Atomic structure of water
    • Experimental simulation of electrolysis
    • Polarization of electrolysis
  • Alkaline electrolysis
    • Consequences of mixing resulting gases based on an experimental simulation
    • Experimental setup of alkaline electrolysis
    • Conductivity of water
    • Consequences of incorrect electrolytes based on an experimental simulation
    • Optimal generation conditions
    • Chemical process of alkaline electrolysis
  • Proton Exchange Membrane (PEM) electrolysis
    • Historical background
    • Structure of Proton Exchange Membrane (PEM) electrolysis
    • Structure of a PEM stack
    • Component descriptions using 3D models
    • Chemical process of Proton Exchange Membrane (PEM) electrolysis

More online courses on the topic of hydrogen

329,80 €
plus 19% VAT. 60,2 €
Price incl. VAT 390 €

Course Details