Concept

Haber process

Related lectures (20)

Explores the kinetics of light-induced defects in electronic materials, covering defect creation, annealing, and unified models.

Explains the SCR mechanism and experimental set-up procedures for NH3 adsorption and NO desorption.

Explores membrane reactor design, equilibrium conversion, system of ODEs, MATLAB plotting, and reaction curve impacts.

Covers the algorithm for reactor analysis and design, including isothermal reactor design, membrane reactors, and semibatch reactors.

Covers the characterisation of powders using various techniques and standard protocols.

Explores non-isothermal reactors operated adiabatically and covers energy balances and equilibrium conditions.

Explores the chemistry of carbon compounds, acid-base reactions, carbon allotropes, tin allotropic forms, corrosion, and ammonia production.

Explores catalysis for emission control, energy production, reforming processes, and catalyst deactivation.

Discusses temperature's impact on reaction rates, activation energy, collision efficiency, reaction mechanisms, catalysis, and enzymatic catalysis.

Explores chemical equilibria, Gibbs energy, equilibrium constants, and their practical applications in reactions.

Explores how equilibrium shifts in response to changes, with examples like the Haber-Bosch process and Clausius-Clapeyron equation.

Explores defect kinetics, annealing, saturation, and light-induced defect creation in electronic materials.

Explores adsorption at the gas/solid interface, focusing on molecular beam techniques and chemisorption processes.

Explores expressions of equilibrium constants, Le Châtelier's principle, and the Haber-Bosch process.

Explores adsorption mechanisms, elementary kinetics, active sites, and transport effects in heterogeneous catalysis.

Explores Le Châtelier's principle, equilibrium displacement, and equilibrium constant variations.

Introduces the basics of catalysis, covering chemical bond breaking, molecular orbital theory, metal bonding, adsorption, and reaction kinetics.

Explores slurry phase degradation, adsorption, reactor sizing, equilibrium isotherms, and carbon adsorption in packed beds.

Explores the Chemical Reaction Engineering algorithm applied to isothermal reactor design, with examples on SO2 oxidation and N2O4 decomposition.

Covers the fundamentals of separation processes in chemical engineering, including methods, design principles, and their industrial significance.