Lectures related to Steady state (chemistry)

Explores heterogeneous catalysis, reaction kinetics, and transport effects in catalytic reactions.

Covers the steady-state approximation method applied to chemical reactions and introduces the pseudo-first order method.

Covers the analysis of reactive intermediates and the steady-state approximation in catalytic reactions.

Covers the classical scattering of two bodies and the dynamics involved in the process.

Explores reaction kinetics, rate laws, reversible reactions, and complex mechanisms, including parallel and consecutive reactions.

Covers complex reactions, rate laws, differential equations, and steady-state approximation for parallel reactions.

Explains the Lindemann-Hinshelwood mechanism in chemical kinetics and the concept of a transition state on a potential energy surface.

Covers chemical kinetics, reaction rates, pseudo-first-order method, and key products.

Explores rate expressions, steady-state approximation, and reaction simulation algorithms using random numbers.

Explores heterogeneous catalysis, focusing on reaction mechanisms, kinetics, and ammonia synthesis.

Covers internal heat transfer effects in heterogeneous reactions, emphasizing dimensionless numbers and transport effects.

Covers the analysis of heterogeneous reactions, focusing on kinetics and reactor types.

Covers enzyme kinetics, focusing on reaction rates, the Michaelis-Menten equation, and factors affecting enzyme activity.

Explores fiber coupling and relaxation oscillations in laser diodes, focusing on modulating laser speed and changing beam shape.

Explores enzyme kinetics, reaction rate phases, inhibition types, and mass balance equations.

Analyzes observed rates with internal mass transfer limitations in reaction processes.

Explores pharmacokinetics modeling, covering zero and first-order kinetics, drug distribution, and key parameters for drug elimination.

Explores chain-growth polymerization mechanisms, radical reactions, vinyl monomers, and polymer properties.