Learn · Mathematical Modelling and Simulation of Chemical Engineering Process
Lecture 52 of 60Week 11 :
Lecture-52: Dispersed phase modelling – Aerosol dynamics
Prof. Sourav Mondal · IIT Kharagpur
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All the lectures
- Lecture-1 : Introduction
- Lecture-2 : Introduction (Contd.)
- Lecture-3 : Constitutive relations
- Lecture-4 : Constitutive relations - mass transfer and thermodynamics
- Lecture-5 : Process diagrams
- Lecture-6 : Special functions
- Lecture-7 : Partial differential equations
- Lecture-8 : Partial differential equations - separation of variables
- Lecture-9 : PDE - separation of variables (Contd.)
- Lecture-10: PDE - integral transforms
- Lecture-11: Numerical techniques of solving PDE - discretization
- Lecture-12 : Stability of finite difference schemes
- Lecture-13: Numerical solution of PDE - method of lines
- Lecture-14 : Numerical solution of implicit formulation - tridiagonal matrix
- Lecture-15 : Numerical solution of PDE - Finite volume method
- Lecture-16 : Perturbation methods
- Lecture-17 : Asymptotics
- Lecture-18 : Matched Asymptotics
- Lecture-19 : Stability of dynamical systems
- Lecture-20 : Stability of dynamical systems (Contd.)
- Lecture-21 : Modelling transport phenomena problems - part 1
- Lecture-22 : Modelling transport phenomena problems - part 2
- Lecture-23 : Modelling transport phenomena problems - part 3
- Lecture-24 : Modelling transport phenomena problems - part 4
- Lecture-25 : Modelling transport phenomena problems - part 5
- Lecture-26 : Modelling reaction systems - packed bed catalytic reactor
- Lecture-27 : Modelling intraparticle transport and catalysis
- Lecture-28 : Modelling pore diffusion and reaction
- Lecture-29 : Modelling enzymatic reactions
- Lecture-30 : Demonstration of COMSOL Multiphysics
- Lecture-31 : Modelling of multistage distillation process
- Lecture-32 :FUG method of stage calculations
- Lecture-33 : MESH equations and DOF analysis
- Lecture-34 : Tearing method
- Lecture-35 : Bubble point method stage calculations
- Lecture-36: Simultaneous correction method
- Lecture-37: Block tridiagonal matrix
- Lecture-38: Simple binary batch distillation
- Lecture-39: Multistage batch distillation
- Lecture-40: Heat exchanger network design – pinch analysis
- Lecture-41: Pinch point temperature
- Lecture-42: Heat exchanger network synthesis
- Lecture-43: Solving a distillation column using Aspen plus
- Lecture-44: Solving two unit operations using Aspen Plus
- Lecture-45: Solving multiple units using Aspen Plus
- Lecture-46: Dispersed phase modelling – introduction
- Lecture-47: Population balance equation
- Lecture-48: Dispersed phase modelling – breakage process
- Lecture-49: Drop size distribution in lean mixtures
- Lecture-50: Mass transfer in lean liquid-liquid dispersion
- Lecture-51: Dispersed phase modelling – aggregation
- Lecture-52: Dispersed phase modelling – Aerosol dynamics
- Lecture-53: Dispersed phase modelling – Aerosol dynamics – (Contd.)
- Lecture-54: Solution of the population balance equation
- Lecture-55: Numerical solution of the population balance equation
- Lecture-56: Kinetic monte carlo simulation
- Lecture-57: Response surface methodology
- Lecture-58: Design of experiments
- Lecture-59: Artificial neural network
- Lecture-60: Supervised training