Parabolic PDEs are used to describe a wide variety of time-dependent phenomena like Unsteady Heat Equations. I have used two solution techniques entitled "Alternative Directional Implicit(ADI)" and "Simple Explicit Method (FTCS)" for solving the following five different heat problems.
2D Unsteady Heat Transfer Problem with Robin Conditions
Unsteady Heat Conduction on a Rectangular Plate with Convection, and Conduction Boundary Conditions
Unsteady Temperature Distribution in a Plate via Convection Mechanism on Boundaries
2D Unsteady Heat Conduction on a Plate with Dirichlet Conditions
2D Unsteady Heat Transfer Problem with Neuman & Dirichlet Conditions
Modified Keller Box Method
Dufort-Frankel Method
Combined Method (Explicit, Implicit, Crank-Nicolson)
Crank-Nicolson Method
Simple Implicit Method (Lassonen)
Simple Explicit Method (FTCS)
The schematic problem was solved with the two mentioned methods.
1_Temperature Distribution over the plate with ADI (Alternative Directional Implicit) Method
1_Temperature Distribution over the plate with Simple Explicit Method (FTCS)
The schematic problem was solved with the Simple Explicit Method (FTCS).
2_Temperature Distribution with Simple Explicit Method (FTCS)
The schematic problem was solved with Alternative Directional Implicit(ADI).
3_Temperature Distribution with ADI
The schematic problem was solved with Alternative Directional Implicit(ADI).
4_Temperature Distribution with ADI
The schematic problem was solved with Alternative Directional Implicit(ADI).
5_Temperature Distribution with ADI
The schematic problem was solved with the following six different solution techniques.
Modified Keller Box Method
Dufort-Frankel Method
Combined Method (Explicit, Implicit, Crank-Nicolson)
Crank-Nicolson Method
Simple Implicit Method (Lassonen)
Simple Explicit Method (FTCS)
1_Modified Keller Box
2_Dufort-Frankel
3_Combined Method (Explicit, Implicit, Crank-Nicolson).
4_Crank-Nicolson
5_Simple Implicit Method (Lassonen)
6_Simple Explicit Method (FTCS)