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Computer Science
System Modeling
Finite Element Method (FEM)
1. Introduction to the Finite Element Method
2. Mathematical Foundations
3. Analysis of 1D Problems
4. Analysis of 2D and 3D Problems
5. Application in Structural and Solid Mechanics
6. Application in Heat Transfer and Other Field Problems
7. Advanced Topics in FEM
8. Practical Implementation and Software
Application in Heat Transfer and Other Field Problems
Heat Transfer Fundamentals
Heat Conduction Mechanisms
Fourier's Law
Heat Equation Derivation
Thermal Properties
Steady-State Heat Conduction
Governing Equations
Boundary Conditions
Prescribed Temperature
Prescribed Heat Flux
Convection Boundaries
Radiation Boundaries
FEM Formulation
Element Conductivity Matrix
Element Heat Generation Vector
Assembly Process
Transient Heat Conduction
Time-Dependent Heat Equation
Initial Conditions
FEM Spatial Discretization
Time Integration Schemes
Forward Euler Method
Backward Euler Method
Crank-Nicolson Method
Theta Method
Stability and Accuracy Analysis
Mass Matrix Formulation
Consistent Mass Matrix
Lumped Mass Matrix
Convection Heat Transfer
Convection Boundary Conditions
Heat Transfer Coefficients
Implementation in FEM
Radiation Heat Transfer
Stefan-Boltzmann Law
View Factors
Nonlinear Radiation Boundaries
Linearization Techniques
Other Field Applications
Seepage and Groundwater Flow
Darcy's Law
Governing Equations
Hydraulic Conductivity
FEM Implementation
Torsion of Shafts
Prandtl Stress Function
Governing Equations
Boundary Conditions
FEM Formulation
Potential Flow Problems
Laplace Equation
Velocity Potential
Stream Function
Acoustic Problems
Wave Equation
Helmholtz Equation
Acoustic Boundary Conditions
FEM Implementation
Electrostatic Problems
Poisson's Equation
Electric Potential
Dielectric Materials
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5. Application in Structural and Solid Mechanics
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7. Advanced Topics in FEM