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Chemistry
Specialized Chemistry
Computational Chemistry
1. Introduction to Computational Chemistry
2. Mathematical and Physical Foundations
3. Potential Energy Surfaces
4. Molecular Mechanics Methods
5. Quantum Mechanical Methods
6. Molecular Dynamics Simulations
7. Monte Carlo Methods
8. Energy Minimization and Optimization
9. Hybrid and Multiscale Methods
10. Property Calculations
11. Solvation and Environmental Effects
12. Free Energy Methods
13. Excited States and Photochemistry
14. Solid State and Materials
15. Computational Tools and Software
16. High-Performance Computing
17. Best Practices and Validation
Quantum Mechanical Methods
Electronic Structure Theory
Many-Electron Problem
Electron-Electron Interactions
Electron-Nuclear Interactions
Spin and Antisymmetry
Hartree-Fock Theory
Variational Principle
Slater Determinants
Hartree-Fock Equations
Self-Consistent Field Procedure
Orbital Energies and Koopman's Theorem
Limitations and Electron Correlation
Post-Hartree-Fock Methods
Electron Correlation Problem
Configuration Interaction
Singles Excitations
Doubles Excitations
Higher Excitations
Full CI
Truncated CI Methods
Møller-Plesset Perturbation Theory
Second-Order MP2
Higher-Order Corrections
Convergence Issues
Coupled Cluster Theory
Exponential Ansatz
CCSD Method
CCSD(T) Method
Size Extensivity
Computational Scaling
Density Functional Theory
Hohenberg-Kohn Theorems
First Theorem
Second Theorem
Implications for DFT
Kohn-Sham Approach
Kohn-Sham Equations
Kohn-Sham Orbitals
Self-Consistent Procedure
Exchange-Correlation Functionals
Local Density Approximation
Generalized Gradient Approximation
Meta-GGA Functionals
Hybrid Functionals
Double-Hybrid Functionals
Range-Separated Functionals
DFT Strengths and Weaknesses
Computational Efficiency
Accuracy for Different Properties
Dispersion Interactions
Strong Correlation Problems
Self-Interaction Error
Semi-Empirical Methods
Approximations and Parameterization
Neglect of Diatomic Differential Overlap
MNDO Method
AM1 Method
PM3 Method
PM6 and PM7 Methods
Applications to Large Systems
Basis Sets
Linear Combination of Atomic Orbitals
Slater-Type Orbitals
Gaussian-Type Orbitals
Basis Set Classification
Minimal Basis Sets
Split-Valence Basis Sets
Double-Zeta Basis Sets
Triple-Zeta Basis Sets
Polarization Functions
d Functions on Heavy Atoms
p Functions on Hydrogen
f Functions
Diffuse Functions
Augmented Basis Sets
Anions and Excited States
Correlation-Consistent Basis Sets
cc-pVDZ Family
cc-pVTZ Family
cc-pVQZ Family
Basis Set Superposition Error
Counterpoise Correction
Boys-Bernardi Method
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6. Molecular Dynamics Simulations