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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
Property Calculations
Structural Properties
Geometric Parameters
Bond Lengths and Angles
Conformational Analysis
Flexibility and Rigidity
Energetic Properties
Formation Enthalpies
Reaction Energies
Binding Energies
Activation Energies
Thermodynamic Functions
Electronic Properties
Molecular Orbitals
Electron Density
Electrostatic Potential
Partial Charges
Dipole Moments
Polarizabilities
Ionization Potentials
Electron Affinities
Vibrational Properties
Normal Mode Analysis
Vibrational Frequencies
Infrared Intensities
Raman Activities
Zero-Point Energies
Thermodynamic Corrections
Spectroscopic Properties
NMR Chemical Shifts
Spin-Spin Coupling Constants
Electronic Transitions
UV-Vis Spectra
Circular Dichroism
Transport Properties
Diffusion Coefficients
Viscosity
Thermal Conductivity
Electrical Conductivity
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9. Hybrid and Multiscale Methods
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11. Solvation and Environmental Effects