UsefulLinks
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
  1. Chemistry
  2. 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
17.
Best Practices and Validation
17.1.
Computational Protocol Design
17.1.1.
Method Selection Criteria
17.1.2.
Basis Set Selection
17.1.3.
Convergence Testing
17.1.4.
Error Estimation
17.2.
Validation Strategies
17.2.1.
Comparison with Experiment
17.2.2.
Benchmark Studies
17.2.3.
Cross-Validation
17.2.4.
Uncertainty Quantification
17.3.
Reproducibility
17.3.1.
Documentation Standards
17.3.2.
Data Management
17.3.3.
Version Control
17.3.4.
Computational Notebooks
17.4.
Ethical Considerations
17.4.1.
Data Sharing
17.4.2.
Publication Standards
17.4.3.
Computational Resources
17.4.4.
Environmental Impact

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1. Introduction to Computational Chemistry

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