Review
Atomic and Molecular Electron Affinities: Photoelectron Experiments and Theoretical Computations
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- I. Introduction and Scope
- A. Definitions of Atomic Electron Affinities
- B. Definitions of Molecular Electron Affinities
- II. Experimental Photoelectron Electron Affinities
- A. Historical Background
- B. The Photoeffect
- C. Experimental Methods
- D. Time-of-Flight Negative Ion Photoelectron Spectroscopy
- E. Some Thermochemical Uses of Electron Affinities
- F. Layout of Table 10: Experimental Photoelectron Electron Affinities
- III. Theoretical Determination of Electron Affinities
- A. Historical Background1. Theoretical Predictions of Atomic Electron Affinities
- 2. Theoretical Predictions of Molecular Electron Affinities
- B. Present Status of Theoretical Electron Affinity Predictions
- C. Basis Sets and Theoretical Electron Affinities
- D. Density Functional Theory (DFT) and Electron Affinities
- E. Layout of Tables 8 and 9: Theoretical DFT Electron Affinities
- F. Details of Density Functional Methods Employed in Tables 8 and 9
- IV. Discussion and Observations
- A. Statistical Analysis of DFT Results Through Comparisons to Experiment and Other Theoretical Methods
- B. Theoretical EAs for Species with Unknown Experimental EAs
- C. Applicability of DFT to Anions and the Future of DFT EA Predictions
- D. Specific Theoretical Successes
- E. Interesting Problems
- 1. C2
- 2. SF6 and SeF6
- 3. Polycyclic Aromatic Hydrocarbons
- 4. C4O
- V. Conclusions
- VI. Acknowledgments
- VII. Compilations of Experimental and Theoretical Electron Affinities
- A. Report of Theoretical DFT Electron Affinities, Tables 8 and 9
- B. Review of Experimental Photoelectron Electron Affinities, Table 10
- VIII. Supporting Information
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History
- Published In Issue January 09, 2002
- Received June 13, 2001
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