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Inhaltsverzeichnis
- A.
- I. Hypervirial Theorems and Exact Solutions of the Schrödinger Equation.
- II. Hypervirial Theorems and Perturbation Theory.
- III. Hypervirial Theorems and the Variational Theorem.
- IV. Non Diagonal Hypervirial Theorems and Approximate Functions.
- V. Hypervirial Functions and Self-Consistent Field Functions.
- VI. Perturbation Theory Without Wave Function.
- B.
- VII. Importance of the Different Boundary Conditions.
- VIII. Hypervirial Theorems for 1D Finite Systems. General Boundary Conditions.
- IX. Hypervirial Theorems for 1D Finite Systems. Dirichlet Boundary Conditions.
- X. Hypervirial Theorems for Finite 1D Systems. Von Neumann Boundary Conditions.
- XI. Hypervirial Theorems for Finite Multidimensional Systems.
- Special Topics.
- 46. Hypervirial theorems and statistical quantum mechanics.
- 47. Hypervirial theorems and semiclassica1 approximation.
- Numerical results.
- References.
- Appendix I. Evolution operators.
- Appendix II. Hamiltonian of an isolated N-particles system.
- Appendix III. Project ion operators.
- Appendix IV. Perturbation theory.
- Appendix V. Differentiation of matrices and determinants.
- Apendix VI. Dynamics of systems with time independent Hamiltonians.
- Appendix VII. Elements of probability theory for continuous random variables.
- Appendix VIII. Electrons in crystal lattices.
- Appendix IX. Numerical integration of the Schrödinger equation.
- Appendix X. Expansion in cthz series and polynomial power coefficients.
- Bibliography and References for Appendices.
- Program I.
- Program II.
- Program III.
- Program IV.
- Program V.
- Program VI.
- Program VII.
- Program VIII.
- Program IX.
- Program X.
- Program XI.
- Program XII.
- Program XIII.
- Program XIV.
- Program XV.
- Program XVI.
- Program XVII.