This study, originally two volumes, covers both the classical aspects of vibration and the quantum oscillator. Part I discusses both linear and nonlinear vibrations. Part II looks at quantum systems, concentrating on vibrations in atoms and molecules and their interaction with electromagnetic radiation. The similarities of classical and quantum methods are stressed.
Inhaltsverzeichnis
Preface to part I; Preface to part II; Preface to the combined volume; 1. General introduction - author to reader; Part I. The Simple Classical Vibrator: 2. The free vibrator; 3. Applications of complex variables to linear systems; 4.. Fourier series and integral; 5. Spectrum analysis; 6. The driven harmonic vibrator; 7. Waves and resonators; 8. Velocity-dependent forces; 9. The driven anharmonic vibrator; subharmonics; stability; 10. Parametric excitation; 11. Maintained oscillators; 12. Coupled vibrators; Part II. The Simple Vibrator in Quantum Mechanics: 13. The quantized harmonic vibrator and its classical features; 14. Anharmonic vibrators; 15. Vibrations and cyclotron orbits in two dimensions; 16. Dissipation, level broadening and radiation; 17. The equivalent classical oscillator; 18. The two-level system; 19. Line broadening; 20. The ammonia maser; 21. The family of masers: from laser to travelling-wave oscillator; Epilogue; References; Index.
Klappentext
The study of vibration in physical systems is central to almost all fields in physics and engineering. This work, originally published in two volumes, examines the classical aspects in Part I and the quantum oscillator in Part II. The classical linear vibrator is treated first and the underlying unity of all linear oscillations in electrical, mechanical and acoustic systems is emphasized. The treatment of nonlinear vibrations, a field with which engineers and physicists are generally less familiar, is then examined. Part II then concentrates on quantum systems, looking at the vibrations in atoms and molecules and their interaction with electromagnetic radiation. The similarities of classical and quantum methods are stressed and the limits of the classical treatment are examined. Throughout the book, each phenomenon discussed is well illustrated with many examples; and theory and experiment are compared. This is a useful introduction to the more advanced mathematical treatment of vibrations as it bridges the gap between the basic principles and more specialized concepts.
This study, originally two volumes, covers both the classical aspects of vibration and the quantum oscillator. Part I discusses both linear and nonlinear vibrations. Part II looks at quantum systems, concentrating on vibrations in atoms and molecules and their interaction with electromagnetic radiation. The similarities of classical and quantum methods are stressed and the limits of the classical treatment are examined. This is a useful introduction to the more advanced mathematical treatment of vibrations as it bridges the gap between the basic principles and more specialized concepts.
