Theory and application of statistical energy analysis /
This up-to-date second edition provides a comprehensive examination of the theory and application of Statistical Energy Analysis (SEA) in acoustics and vibration. Complete with examples and data taken from real problems this unique book also explores.
| Clasificación: | Libro Electrónico |
|---|---|
| Autor principal: | |
| Otros Autores: | |
| Formato: | Electrónico eBook |
| Idioma: | Inglés |
| Publicado: |
Boston :
Butterworth-Heinemann,
�1995.
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| Edición: | 2nd ed. |
| Temas: | |
| Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Front Cover; Theory and Application of Statistical Energy Analysis; Copright Page; Table of Contents; LIST OF SYMBOLS; PREFACE; PART I. BASIC THEORY; CHAPTER 1. THE DEVELOPMENT OF STATISTICAL ENERGY ANALYSIS; 1.0 Introduction; 1.1 A Brief Historical Survey; 1.2 The General Procedures of SEA; 1.3 Future Developments of SEA; 1.4 Organization of Part I; CHAPTER 2. ENERGY DESCRIPTION OF VIBRATING SYSTEMS; 2.0 Introduction; 2.1 Modal Resonators; 2.2 Modal Analysis of Distributed Systems; 2.3 Dynamics of Infinite Systems; 2.4 Mode-Wave Duality; CHAPTER 3. ENERGY SHARING BY COUPLED SYSTEMS
- 3.0 Introduction3.1 Energy Sharing Among Resonators; 3.2 Energy Exchange in Multi-Degree-of-Freedom Systems; 3.3 Reciprocity and Energy Exchange in Wave Bearing Systems; 3.4 Some Sample Applications of SEA; CHAPTER 4. THE ESTIMATION OF RESPONSE STATISTICS IN STATISTICAL ENERGY ANALYSIS; 4.0 Introduction; 4.1 Mean Value Estimates of Dynamical Response; 4.2 Calculation of Variance in Temporal Mean Square Response; 4.3 Calculation of Variance in Temporal Mean Square Response; 4.4 Coherence Effects
- Pure Tone and Narrow Band Response; PART II. ENGINEERING APPLICATIONS
- CHAPTER 5. APPLICATIONS OF SEA5.0 Introduction; 5.1 Preliminary Design; 5.2 Diagnostic Testing; 5.3 Design Modifications; CHAPTER 6. PROCEDURES OF SEA; 6.0 Introduction; 6.1 Basic SEA Equations; 6.2 Defining the System Model; 6.3 Evaluating the Subsystem Parameters; 6.4 Evaluating the Response Variables; CHAPTER 7. MODELING THE SYSTEM; 7.0 Introduction; 7.1 Defining the Subsystems; 7.2 Defining the Coupling between Subsystems; 7.3 Defining the Excitations; 7.4 Subsystems, Physical Components and Global Modes; 7.5 Criteria for Limits on the Size of Subsystems
- CHAPTER 8. EVALUATING THE MODE COUNT8.0 Introduction; 8.1 One-dimensional Subsystems; 8.2 Two-dimensional Subsystems; 8.3 Three-dimensional Subsystems; 8.4 Modal Summation Approach; 8.5 Experimental Procedures; 8.6 Numerical Procedures; CHAPTER 9. EVALUATING THE DAMPING LOSS FACTOR; 9.0 Introduction; 9.1 Experimental Procedures; 9.2 Material Damping; 9.3 Boundary and Interface Damping; 9.4 Damping Treatments; CHAPTER 10. EVALUATING THE COUPLING LOSS FACTOR; 10.0 Introduction; 10.1 Point Connected Subsystems; 10.2 Line Connected Subsystems; 10.3 Area Connected Subsystems
- 10.4 Subsystem Impedances10.5 Experimental Procedures; 10.6 Numerical Procedures; CHAPTER 11. EVALUATING THE INPUT POWER; 11.0 Introduction; 11.1 Point Excitation; 11.2 Distributed Excitation; 11.3 Input Subsystem Models; 11.4 Experimental Procedures; CHAPTER 12. SOLVING FOR THE ENERGY DISTRIBUTION; 12.0 Introduction; 12.1 Matrix Formulation of the Power Flow Equations; 12.2 Numerical Solution Methods; 12.3 Variance Estimates; 12.4 Useful Approximations and Simplifications; CHAPTER 13. EVALUATING THE DYNAMICAL RESPONSE VARIABLES; 13.0 Introduction


