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9780824723156

Probability Models in Engineering and Science

by ;
  • ISBN13:

    9780824723156

  • ISBN10:

    0824723155

  • Format: Hardcover
  • Copyright: 2005-06-24
  • Publisher: CRC Press
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List Price: $119.95

Summary

Certainty exists only in idealized models. Viewed as the quantification of uncertainties, probabilitry and random processes play a significant role in modern engineering, particularly in areas such as structural dynamics. Unlike this book, however, few texts develop applied probability in the practical manner appropriate for engineers. Probability Models in Engineering and Science provides a comprehensive, self-contained introduction to applied probabilistic modeling. The first four chapters present basic concepts in probability and random variables, and while doing so, develop methods for static problems. The remaining chapters address dynamic problems, where time is a critical parameter in the randomness. Highlights of the presentation include numerous examples and illustrations and an engaging, human connection to the subject, achieved through short biographies of some of the key people in the field. End-of-chapter problems help solidify understanding and footnotes to the literature expand the discussions and introduce relevant journals and texts. This book builds the background today's engineers need to deal explicitly with the scatter observed in experimental data and with intricate dynamic behavior. Designed for undergraduate and graduate coursework as well as self-study, the text's coverage of theory, approximation methods, and numerical methods make it equally valuable to practitioners.

Author Biography

Seon Mi Han is a professor with the Department of Mechanical Engineering, Texas Tech University, Lubbock, Texas, USA.

Table of Contents

Introduction
1(14)
Applications
1(11)
Random Vibration
2(1)
Fatigue Life
3(2)
Ocean-Wave Forces
5(3)
Wind Forces
8(1)
Material Properties
8(3)
Statistics and Probability
11(1)
Units
12(1)
Organization of the Text
13(1)
Problems
13(2)
Events and Probability
15(34)
Sets
15(11)
Basic Events
16(5)
Operational Rules
21(5)
Probability
26(19)
Axioms of Probability
29(1)
Extensions from the Axioms
30(1)
Conditional Probability
31(2)
Statistical Independence
33(2)
Total Probability
35(2)
Bayes' Theorem
37(8)
Concluding Summary
45(1)
Problems
45(4)
Random Variable Models
49(76)
Probability Distribution Function
50(2)
Probability Density Function
52(5)
Mathematical Expectation
57(9)
Variance
60(6)
Useful Probability Densities
66(35)
The Uniform Density
66(3)
The Exponential Density
69(2)
The Normal (Gaussian) Density
71(13)
The Lognormal Density
84(3)
The Rayleigh Density
87(3)
Probability Density Functions of a Discrete Random Variable
90(9)
Moment-Generating Functions
99(2)
Two Random Variables
101(16)
Covariance and Correlation
110(7)
Concluding Summary
117(1)
Problems
118(7)
Functions of Random Variables
125(70)
Exact Functions of One Variable
125(7)
Functions of Two or More RVs
132(29)
General Case
149(12)
Approximate Analysis
161(18)
Direct Methods
161(4)
Mean and Variance of a General Function of X to Order σ2x
165(3)
Mean and Variance of a General Function of n RVs
168(11)
Monte Carlo Methods
179(9)
Independent Uniform Random Numbers
179(4)
Independent Normal Random Numbers
183(2)
A Discretization Procedure
185(3)
Concluding Summary
188(1)
Problems
188(4)
The Standard Normal Table
192(3)
Random Processes
195(80)
Basic Random Process Descriptors
195(1)
Ensemble Averaging
196(5)
Stationarity
201(7)
Derivatives of Stationary Processes
208(2)
Fourier Series and Fourier Transforms
210(19)
Harmonic Processes
229(1)
Power Spectra
230(31)
Narrow- and Broad-Band Processes
254(3)
White Noise Processes
257(2)
Spectral Densities of Derivatives of Stationary Random Processes
259(2)
Fourier Representation of a Random Process
261(10)
Borgman's Method of Frequency Discretization
267(4)
Concluding Summary
271(1)
Problems
271(4)
Single-Degree-of-Freedom Dynamics
275(64)
Motivating Examples
277(1)
Transport of a Satellite
277(1)
Rocket Ship
277(1)
Deterministic SDoF Vibration
278(29)
Free Vibration With No Damping
288(1)
Harmonic Forced Vibration With No Damping
289(2)
Free Vibration With Damping
291(1)
Forced Vibration With Damping
292(4)
Impulse Excitation
296(3)
Arbitrary Loading: Convolution
299(4)
Frequency Response Function
303(4)
SDoF: The Response to Random Loads
307(18)
Formulation
307(1)
Derivation of Equations
308(1)
Response Correlations
309(3)
Response Spectral Density
312(13)
Response to Two Random Loads
325(8)
Concluding Summary
333(1)
Problems
333(6)
Multidegree-of-Freedom Vibration
339(64)
Deterministic Vibration
339(12)
Solution by Frequency Response Function
341(2)
Modal Analysis
343(6)
Advantages of Modal Analysis
349(2)
Response to Random Loads
351(22)
Response due to a Single Random Force
353(3)
Response to Multiple Random Forces
356(17)
Periodic Structures
373(5)
Perfect Lattice Models
375(3)
Effects of Imperfection
378(1)
Inverse Vibration
378(11)
Deterministic Inverse Vibration Problem
381(3)
Effect of Uncertain Data
384(5)
Random Eigenvalues
389(6)
A Two-Degree-of-Freedom Model
393(2)
Concluding Summary
395(1)
Problems
395(8)
Continuous System Vibration
403(52)
Deterministic Continuous Systems
404(7)
Strings
404(2)
Axial Vibration of Beams
406(2)
Transversely Vibrating Beams
408(3)
Sturm-Liouville Eigenvalue Problem
411(9)
Orthogonality
413(1)
Natural Frequencies and Mode Shapes
414(6)
Deterministic Vibration
420(8)
Free Response
420(2)
Forced Response via Eigenfunction Expansion
422(6)
Random Vibration of Continuous Systems
428(11)
Derivation of Response Spectral Density
429(10)
Beams with Complex Loading
439(12)
Transverse Vibration of Beam with Axial Force
439(3)
Transverse Vibration of Beam on Elastic Foundation
442(4)
Response of a Beam to a Traveling Force
446(5)
Concluding Summary
451(1)
Problems
452(3)
Reliability
455(60)
Introduction
455(2)
First Excursion Failure
457(36)
Exponential Failure Law
462(3)
Modified Exponential Failure Law
465(1)
Calculation of Up-Crossing Rate
466(6)
Narrow-Band Process -- Envelope Function
472(2)
Rice's Envelope Function for Gaussian Narrow-Band Process X (t)
474(14)
Other Failure Laws
488(5)
Fatigue Life Prediction
493(19)
Failure Curves
495(2)
Peak Distribution for Stationary Random Process
497(4)
Peak Distribution of a Gaussian Process
501(11)
Concluding Summary
512(1)
Problems
512(3)
Nonlinear Dynamic Models
515(76)
Examples of Nonlinear Vibration
516(3)
Fundamental Nonlinear Equations
519(2)
Statistical Equivalent Linearization
521(11)
Equivalent Nonlinearization
530(2)
Perturbation Methods
532(23)
Lindstedt-Poincare Method
534(5)
Forced Oscillations of Quasiharmonic Systems
539(4)
Jump Phenomenon
543(1)
Periodic Solutions of Nonautonomous Systems
544(8)
Random Duffing Oscillator
552(3)
The van der Pol Equation
555(6)
Limit Cycles
556(1)
The Forced van der Pol Equation
557(4)
Markov Process-Based Models
561(26)
Probability Background
561(4)
The Fokker-Planck Equation
565(22)
Concluding Summary
587(1)
Problems
587(4)
Nonstationary Models
591(40)
Some Applications
592(6)
Envelope Function Model
598(9)
Transient Response
599(6)
MS Nonstationary Response
605(2)
Nonstationary Generalizations
607(5)
Discrete Model
608(2)
Complex-Valued Stochastic Processes
610(1)
Continuous Model
610(2)
Priestley's Model
612(3)
The Stieltjes Integral: An Aside
612(2)
Priestley's Model
614(1)
SDoF Oscillator Response
615(7)
Stationary Case
615(1)
Nonstationary Case
616(2)
Undamped Oscillator
618(1)
Underdamped Oscillator
619(3)
Multi DoF Oscillator Response
622(3)
Input Characterization
622(2)
Response Characterization
624(1)
Nonstationary and Nonlinear Oscillator
625(4)
The Nonstationary and Nonlinear Duffing
627(2)
Concluding Summary
629(1)
Problems
629(2)
The Monte Carlo Method
631(48)
Introduction
631(4)
Random-Number Generation
635(24)
Standard Uniform Random Numbers
635(2)
Generation of Nonuniform Random Variates
637(11)
Composition Method
648(3)
Von Neumann's Rejection-Acceptance Method
651(8)
Joint Random Numbers
659(5)
Inverse Transform Method
660(1)
Linear Transform Method
661(3)
Error Estimates
664(6)
Applications
670(6)
Evaluation of Finite-Dimensional Integrals
670(3)
Generating a Time History for a Stationary Random Process Defined by a Power Spectral Density
673(3)
Concluding Summary
676(1)
Problems
676(3)
Fluid-Induced Vibration
679(48)
Ocean Currents and Waves
679(23)
Spectral Density
680(4)
Ocean Wave Spectral Densities
684(5)
Approximation of Spectral Density from Time Series
689(2)
Generation of Time Series from a Spectral Density
691(1)
Short-Term Statistics
692(6)
Long-Term Statistics
698(2)
Wave Velocities via Linear Wave Theory
700(2)
Fluid Forces in General
702(11)
Wave Force Regime
703(2)
Wave Forces on Small Structures -- Morison Equation
705(6)
Vortex-Induced Vibration
711(2)
Examples
713(10)
Static Configuration of a Towing Cable
713(4)
Fluid Forces on an Articulated Tower
717(3)
Weibull and Gumbel Wave Height Distributions
720(2)
Reconstructing Time Series for a Given Significant Wave Height
722(1)
Available Numerical Codes
723(4)
Index 727

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