Balıkesir Üniversitesi
Kütüphane ve Dokümantasyon Daire Başkanlığı

Dynamics of structures / (Kayıt no. 31979)

MARC ayrıntıları
000 -LEADER
fixed length control field 16060nam a2200349 i 4500
008 - FIXED-LENGTH DATA ELEMENTS--GENERAL INFORMATION
fixed length control field 111115s2012 flua b 001 0 eng
010 ## - LIBRARY OF CONGRESS CONTROL NUMBER
LC control number 2011046841
020 ## - INTERNATIONAL STANDARD BOOK NUMBER
International Standard Book Number 9780415620864
International Standard Book Number 0415620864
035 ## - SYSTEM CONTROL NUMBER
System control number (OCoLC)748331521
040 ## - CATALOGING SOURCE
Original cataloging agency DLC
Language of cataloging eng
Transcribing agency DLC
Modifying agency BTCTA
-- YDXCP
-- CDX
-- BWX
049 ## - LOCAL HOLDINGS (OCLC)
Holding library BAUN_MERKEZ
050 04 - LIBRARY OF CONGRESS CALL NUMBER
Classification number TA654
Item number .H79 2012
082 00 - DEWEY DECIMAL CLASSIFICATION NUMBER
Edition number 23
100 1# - MAIN ENTRY--PERSONAL NAME
Personal name Humar, J. L
245 10 - TITLE STATEMENT
Title Dynamics of structures /
Statement of responsibility, etc Jagmohan L. Humar
250 ## - EDITION STATEMENT
Edition statement 3rd ed
264 #1 - PRODUCTION, PUBLICATION, DISTRIBUTION, MANUFACTURE, AND COPYRIGHT NOTICE
Place of production, publication, distribution, manufacture Boca Raton, FL :
Name of producer, publisher, distributor, manufacturer CRC Press - Taylor and Francis Croup,
Date of production, publication, distribution, manufacture, or copyright notice [2012]
Date of production, publication, distribution, manufacture, or copyright notice ©2012
300 ## - PHYSICAL DESCRIPTION
Extent xxvii, 1028 pages :
Other physical details illustrations ;
Dimensions 26 cm
336 ## - CONTENT TYPE
Content Type Term text
Content Type Code txt
Source rdacontent
337 ## - MEDIA TYPE
Media Type Term unmediated
Media Type Code unmediated
Source rdamedia
338 ## - CARRIER TYPE
Carrier Type Term volume
Carrier Type Code volume
Source rdacarrier
500 ## - GENERAL NOTE
General note "A Balkema Book."
504 ## - BIBLIOGRAPHY, ETC. NOTE
Bibliography, etc Includes bibliographical references and index
505 00 - FORMATTED CONTENTS NOTE
Title Contents
-- Preface
-- Preface to Second Edition
-- List of symbols
-- 1. Introduction
-- 1.1. Objectives of the study of structural dynamics
-- 1.2. Importance of vibration analysis
-- 1.3. Nature of exciting forces
-- 1.3.1. Dynamic forces caused by rotating machinery
-- 1.3.2. Wind loads
-- 1.3.3. Blast loads
-- 1.3.4. Dynamic forces caused by earthquakes
-- 1.3.5. Periodic and nonperiodic loads
-- 1.3.6. Deterministic and nondeterministic loads
-- 1.4. Mathematical modeling of dynamic systems
-- 1.5. Systems of units
-- 1.6. Organization of the text
-- PART 1
-- 2. Formulation of the equations of motion: Single-degree-of-freedom systems
-- 2.1. Introduction
-- 2.2. Inertia forces
-- 2.3. Resultants of inertia forces on a rigid body
-- 2.4. Spring forces
-- 2.5. Damping forces
-- 2.6. Principle of virtual displacement
-- 2.7. Formulation of the equations of motion
-- 2.7.1. Systems with localized mass and localized stiffness
-- 2.7.2. Systems with localized mass but distributed stiffness
-- 2.7.3. Systems with distributed mass but localized stiffness
-- 2.7.4. Systems with distributed stiffness and distributed mass
-- 2.8. Modeling of multi-degree-of-freedom discrete parameter system
-- 2.9. Effect of gravity load
-- 2.10. Axial force effect
-- 2.11. Effect of support motion
-- Selected readings
-- Problems
-- 3. Formulation of the equations of motion: Multi-degree-of-freedom systems
-- 3.1. Introduction
-- 3.2. Principal forces in multi-degree-of-freedom dynamic system
-- 3.2.1. Inertia forces
-- 3.2.2. Forces arising due to elasticity
-- 3.2.3. Damping forces
-- 3.2.4. Axial force effects
-- 3.3. Formulation of the equations of motion
-- 3.3.1. Systems with localized mass and localized stiffness
-- 3.3.2. Systems with localized mass but distributed stiffness
-- 3.3.3. Systems with distributed mass but localized stiffness
-- 3.3.4. Systems with distributed mass and distributed stiffness
-- 3.4. Transformation of coordinates
-- 3.5. Static condensation of stiffness matrix
-- 3.6. Application of Ritz method to discrete systems
-- Selected readings
-- Problems
-- 4. Principles of analytical mechanics
-- 4.1. Introduction
-- 4.2. Generalized coordinates
-- 4.3. Constraints
-- 4.4. Virtual work
-- 4.5. Generalized forces
-- 4.6. Conservative forces and potential energy
-- 4.7. Work function
-- 4.8. Lagrangian multipliers
-- 4.9. Virtual work equation for dynamical systems
-- 4.10. Hamilton's equation
-- 4.11. Lagrange's equation
-- 4.12. Constraint conditions and Lagrangian multipliers
-- 4.13. Lagrange's equations for multi-degree-of-freedom systems
-- 4.14. Rayleigh's dissipation function
-- Selected readings
-- Problems
-- PART 2
-- 5. Free vibration response: Single-degree-of-freedom system
-- 5.1. Introduction
-- 5.2. Undamped free vibration
-- 5.2.1. Phase plane diagram
-- 5.3. Free vibrations with viscous damping
-- 5.3.1. Critically damped system
-- 5.3.2. Overdamped system
-- 5.3.3. Underdamped system
-- 5.3.4. Phase plane diagram
-- 5.3.5. Logarithmic decrement
-- 5.4. Damped free vibration with hysteretic damping
-- 5.5. Damped free vibration with coulomb damping
-- 5.5.1. Phase plane representation of vibrations under Coulomb damping
-- Selected readings
-- Problems
-- 6. Forced harmonic vibrations: Single-degree-of-freedom system
-- 6.1. Introduction
-- 6.2. Procedures for the solution of the forced vibration equation
-- 6.3. Undamped harmonic vibration
-- 6.4. Resonant response of an undamped system
-- 6.5. Damped harmonic vibration
-- 6.6. Complex frequency response
-- 6.7. Resonant response of a damped system
-- 6.8. Rotating unbalanced force
-- 6.9. Transmitted motion due to support movement
-- 6.10. Transmissibility and vibration isolation
-- 6.11. Vibration measuring instruments
-- 6.11.1. Measurement of support acceleration
-- 6.11.2. Measurement of support displacement
-- 6.12. Energy dissipated in viscous damping
-- 6.13. Hysteretic damping
-- 6.14. Complex stiffness
-- 6.15. Coulomb damping
-- 6.16. Measurement of damping
-- 6.16.1. Free vibration decay
-- 6.16.2. Forced-vibration response
-- Selected readings
-- Problems
-- 7. Response to general dynamic loading and transient response
-- 7.1. Introduction
-- 7.2. Response to an Impulsive Force
-- 7.3. Response to general dynamic loading
-- 7.4. Response to a step function load
-- 7.5. Response to a ramp function load
-- 7.6. Response to a step function load with rise time
-- 7.7. Response to shock loading
-- 7.7.1. Rectangular pulse
-- 7.7.2. Triangular pulse
-- 7.7.3. Sinusoidal pulse
-- 7.7.4. Effect of viscous damping
-- 7.7.5. Approximate response analysis for short-duration pulses
-- 7.8. Response to ground motion
-- 7.8.1. Response to a short-duration ground motion pulse
-- 7.9. Analysis of response by the phase plane diagram
-- Selected readings
-- Problems
-- 8. Analysis of single-degree-of-freedom systems: Approximate and numerical methods
-- 8.1. Introduction
-- 8.2. Conservation of energy
-- 8.3. Application of Rayleigh method to multi-degree-of-freedom systems
-- 8.3.1. Flexural vibrations of a beam
-- 8.4. Improved Rayleigh method
-- 8.5. Selection of an appropriate vibration shape
-- 8.6. Systems with distributed mass and stiffness: analysis of internal forces
-- 8.7. Numerical evaluation of Duhamel's integral
-- 8.7.1. Rectangular summation
-- 8.7.2. Trapezoidal method
-- 8.7.3. Simpson's method
-- 8.8. Direct integration of the equations of motion
-- 8.9. Integration based on piece-wise linear representation of the excitation
-- 8.10. Derivation of general formulas
-- 8.11. Constant-acceleration method
-- 8.12. Newmark's β method
-- 8.12.1. Average acceleration method
-- 8.12.2. Linear acceleration method
-- 8.13. Wilson-method
-- 8.14. Methods based on difference expressions
-- 8.14.1. Central difference method
-- 8.14.2. Houbolt's method
-- 8.15. Errors involved in numerical integration
-- 8.16. Stability of the integration method
-- 8.16.1. Newmark's β method
-- 8.16.2. Wilson-method
-- 8.16.3. Central difference method
-- 8.16.4. Houbolt's method
-- 8.17. Selection of a numerical integration method
-- 8.18. Selection of time step
-- Selected readings
-- Problems
-- 9. Analysis of response in the frequency domain
-- 9.1. Transform methods of analysis
-- 9.2. Fourier series representation of a periodic function
-- 9.3. Response to a periodically applied load
-- 9.4. Exponential form of Fourier series
-- 9.5. Complex frequency response function
-- 9.6. Fourier integral representation of a nonperiodic load
-- 9.7. Response to a nonperiodic load
-- 9.8. Convolution integral and convolution theorem
-- 9.9. Discrete Fourier transform
-- 9.10. Discrete convolution and discrete convolution theorem
-- 9.11. Comparison of continuous and discrete fourier transforms
-- 9.12. Application of discrete inverse transform
-- 9.13. Comparison between continuous and discrete convolution
-- 9.14. Discrete convolution of an infinite- and a finite-duration waveform
-- 9.15. Corrective response superposition methods
-- 9.15.1. Corrective transient response based on initial conditions
-- 9.15.2. Corrective periodic response based on initial conditions
-- 9.15.3. Corrective responses obtained from a pair of force pulses
-- 9.16. Exponential window method
-- 9.17. The fast Fourier transform
-- 9.18. Theoretical background to fast Fourier transform
-- 9.19. Computing speed of FFT convolution
-- Selected readings
-- Problems
-- PART 3
-- 10. Free vibration response: Multi-degree-of-freedom system
-- 10.1. Introduction
-- 10.2. Standard eigenvalue problem
-- 10.3. Linearized eigenvalue problem and its properties
-- 10.4. Expansion theorem
-- 10.5. Rayleigh quotient
-- 10.6. Solution of the undamped free vibration problem
-- 10.7. Mode superposition analysis of free-vibration response
-- 10.8. Solution of the damped free-vibration problem
-- 10.9. Additional orthogonality conditions
-- 10.10. Damping orthogonality
-- Selected readings
-- Problems
-- 11. Numerical solution of the eigenproblem
-- 11.1. Introduction
-- 11.2. Properties of standard eigenvalues and eigenvectors
-- 11.3. Transformation of a linearized eigenvalue
Title problem to the standard form
-- 11.4. Transformation methods
-- 11.4.1. Jacobi diagonalization
-- 11.4.2. Householder's transformation
-- 11.4.3. QR transformation
-- 11.5. Iteration methods
-- 11.5.1. Vector iteration
-- 11.5.2. Inverse vector iteration
-- 11.5.3. Vector iteration with shifts
-- 11.5.4. Subspace iteration
-- 11.5.5. Lanczos iteration
-- 11.6. Determinant search method
-- 11.7. Numerical solution of complex eigenvalue problem
-- 11.7.1. Eigenvalue problem and the orthogonality relationship
-- 11.7.2. Matrix iteration for determining the complex eigenvalues
-- 11.8. Semidefinite or unrestrained systems
-- 11.8.1. Characteristics of an unrestrained system
-- 11.8.2. Eigenvalue solution of a semidefinite system
-- 11.9. Selection of a method for the determination of eigenvalues
-- Selected readings
-- Problems
-- 12. Forced dynamic response: Multi-degree-of-freedom systems
-- 12.1. Introduction
-- 12.2. Normal coordinate transformation
-- 12.3. Summary of mode superposition method
-- 12.4. Complex frequency response
-- 12.5. Vibration absorbers
-- 12.6. Effect of support excitation
-- 12.7. Forced vibration of unrestrained system
-- Selected readings
-- Problems
-- 13. Analysis of multi-degree-of-freedom systems: Approximate and numerical methods
-- 13.1. Introduction
-- 13.2. Rayleigh-Ritz method
-- 13.3. Application of Ritz method to forced vibration response
-- 13.3.1. Mode superposition method
-- 13.3.2. Mode acceleration method
-- 13.3.3. Static condensation and Guyan's reduction
-- 13.3.4. Load-dependent Ritz vectors
-- 13.3.5. Application of lanczos vectors in the transformation of the equations of motion
-- 13.4. Direct integration of the equations of motion
-- 13.4.1. Explicit integration schemes
-- 13.4.2. Implicit integration schemes
-- 13.4.3. Mixed methods in direct integration
-- 13.5. Analysis in the frequency domain
-- 13.5.1. Frequency analysis of systems with classical mode shapes
-- 13.5.2. Frequency analysis of systems without classical mode shapes
-- Selected readings
-- Problems
-- PART 4
-- 14. Formulation of the equations of motion: Continuous systems
-- 14.1. Introduction
-- 14.2. Transverse vibrations of a beam
-- 14.3. Transverse vibrations of a beam: variational formulation
-- 14.4. Effect of damping resistance on transverse vibrations of a beam
-- 14.5. Effect of shear deformation and rotatory inertia on the flexural vibrations of a beam
-- 14.6. Axial vibrations of a bar
-- 14.7. Torsional vibrations of a bar
-- 14.8. Transverse vibrations of a string
-- 14.9. Transverse vibrations of a shear beam
-- 14.10. Transverse vibrations of a beam excited by support motion
-- 14.11. Effect of axial force on transverse vibrations of a beam
-- Selected readings
-- Problems
-- 15. Continuous systems: Free vibration response
-- 15.1. Introduction
-- 15.2. Eigenvalue problem for the transverse vibrations of a beam
-- 15.3. General eigenvalue problem for a continuous system
-- 15.3.1. Definition of the eigenvalue problem
-- 15.3.2. Self-adjointness of operators in the eigenvalue problem
-- 15.3.3. Orthogonality of eigenfunctions
-- 15.3.4. Positive and positive definite operators
-- 15.4. Expansion theorem
-- 15.5. Frequencies and mode shapes for lateral vibrations of a beam
-- 15.5.1. Simply supported beam
-- 15.5.2. Uniform cantilever beam
-- 15.5.3. Uniform beam clamped at both ends
-- 15.5.4. Uniform beam with both ends free
-- 15.6. Effect of shear deformation and rotatory inertia on the frequencies of flexural vibrations
-- 15.7. Frequencies and mode shapes for the axial vibrations of a bar
-- 15.7.1. Axial vibrations of a clamped-free bar
-- 15.7.2. Axial vibrations of a free-free bar
-- 15.8. Frequencies and mode shapes for the transverse vibration of a string
-- 15.8.1. Vibrations of a string tied at both ends
-- 15.9. Boundary conditions containing the eigenvalue
-- 15.10. Free-vibration response of a continuous system
-- 15.11. Undamped free transverse vibrations of a beam
-- 15.12. Damped free transverse vibrations of a beam
-- Selected readings
-- Problems
-- 16. Continuous systems: Forced-vibration response
-- 16.1. Introduction
-- 16.2. Normal coordinate transformation: general case of an undamped system
-- 16.3. Forced lateral vibration of a beam
-- 16.4. Transverse vibrations of a beam under traveling load
-- 16.5. Forced axial vibrations of a uniform bar
-- 16.6. Normal coordinate transformation, damped case
-- Selected readings
-- Problems
-- 17. Wave propagation analysis
-- 17.1. Introduction
-- 17.2. The Phenomenon of wave propagation
-- 17.3. Harmonic waves
-- 17.4. One dimensional wave equation and its solution
-- 17.5. Propagation of waves in systems of finite extent
-- 17.6. Reflection and refraction of waves at a discontinuity in the system properties
-- 17.7. Characteristics of the wave equation
-- 17.8. Wave dispersion
-- Selected readings
-- Problems
-- PART 5
-- 18. Finite element method
-- 18.1. Introduction
-- 18.2. Formulation of the finite element equations
-- 18.3. Selection of shape functions
-- 18.4. Advantages of the finite element method
-- 18.5. Element Shapes
-- 18.5.1. One-dimensional elements
-- 18.5.2. Two-dimensional elements
-- 18.6. One-dimensional bar element
-- 18.7. Flexural vibrations of a beam
-- 18.7.1. Stiffness matrix of a beam element
-- 18.7.2. Mass matrix of a beam element
-- 18.7.3. Nodal applied force vector for a beam element
-- 18.7.4. Geometric stiffness matrix for a beam element
-- 18.7.5. Simultaneous axial and lateral vibrations
-- 18.8. Stress-strain relationships for a continuum
-- 18.8.1. Plane stress
-- 18.8.2. Plane strain
-- 18.9. Triangular element in plane stress and plane strain
-- 18.10. Natural coordinates
-- 18.10.1. Natural coordinate formulation for a uniaxial bar element
-- 18.10.2. Natural coordinate formulation for a constant strain triangle
-- 18.10.3. Natural coordinate formulation for a linear strain triangle
-- Selected readings
-- Problems
-- 19. Component mode synthesis
-- 19.1. Introduction
-- 19.2. Fixed interface methods
-- 19.2.1. Fixed interface normal modes
-- 19.2.2. Constraint modes
-- 19.2.3. Transformation of coordinates
-- 19.2.4. Illustrative example
-- 19.3. Free interface method
-- 19.3.1. Free interface normal modes
-- 19.3.2. Attachment modes
-- 19.3.3. Inertia relief attachment modes
-- 19.3.4. Residual flexibility attachment modes
-- 19.3.5. Transformation of coordinates
-- 19.3.6. Illustrative example
-- 19.4. Hybrid method
-- 19.4.1. Experimental determination of modal parameters
-- 19.4.2. Experimental determination of the static constraint modes
-- 19.4.3. Component modes and transformation of component matrices
-- 19.4.4. Illustrative example
-- Selected readings
-- Problems
-- 20. Analysis of nonlinear response
-- 20.1. Introduction
-- 20.2. Single-degree-of freedom system
-- 20.2.1. Central difference method
-- 20.2.2. Newmark's β Method
-- 20.3. Errors involved in numerical integration of nonlinear systems
-- 20.4. Multiple degree-of-freedom system
-- 20.4.1. Explicit integration
-- 20.4.2. Implicit integration
-- 20.4.3. Iterations within a time step
-- Selected readings
-- Problems
-- Answers to selected problems
-- Index
650 #0 - SUBJECT ADDED ENTRY--TOPICAL TERM
Topical term or geographic name as entry element Structural dynamics
900 ## - EQUIVALENCE OR CROSS-REFERENCE-PERSONAL NAME [LOCAL, CANADA]
Personal Name 34773
Numeration satın
942 ## - ADDED ENTRY ELEMENTS (KOHA)
Source of classification or shelving scheme Library of Congress Classification
Koha item type Kitap
Mevcut
Withdrawn status Lost status Source of classification or shelving scheme Damaged status Not for loan Collection code Home library Current library Shelving location Date acquired Source of acquisition Cost, normal purchase price Inventory number Full call number Barcode Date last seen Price effective from Koha item type
    Library of Congress Classification     Non-fiction Mehmet Akif Ersoy Merkez Kütüphanesi Mehmet Akif Ersoy Merkez Kütüphanesi Genel Koleksiyon 27/05/2013 Satın Alma 202.76 255.07.02.01.06- TA654 .H79 2012 034773 22/12/2015 11/01/2015 Kitap
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