Muutke küpsiste eelistusi

Engineering Analysis with ANSYS Software [Pehme köide]

4.00/5 (14 hinnangut Goodreads-ist)
(Professor in the Department of Mechanical Engineering, Tokyo University of Science), (Professor in the Department of Mechanical Engineering, Tokyo University of Science), (Professor, Mechanical Engineering, Brunel University, UK)
  • Formaat: Paperback / softback, 472 pages, kõrgus x laius: 246x189 mm, kaal: 1020 g, Approx. 450 illustrations; Illustrations, unspecified
  • Ilmumisaeg: 18-Dec-2006
  • Kirjastus: Butterworth-Heinemann Ltd
  • ISBN-10: 075066875X
  • ISBN-13: 9780750668750
Teised raamatud teemal:
  • Pehme köide
  • Hind: 62,64 €*
  • * saadame teile pakkumise kasutatud raamatule, mille hind võib erineda kodulehel olevast hinnast
  • See raamat on trükist otsas, kuid me saadame teile pakkumise kasutatud raamatule.
  • Kogus:
  • Lisa ostukorvi
  • Tasuta tarne
  • Lisa soovinimekirja
Engineering Analysis with ANSYS SoftwareSuurem pilt
  • Formaat: Paperback / softback, 472 pages, kõrgus x laius: 246x189 mm, kaal: 1020 g, Approx. 450 illustrations; Illustrations, unspecified
  • Ilmumisaeg: 18-Dec-2006
  • Kirjastus: Butterworth-Heinemann Ltd
  • ISBN-10: 075066875X
  • ISBN-13: 9780750668750
Teised raamatud teemal:
Püsilink: https://www.kriso.ee/db/9780750668750.html
Märksõnad:
For all engineers and students coming to finite element analysis or to ANSYS software for the first time, this powerful hands-on guide develops a detailed and confident understanding of using ANSYS's powerful engineering analysis tools.

The best way to learn complex systems is by means of hands-on experience. With an innovative and clear tutorial based approach, this powerful book provides readers with a comprehensive introduction to all of the fundamental areas of engineering analysis they are likely to require either as part of their studies or in getting up to speed fast with the use of ANSYS software in working life.

Opening with an introduction to the principles of the finite element method, the book then presents an overview of ANSYS technologies before moving on to cover key applications areas in detail.

Key topics covered:

Introduction to the finite element method
Getting started with ANSYS software
stress analysis
dynamics of machines
fluid dynamics problems
thermo mechanics
contact and surface mechanics
exercises, tutorials, worked examples

With its detailed step-by-step explanations, extensive worked examples and sample problems, this book will develop the reader's understanding of FEA and their ability to use ANSYS's software tools to solve their own particular analysis problems, not just the ones set in the book.

* Develops a detailed understanding of finite element analysis and the use of ANSYS software by example
* Develops a detailed understanding of finite element analysis and the use of ANSYS software by example
* Exclusively structured around the market leading ANSYS software, with detailed and clear step-by-step instruction, worked examples, and detailed, screen-by-screen illustrative problems to reinforce learning

Muu info

The essential guide to learning engineering analysis using ANSYS for beginners and experienced users alike
Preface xiii
The Aims and Scope of the Book xv
Basics of Finite-Element Method
1(36)
Method of Weighted Residuals
2(3)
Sub-domain method (Finite volume method)
2(2)
Galerkin method
4(1)
Rayleigh--Ritz Method
5(2)
Finite-Element Method
7(7)
One-element case
10(1)
Three-element case
11(3)
FEM in Two-Dimensional Elastostatic Problems
14(23)
Elements of finite-element procedures in the analysis of plane elastostatic problems
15(1)
Fundamental formulae in plane elastostatic problems
16(1)
Equations of equilibrium
16(1)
Strain--displacement relations
16(1)
Stress--strain relations (constitutive equations)
17(2)
Boundary conditions
19(2)
Variational formulae in elastostatic problems: the principle of virtual work
21(1)
Formulation of the fundamental finite-element equations in plane elastostatic problems
21(1)
Strain--displacement matrix or [ B] matrix
21(4)
Stress--strain matrix or [ D] matrix
25(1)
Element stiffness equations
25(2)
Global stiffness equations
27(3)
Example: Finite-element calculations for a square plate subjected to uniaxial uniform tension
30(4)
Bibliography
34(3)
Overview of Ansys Structure and Visual Capabilities
37(14)
Introduction
37(1)
Starting the Program
38(5)
Preliminaries
38(2)
Saving and restoring jobs
40(1)
Organization of files
41(1)
Printing and plotting
42(1)
Exiting the program
43(1)
Preprocessing Stage
43(6)
Building a model
43(1)
Defining element types and real constants
44(2)
Defining material properties
46(1)
Construction of the model
47(1)
Creating the model geometry
47(1)
Applying loads
48(1)
Solution Stage
49(1)
Postprocessing Stage
50(1)
Application of Ansys to Stress Analysis
51(92)
Cantilever Beam
51(33)
Example problem: A cantilever beam
52(1)
Problem description
53(1)
Review of the solutions obtained by the elementary beam theory
53(1)
Analytical procedures
53(1)
Creation of an analytical model
53(3)
Input of the elastic properties of the beam material
56(1)
Finite-element discretization of the beam area
57(5)
Input of boundary conditions
62(9)
Solution procedures
71(2)
Graphical representation of the results
73(3)
Comparison of FEM results with experimental ones
76(1)
Problems to solve
76(4)
Appendix: Procedures for Creating Stepped Beams
80(1)
Creation of a stepped beam
80(1)
How to cancel the selection of areas
81(1)
Creation of a stepped beam with a rounded fillet
81(3)
How to display area numbers
84(1)
The Principle of St. Venant
84(9)
Example problem: An elastic strip subjected to distributed uniaxial tensile stress or negative pressure at one end and clamped at the other end
84(1)
Problem description
85(1)
Analytical procedures
85(1)
Creation of an analytical model
85(1)
Input of the elastic properties of the strip material
86(1)
Finite-element discretization of the strip area
86(2)
Input of boundary conditions
88(1)
Solution procedures
89(3)
Contour plot of stress
92(1)
Discussion
92(1)
Stress Concentration Due to Elliptic Holes
93(13)
Example problem: An elastic plate with an elliptic hole in its center subjected to uniform longitudinal tensile stress σo at one end and damped at the other end
93(1)
Problem description
94(1)
Analytical procedures
94(1)
Creation of an analytical model
94(3)
Input of the elastic properties of the plate material
97(1)
Finite-element discretization of the quarter plate area
98(1)
Input of boundary conditions
99(1)
Solution procedures
100(1)
Contour plot of stress
101(1)
Observation of the variation of the longitudinal stress distribution in the ligament region
101(1)
Discussion
102(3)
Problems to solve
105(1)
Stress Singularity Problem
106(14)
Example problem: An elastic plate with a crack of length 2a in its center subjected to uniform longitudinal tensile stress σo at one end and clamped at the other end
106(1)
Problem description
106(1)
Analytical procedures
107(1)
Creation of an analytical model
107(3)
Input of the elastic properties of the plate material
110(1)
Finite-element discretization of the center-cracked tension plate area
110(3)
Input of boundary conditions
113(1)
Solution procedures
114(1)
Contour plot of stress
115(1)
Discussion
116(2)
Problems to solve
118(2)
Two-Dimensional Contact Stress
120(23)
Example problem: An elastic cylinder with a radius of length (a) pressed against a flat surface of a linearly elastic medium by a force'
120(1)
Problem description
120(1)
Analytical procedures
121(1)
Creation of an analytical model
121(2)
Input of the elastic properties of the material for the cylinder and the flat plate
123(1)
Finite-element discretization of the cylinder and the flat plate areas
123(10)
Input of boundary conditions
133(2)
Solution procedures
135(1)
Contour plot of stress
135(1)
Discussion
136(2)
Problems to solve
138(3)
References
141(2)
Mode Analysis
143(72)
Introduction
143(1)
Mode Analysis of a Straight Bar
144(19)
Problem description
144(1)
Analytical solution
144(1)
Model for finite-element analysis
145(1)
Element type selection
145(2)
Real constants for beam element
147(1)
Material properties
147(2)
Create keypoints
149(2)
Create a line for beam element
151(1)
Create mesh in a line
152(2)
Boundary conditions
154(3)
Execution of the analysis
157(1)
Definition of the type of analysis
157(2)
Execute calculation
159(2)
Postprocessing
161(1)
Read the calculated results of the first mode of vibration
161(1)
Plot the calculated results
161(1)
Read the calculated results of the second and third modes of vibration
161(2)
Mode Analysis of a Suspension for Hard-Disc Drive
163(25)
Problem description
163(1)
Create a model for analysis
163(1)
Element type selection
163(2)
Real constants for beam element
165(3)
Material properties
168(1)
Create keypoints
168(3)
Create areas for suspension
171(4)
Boolean operation
175(2)
Create mesh in areas
177(2)
Boundary conditions
179(3)
Analysis
182(1)
Define the type of analysis
182(1)
Execute calculation
182(1)
Postprocessing
183(1)
Read the calculated results of the first mode of vibration
183(1)
Plot the calculated results
183(1)
Read the calculated results of higher modes of vibration
184(4)
Mode Analysis of a One-Axis Precision Moving Table Using Elastic Hinges
188(27)
Problem description
188(1)
Create a model for analysis
189(1)
Select element type
189(1)
Material properties
189(3)
Create keypoints
192(1)
Create areas for the table
193(4)
Create mesh in areas
197(4)
Boundary conditions
201(4)
Analysis
205(1)
Define the type of analysis
205(3)
Execute calculation
208(1)
Postprocessing
209(1)
Read the calculated results of the first mode of vibration
209(1)
Plot the calculated results
209(1)
Read the calculated results of the second and third modes of vibration
210(1)
Animate the vibration mode shape
211(4)
Analysis for Fluid Dynamics
215(48)
Introduction
215(1)
Analysis of Flow Structure in a Diffuser
216(26)
Problem description
216(1)
Create a model for analysis
216(1)
Select kind of analysis
216(1)
Element type selection
217(2)
Create keypoints
219(2)
Create areas for diffuser
221(1)
Create mesh in lines and areas
222(4)
Boundary conditions
226(5)
Execution of the analysis
231(1)
FLOTRAN set up
231(2)
Execute calculation
233(1)
Postprocessing
234(1)
Read the calculated results of the first mode of vibration
234(1)
Plot the calculated results
234(3)
Plot the calculated results by path operation
237(5)
Analysis of Flow Structure in a Channel with a Butterfly Valve
242(21)
Problem description
242(1)
Create a model for analysis
242(1)
Select kind of analysis
242(1)
Select element type
243(1)
Create keypoints
243(2)
Create areas for flow channel
245(1)
Subtract the valve area from the channel area
245(1)
Create mesh in lines and areas
246(2)
Boundary conditions
248(3)
Execution of the analysis
251(1)
FLOTRAN set up
251(2)
Execute calculation
253(1)
Postprocessing
254(1)
Read the calculated results
254(1)
Plot the calculated results
255(1)
Detailed view of the calculated flow velocity
256(3)
Plot the calculated results by path operation
259(4)
Application of ANSYS to Thermo Mechanics
263(68)
General Characteristic of Heat Transfer Problems
263(2)
Heat Transfer Through Two Walls
265(20)
Problem description
265(1)
Construction of the model
265(11)
Solution
276(4)
Postprocessing
280(5)
Steady-State Thermal Analysis of a Pipe Intersection
285(27)
Description of the problem
285(3)
Preparation for model building
288(3)
Construction of the model
291(7)
Solution
298(8)
Postprocessing stage
306(6)
Heat Dissipation Through Ribbed Surface
312(19)
Problem description
312(1)
Construction of the model
313(8)
Solution
321(4)
Postprocessing
325(6)
Application of ANSYS to Contact Between Machine Elements
331(122)
General Characteristics of Contact Problems
331(1)
Example Problems
332(121)
Pin-in-hole interference fit
332(1)
Problem description
332(1)
Construction of the model
333(5)
Material properties and element type
338(1)
Meshing
339(3)
Creation of contact pair
342(5)
Solution
347(5)
Postprocessing
352(7)
Concave contact between cylinder and two blocks
359(1)
Problem description
359(1)
Model construction
360(5)
Material properties
365(3)
Meshing
368(4)
Creation of contact pair
372(2)
Solution
374(5)
Postprocessing
379(3)
Wheel-on-rail line contact
382(1)
Problem description
382(3)
Model construction
385(6)
Properties of material
391(1)
Meshing
392(6)
Creation of contact pair
398(3)
Solution
401(3)
Postprocessing
404(6)
O-ring assembly
410(1)
Problem description
410(2)
Model construction
412(1)
Selection of materials
413(10)
Geometry of the assembly and meshing
423(4)
Creating contact interface
427(9)
Solution
436(6)
Postprocessing (first load step)
442(2)
Solution (second load step)
444(7)
Postprocessing (second load step)
451(2)
Index 453


Tadeusz Stolarski is a Professor Emeritus of Mechanical Engineering at Brunel University, UK. In addition to his research and lecturing on topics including fracture mechanics, tribology, and design principles, he has also performed consultancy work for a variety of companies including Castrol International, SKF, and Advanced Bearing Technology.