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COMSOL5 for Engineers [Kietas viršelis]

  • Formatas: Hardback, 312 pages, weight: 789 g, Contains 1 CD-Audio and 1 Paperback / softback
  • Serija: Multiphysics Modeling Series
  • Išleidimo metai: 04-Sep-2015
  • Leidėjas: Mercury Learning & Information
  • ISBN-10: 1942270429
  • ISBN-13: 9781942270423
Kitos knygos pagal šią temą:
  • Formatas: Hardback, 312 pages, weight: 789 g, Contains 1 CD-Audio and 1 Paperback / softback
  • Serija: Multiphysics Modeling Series
  • Išleidimo metai: 04-Sep-2015
  • Leidėjas: Mercury Learning & Information
  • ISBN-10: 1942270429
  • ISBN-13: 9781942270423
Kitos knygos pagal šią temą:
COMSOL5 Multiphysics® is one of the most valuable software modeling tools for engineers and scientists. This book, an updated edition of the previously published,COMSOL for Engineers, covers COMSOL5 which now includes a revolutionary tool, the Application Builder. This component enables users to build apps based on COMSOL models that can be run on almost any operating system (Windows, MAC, mobile/iOS, etc.). Designed for engineers from various disciplines, the book introduces multiphysics modeling techniques and examples accompanied by practical applications using COMSOL5.x. The main objective is to introduce readers to use COMSOL as an engineering tool for modeling, by solving examples that could become a guide for modeling similar or more complicated problems. The book provides a collection of examples and modeling guidelines through which readers can build their own models. The mathematical fundamentals, engineering principles, and design criteria are presented as integral parts of the examples. At the end of chapters are references that contain more in-depth physics, technical information, and data; these are referred to throughout the book and used in the examples.COMSOL5 for Engineers could be used to complement another text that provides background training in engineering computations and methods. Exercises are provided at the end of the text for use in adoption situations.

Features:

•Expands the Finite Element Method (FEM) theory and adds more examples from the original edition
•Outlines the new features in COMSOL5, the graphical user interface (GUI), and how to build a COMSOL app for models
•Includes apps for selected model examples-with parameterization of these models
•Features new and modified, solved model examples, in addition to the models provided in the original edition
•Companion disc with executable copies of each model and their related animations

Daugiau informacijos

Includes a companion DVD with files of models, images, code. Uses progressive approach in terms of examples and models.
Preface xi
About the Author xv
Chapter 1 Introduction to Finite Element Method
1(20)
Overview and Introduction
1(2)
FEM Background
3(1)
The Ritz Method
4(3)
Example 1.1 Ritz method application-displacement of a cantilever beam
4(3)
FEM Formulation
7(1)
Matrix Approach
8(4)
Example 1.2 Analysis of a 2D truss
8(4)
General Procedure for Global Matrix Assembly
12(2)
Example 1.3 Global matrix for triangular elements
12(2)
Weighted Residual Approach
14(1)
Galerkin Method
14(1)
Shape Functions
15(1)
Convergence and Stability
16(3)
Example 1.4 Heat transfer in a slender steel bar
16(3)
Exercises
19(2)
Chapter 2 COMSOL 5 and Application Builder
21(22)
Overview
21(2)
COMSOL 5 Desktop Interface
23(8)
COMSOL 5 Modules
31(1)
COMSOL 5 Model and Application Libraries and Tutorials
32(1)
Application Builder and COMSOL Server™
33(7)
Example 2.1 Building an app for Andrew's squeezing mechanism
34(6)
General Guidelines for Building a Model with COMSOL
40(3)
Chapter 3 Model Examples for Flexible Structures, Parts, and Assembly
43(62)
Example 3.1 Stress analysis for a thin plate under stationary loads
44(9)
Example 3.2 Dynamic analysis for a thin plate: Eigenvalues and modal shapes
53(5)
Example 3.3 Parametric study for a bracket assembly: 3D stress analysis
58(15)
Example 3.4 Buckling of a column with triangular cross section: Linearized buckling analysis
73(10)
Example 3.5 Static and dynamic analysis for a 2D bridge-support truss
83(14)
Example 3.6 Static and dynamic analysis for a 3D truss tower
97(8)
Chapter 4 Model Examples for Internal Fluid Flows: Steady and Transient
105(62)
Example 4.1 Axisymmetric flow in a nozzle: Simplified water-jet
106(8)
Example 4.2 Swirl flow around a rotating disk: Laminar flow
114(9)
Example 4.3 Swirl flow around a rotating disk: Turbulent flow
123(5)
Example 4.4 Flow in a U-shape pipe with square cross-sectional area: Laminar flow
128(11)
Example 4.5 Double-driven cavity flow: Moving boundary conditions
139(11)
Example 4.6 Water Hammer model: Transient flow analysis
150(8)
Example 4.7 Static fluid mixer model
158(9)
Chapter 5 Model Examples for Heat Transfer in Media: Steady and Transient
167(32)
Example 5.1 Heat transfer in a multilayer sphere
167(9)
Example 5.2 Heat transfer in a hexagonal fin
176(7)
Example 5.3 Transient heat transfer through a nonprismatic fin with convective cooling
183(9)
Example 5.4 Heat conduction through a multilayer wall with contact resistance
192(7)
Chapter 6 Model Examples for Electrical Circuits and Generator
199(22)
Example 6.1 Modeling an RC electrical circuit
199(3)
Example 6.2 Modeling an RLC electrical circuit
202(6)
Example 6.3 Modeling a permanent magnet generator
208(13)
Chapter 7 Model Examples for Complex-Multiphysics Systems
221(68)
Example 7.1 Stress analysis for an orthotropic thin plate
222(3)
Example 7.2 Thermal stress analysis and transient response of a bracket
225(9)
Example 7.3 Static fluid mixer with flexible baffles
234(10)
Example 7.4 Double pendulum motion: Multibody dynamics
244(6)
Example 7.5 Multiphysics model for thermoelectric modules
250(8)
Example 7.6 Acoustic pressure wave propagation in an automotive muffler
258(12)
Example 7.7 Viscous fluid damper with conjugate heat transfer
270(19)
Exercises 289(6)
Suggested Further Readings 295(2)
Trademark References 297(2)
Bibliography 299(4)
Index 303
Tabatabaian Mehrzad : Mehrzad Tabatabaian holds a PhD from McGill University and is currently Chair of the BCIT School of Energy Research Committee. He has published several papers for scientific journals and conferences, and he has written textbooks on multiphysics and turbulent flow modelling, thermodynamics, and direct energy conversion. He holds several registered patents in the energy field and currently teaches courses in renewable energy and thermal engineering.