Applications of ATILA FEM Software to Smart Materials (eBook, ePUB)

Case Studies in Designing Devices
Redaktion: Uchino, Kenji; Debus, Jean-Claude

• Format: ePub

Produktbeschreibung

ATILA Finite Element Method (FEM) software facilitates the modelling and analysis of applications using piezoelectric, magnetostrictor and shape memory materials. It allows entire designs to be constructed, refined and optimized before production begins. Through a range of instructive case studies, Applications of ATILA FEM software to smart materials provides an indispensable guide to the use of this software in the design of effective products.

Part one provides an introduction to ATILA FEM software, beginning with an overview of the software code. New capabilities and loss integration are discussed, before part two goes on to present case studies of finite element modelling using ATILA. The use of ATILA in finite element analysis, piezoelectric polarization, time domain analysis of piezoelectric devices and the design of ultrasonic motors is considered, before piezo-composite and photonic crystal applications are reviewed. The behaviour of piezoelectric single crystals for sonar and thermal analysis in piezoelectric and magnetostrictive materials is also discussed, before a final reflection on the use of ATILA in modelling the damping of piezoelectric structures and the behaviour of single crystal devices.

With its distinguished editors and international team of expert contributors, Applications of ATILA FEM software to smart materials is a key reference work for all those involved in the research, design, development and application of smart materials, including electrical and mechanical engineers, academics and scientists working in piezoelectrics, magenetostrictors and shape memory materials.

• Provides an indispensable guide to the use of ATILA FEM software in the design of effective products
• Discusses new capabilities and loss integration of the software code, before presenting case studies of finite element modelling using ATILA
• Discusses the behaviour of piezoelectric single crystals for sonar and thermal analysis in piezoelectric and magnetostrictive materials, before a reflection on the use of ATILA in modelling the damping of piezoelectric structures

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Produktdetails

• Verlag: Elsevier Science & Techn.
• Seitenzahl: 400
• Erscheinungstermin: 27. November 2012
• Englisch
• ISBN-13: 9780857096319
• Artikelnr.: 40289993

Autorenporträt

Kenji Uchino is Professor of Electrical Engineering and Director of the International Center for Actuators and Transducers at Penn State University, Pennsylvania and Associate Director of the US Office of Naval Research (ONR) Global - Asia. He is considered a pioneer in piezoelectric actuators. Jean-Claude Debus is Head of the Acoustics Department at the Institut Superieur de l'Electronique et de Numerique (ISEN), France.

Inhaltsangabe

Contributor contact details

Woodhead Publishing Series in Electronic and Optical Materials

Part I: Introduction to the ATILA finite element method (FEM) software

Chapter 1: Overview of the ATILA finite element method (FEM) software code

Abstract:

1.1 An introduction to finite element analysis

1.2 Defining the equations for the problem

1.3 Application of the finite element method (FEM)

1.4 Finite element method (FEM) simulation examples

1.5 Conclusion

Chapter 2: The capabilities of the new version of ATILA

Abstract:

2.1 Introduction

2.2 The new version of ATILA

2.3 Pre- and post-processor GiD

2.4 New capacities in ATILA/GiD

2.5 Time comparison between ATILA and ATILA++

2.6 Conclusion

Chapter 3: Loss integration in ATILA software

Abstract:

3.1 Introduction: nonlinear and hysteresis characteristics

3.2 Heat generation

3.3 Hysteresis estimation program

3.4 Conclusion

Part II: Case studies of finite element modelling using ATILA

Chapter 4: Finite element analysis of flexural vibration of orthogonally stiffened cylindrical shells with ATILA

Abstract:

4.1 Introduction

4.2 Shell formulation

4.3 Stiffened shell finite element

4.4 Validation

4.5 Conclusion

Chapter 5: Utilization of piezoelectric polarization in ATILA: usual to original

Abstract:

5.1 Introduction

5.2 Piezoelectric effect

5.3 Utilization of the Cartesian polarization: Cartesian coordinates

5.4 Utilization of the Cartesian polarization: cylindrical coordinates

5.5 Utilization of the cylindrical polarization: cylindrical coordinates

5.6 Original polarization

Conclusion

5.7 Conclusion

Chapter 6: Time domain analysis of piezoelectric devices with the transient module in ATILA

Abstract:

6.1 Introduction

6.2 Key design issues and parameters

6.3 Step-by-step use of ATILA transient module

6.4 Conclusion and future trends

Chapter 7: Designing ultrasonic motors (USM) with ATILA

Abstract:

7.1 Introduction

7.2 Procedure for finite element method (FEM) analysis - ATILA

7.3 Tiny ultrasonic motor (USM)

7.4 Butterfly-shaped ultrasonic linear motor

7.5 Conclusions

Chapter 8: Piezocomposite applications of ATILA

Abstract:

8.1 Introduction

8.2 General formulation

8.3 Transmission coefficient of an Alberich coating

8.4 1-3 piezocomposite

8.5 Conclusion

Chapter 9: Phononic crystal (PC) applications of ATILA

Abstract:

9.1 Introduction

9.2 General formulation

9.3 Phononic crystals for guiding applications

9.4 Phononic crystals for negative refraction applications

9.5 Conclusion

Chapter 10: Studying the behavior of piezoelectric single crystals for sonar using ATILA

Abstract:

10.1 Introduction

10.2 State of the art single crystal technology

10.3 Modeling the behavior of single crystal materials using ATILA software

10.4 The experiment

10.5 Analysis of results

10.6 The analytic model

10.7 Conclusion

10.8 Acknowledgments

Chapter 11: Thermal analysis in piezoelectric and magnetostrictive materials using ATILA

Abstract:

11.1 Introduction

11.2 Heat generation in piezoelectric materials

11.3 Implementation of ATILA for the thermal analysis of piezoelectric materials

11.4 Strains and stresses in piezoelectric materials caused by thermal effects

11.5 Numerical validation of the model

11.6 Experimental validation of the model

11.7 Heat generation in magnetostrictive materials

11.8 Temperature in an internal cavity in a magnetostrictive transducer

11.9 Conclusion

Chapter 12: Modelling