Shape memory alloy engineering for aerospace, structural and biomedical applications
Shape Memory Alloy Engineering introduces materials, mechanical, and aerospace engineers to shape memory alloys (SMAs), providing a unique perspective that combines fundamental theory with new approaches to design and modeling of actual SMAs as compact and inexpensive actuators for use in aerospace...
| Otros Autores: | , , , |
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| Formato: | Libro electrónico |
| Idioma: | Inglés |
| Publicado: |
Kidlington, England ; Waltham, Massachusetts :
Butterworth-Heinemann
2015.
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| Edición: | 1st edition |
| Materias: | |
| Ver en Biblioteca Universitat Ramon Llull: | https://discovery.url.edu/permalink/34CSUC_URL/1im36ta/alma991009628690906719 |
Tabla de Contenidos:
- Front Cover; Shape Memory Alloy Engineering; Copyright; Dedication; CONTENTS; LIST OF CONTRIBUTORS; ABOUT THE EDITORS-IN-CHIEF; ABOUT THE CONTRIBUTORS; PREFACE; Section 1 Introduction; Chapter 1 - Historical Background and Future Perspectives; 1.1 INTRODUCTION; 1.2 LIST OF SYMBOLS; 1.3 SHAPE MEMORY ALLOYS; 1.4 GOLD-BASED ALLOYS; 1.5 NITINOL; 1.6 COPPER-BASED ALLOYS; 1.7 IRON-BASED ALLOYS; 1.8 SMA COMMUNITY; 1.9 FUTURE PERSPECTIVES; 1.10 SUMMARY TABLES; BIBLIOGRAPHY; Section 2 Material; Chapter 2 - Phenomenology of Shape Memory Alloys; 2.1 INTRODUCTION; 2.2 LIST OF SYMBOLS
- 2.3 GENERAL CHARACTERISTICS AND THE MARTENSITIC TRANSFORMATIONS2.4 FUNCTIONAL PROPERTIES OF SMAS; 2.5 POROUS NITI; 2.6 MAGNETIC SHAPE MEMORY ALLOYS; 2.7 CONCLUSIONS; BIBLIOGRAPHY; Chapter 3 - Experimental Characterization of Shape Memory Alloys; 3.1 INTRODUCTION; 3.2 LIST OF SYMBOLS; 3.3 CALORIMETRIC INVESTIGATIONS; 3.4 THERMOMECHANICAL CHARACTERIZATION: TESTS AND PARAMETERS; 3.5 COMPLETE EXPERIMENTAL CHARACTERIZATION OF THERMAL AND MECHANICAL PROPERTIES; 3.6 ELECTRICAL RESISTANCE MEASUREMENTS; 3.7 NEUTRON DIFFRACTION ANALYSIS; 3.8 CONCLUSION; BIBLIOGRAPHY
- Chapter 4 - Manufacturing of Shape Memory Alloys4.1 INTRODUCTION; 4.2 LIST OF SYMBOLS; 4.3 MELTING PROCESS OF SMA; 4.4 TRADITIONAL WORKING PROCESS OF SMA MATERIALS; 4.5 NEW TECHNOLOGIES OF PREPARATION OF SMA PRODUCTS; 4.6 THERMOMECHANICAL PROCESS TO OPTIMIZE THE FUNCTIONAL PROPERTIES OF SMA; 4.7 NEAR NET SHAPE PROCESS; 4.8 ECOCOMPATIBILITY OF SMA; BIBLIOGRAPHY; Section 3 Modelling; Chapter 5 - 1D SMA Models; 5.1 INTRODUCTION; 5.2 LIST OF SYMBOLS; 5.3 NONKINETIC MODELS; 5.4 ADVANCED MODELS WITH TRAINING EFFECT; 5.5 CONCLUSIONS; BIBLIOGRAPHY
- Chapter 6 - SMA Constitutive Modeling and Analysis of Plates and Composite Laminates6.1 INTRODUCTION; 6.2 LIST OF SYMBOLS; 6.3 THREE-DIMENSIONAL PHENOMENOLOGICAL CONSTITUTIVE MODEL FOR SMA; 6.4 PLATE AND LAMINATE MODELS FOR SMA APPLICATIONS; 6.5 NUMERICAL RESULTS; 6.6 CONCLUSIONS; BIBLIOGRAPHY; Chapter 7 - SMAs in Commercial Codes; 7.1 INTRODUCTION; 7.2 SUPERELASTIC SMAS WITHIN SIMULIA ABAQUS SOLVER; 7.3 INTEGRATION OF SMAS WITHIN COMSOL MULTIPHYSICS SOLVER; 7.4 INTEGRATION OF SMAS WITHIN ANSYS SOLVER; 7.5 INTEGRATION OF SMAS WITHIN MSC.NASTRAN SOLVER; 7.6 APPLICATIONS; 7.7 CONCLUSIONS
- BIBLIOGRAPHYSection 4 Aeronautics; Chapter 8 - Design and Industrial Manufacturing of SMA Components; 8.1 INTRODUCTION; 8.2 LIST OF SYMBOLS; 8.3 DESIGN OF SMA COMPONENTS; 8.4 MANUFACTURING OF SMA COMPONENTS; 8.5 CONCLUSIONS; BIBLIOGRAPHY; Chapter 9 - Design of SMA-Based Structural Actuators; 9.1 INTRODUCTION; 9.2 LIST OF SYMBOLS; 9.3 REQUIREMENTS FOR THE DESIGN OF AN SMA-BASED ACTUATOR; 9.4 DESIGN OF AN SMA-BASED INTEGRATED SYSTEM: FORCE-DISPLACEMENT/STRESS-STRAIN PLANE; 9.5 COMPUTATION OF THE WORKING POINTS; 9.6 COMPUTATION OF STRUCTURAL RIGIDITY AS PERCEIVED BY THE SMA ELEMENT
- 9.7 DESIGN OF AN ARC SMA-BASED ACTUATOR
