Physical Fundamentals of Nanomaterials
Micro and Nano Technologies Series

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Language: Anglais
Cover of the book Physical Fundamentals of Nanomaterials

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486 p. · 19.7x24 cm · Hardback

Physical Fundamentals of Nanomaterials systematically describes the principles, structures and formation mechanisms of nanomaterials, in particular the concepts, principles and theories of their physical properties as well as the most important and commonly used preparation methods. The book aims to provide readers with a basic understanding of how nanomaterials are synthesized as well as their resultant physical properties It thefore focuses on the science of nanomaterials rather than applications, serving as an excellent starting point for researchers, materials scientists and advanced students who already possess a basic knowledge of chemistry and physics.



  • Provides thorough coverage of the physics and processes involved in the preparation of nanomaterials

  • Contains separate chapters for various types of synthesis methods, including gas phase, liquid phase, solid phase, and self-assembly

  • Coverage of properties inludes separate chapters on mechanical, thermal, optical, electrical and magnetic

Chapter 1 Introduction

1.1 Nanomaterials era

1.2 What are nanomaterials

1.3 History of development of nanomaterials

1.4 Importance of nanomaterilas

1.5 Probable problems and troubles of nanomaterials

1.6 Contents of main research in the physical basis of nanomaterials

References

Chapter 2 Principle, methods, formation mechanism and structure of nanomaterials prepared by gas phases

2.1 Physical principle of vapor deposition

2.2 Physical vapor deposition

2.3 Chemical vapor deposition

2.4 Filtered cathodic vacuum arc deposition

2.5 Comparison of various types of vapor deposition method

References

Chapter 3 Principle, methods, formation mechanism and structure of nanomaterials prepared by liquid phases

3.1 Precipitation method

3.2 Sol-gel method

3.3 Chemical reduction method

3.4 Comparison of various types of liquid deposition method

Refernces

Chapter 4 Principle, methods, formation mechanism and structure of nanomaterials prepared by solid phases

4.1 Mechanical alloying method

4.2 Bulk nanomaterials prepared by solid phases

4.3 Physical Microstructure and defects of bulk nanomaterials

References

Chapter 5 Preparation principles, methods, formation mechanism and structure of nanomaterials by self-assembly

5.1 What is self-assembly

5.2 The type and common characteristics of self-assembly

5.3 Nanomaterials prepared by self-assembly

5.4 Nanomaterials prepared by template

References

Chapter 6 Mechnical properties of nanomaterials

6.1 Elasticity of nanomaterials

6.2 Strength, hardness and Hall Petch relationship of nanomaterials

6.3 Fracture and fatigue of nanomaterials

6.4 Creep and superplasticity of nanomaterials

6.5 Deformation and fracture mechanism of nanomaterilas

References

Chapter 7 Thermal properties of nanomaterials

7.1 Melting point

7.2 Thermal conduction

7.3 Specific heat

7.4 Thermal expansion

References

Chapter 8 Optical properties of nanomaterials

8.1 Optical absorption of nanonaterilas

8.2 Colour of nanomaterials

8.3 Light emission of nanomaterials

8.4 Magneto-optic properties of nanomaterials

References

Chapter 9 Electrical properties of nanomaterials

9.1 Resistivity of nanomaterials

9.2 Theoretical simulation for the resistivity of nanomaterials

9.3 Thermoelectric conversion efficiency of nanomaterials

9.4 Superconductivity of nanomaterials

References

Chapter 10 Magnetic properties of nanomaterials

10.1 Magnetic moment of nano-magnetic materials

10.2 Curie temperature of nano-magnetic materials

10.3 Magnetization and coercivity of nano-magnetic materials

10.4 Magnetoresistance and giant magnetoresistance of nano-magnetic materials

References

Senior undergraduate and graduate students, nano-related researchers in materials science, chemistry, advanced manufacturing and physics

Dr. Zhang Bangwei has been teaching and conducting research in the field of materials physics for more than fifty years. His research work in nanomaterials and amorphous materials, electroless alloy deposits, thermodynamics of alloys, and EAM theory and its applications has been highly cited and recognized in the national and international scientific community. He has twice received the Fellowship of The Max-Planck Society and worked in the Max-Planck Institut für Plasmaphysik (IPP); He has worked as a senior scientist in the Dept. of Materials Science at the University of Virginia and is a past member of The American Physical Society and the TMS (The Minerals, Metals and Materials Society). He and his group have studied nanomaterials for more than twenty years, focusing on the various methods for synthesizing nanomaterials. He has published more than 200 research papers, including more than 100 in international English-language academic journals. He has published three professional books and four handbooks in Chinese, including Embedded-atom Method Theory and its Application in Materials Science, and Practical Manual of Non-metallic Materials.