High-Pressure Thermoelastic and Thermophysical Properties of Smart Materials: EOSs at High Pressure and Thermal Properties describes how high-pressure research is instrumental in different sectors and how EOS plays an important role in high-pressure research; displays various EOS modelling techniques; explains thermoelastic and thermophysical properties of materials from EOSs, and provides a blueprint of size and shape dependence thermal properties of smart materials. This book opens with an introduction to high-pressure research, surveys experimental and theoretical tools for study at high pressure, covers the role of EOSs to describe thermoelastic properties and their limitations, looks at different modelling techniques of EOSs, considers how extreme-compression behaviour is different from low-compression behaviour, examines thermoelastic properties of smart materials at high pressure, addresses the search of universal EOSs, analyzes the effect of shape and size on thermal properties of smart materials and culminates in future research. This volume provides researchers and academicians working in the field of high-pressure research and shape / size dependent thermal properties a one-stop reference that summates correlations between different aspects of high-pressure thermoelastic and thermophysical properties of advanced materials. It serves as a thorough introduction for less-experienced readers, but also provides a summary of state-of-the-art in the field to physicists, materials scientists and engineers working to exploit high pressure techniques for possible materials development and application.
1. Chapter 1. Introduction to high-pressure research - p. 1 2. Chapter 2. Searching of universal EOSs - p. 13 3. Chapter 3. Applicability of different EOSs to evaluate the thermoelastic properties of bulk metallic glasses - p. 27 4. Chapter 4. Thermoelastic and structural properties of high-temperature superconductors at high compressions - p. 43 5. Chapter 5. Ionic liquids under high pressures: Fitting, predicting and using the speed of sound - p. 55 6. Introduction - p. 55 7. Spinodal method: The speed of sound fitting and predictions - p. 58 8. Usage of the speed of sound to find thermodynamic quantities under pressure - p. 70 9. Neural network - p. 75 10. Classical machine learning approach - p. 84 11. Summary - p. 91 12. Chapter 6. Pressure dependence of lattice vibrations and phonons - p. 99 13. Chapter 7. Role of equation of states to describe thermoelastic properties and their limitations - p. 115 14. Introduction - p. 115 15. Application of isothermal equation of states - p. 121 16. Limitation of the equation of state - p. 123 17. Equation of states - p. 125 18. Bulk modulus - p. 129 19. Volume thermal expansion coefficient - p. 131 20. Result and discussion - p. 131 21. Chapter 8. Thermoelastic properties of nanomaterials - p. 179 22. Chapter 9. Thermodynamic properties and applications of smart materials - p. 195 23. Chapter 10. Analysis of high pressure equation of state for gallium compounds - p. 211 24. Chapter 11. Thermal conductivity of nanoliquids - p. 237 25. Chapter 12. Prediction of high-pressure lattice parameter for rare earth compounds - p. 269 26. Chapter 13. Concluding remarks - p. 291 27. Index - p. 295
High-Pressure Thermoelastic and Thermophysical Properties of Smart Materials: EOSs at High Pressure and Thermal Properties describes how high-pressure research is instrumental in different sectors and how EOS plays an important role in high-pressure research; displays various EOS modelling techniques; explains thermoelastic and thermophysical properties of materials from EOSs, and provides a blueprint of size and shape dependence thermal properties of smart materials. This book opens with an introduction to high-pressure research, surveys experimental and theoretical tools for study at high pressure, covers the role of EOSs to describe thermoelastic properties and their limitations, looks at different modelling techniques of EOSs, considers how extreme-compression behaviour is different from low-compression behaviour, examines thermoelastic properties of smart materials at high pressure, addresses the search of universal EOSs, analyzes the effect of shape and size on thermal properties of smart materials and culminates in future research. This volume provides researchers and academicians working in the field of high-pressure research and shape / size dependent thermal properties a one-stop reference that summates correlations between different aspects of high-pressure thermoelastic and thermophysical properties of advanced materials. It serves as a thorough introduction for less-experienced readers, but also provides a summary of state-of-the-art in the field to physicists, materials scientists and engineers working to exploit high pressure techniques for possible materials development and application.
1. Chapter 1. Introduction to high-pressure research - p. 1 2. Chapter 2. Searching of universal EOSs - p. 13 3. Chapter 3. Applicability of different EOSs to evaluate the thermoelastic properties of bulk metallic glasses - p. 27 4. Chapter 4. Thermoelastic and structural properties of high-temperature superconductors at high compressions - p. 43 5. Chapter 5. Ionic liquids under high pressures: Fitting, predicting and using the speed of sound - p. 55 6. Introduction - p. 55 7. Spinodal method: The speed of sound fitting and predictions - p. 58 8. Usage of the speed of sound to find thermodynamic quantities under pressure - p. 70 9. Neural network - p. 75 10. Classical machine learning approach - p. 84 11. Summary - p. 91 12. Chapter 6. Pressure dependence of lattice vibrations and phonons - p. 99 13. Chapter 7. Role of equation of states to describe thermoelastic properties and their limitations - p. 115 14. Introduction - p. 115 15. Application of isothermal equation of states - p. 121 16. Limitation of the equation of state - p. 123 17. Equation of states - p. 125 18. Bulk modulus - p. 129 19. Volume thermal expansion coefficient - p. 131 20. Result and discussion - p. 131 21. Chapter 8. Thermoelastic properties of nanomaterials - p. 179 22. Chapter 9. Thermodynamic properties and applications of smart materials - p. 195 23. Chapter 10. Analysis of high pressure equation of state for gallium compounds - p. 211 24. Chapter 11. Thermal conductivity of nanoliquids - p. 237 25. Chapter 12. Prediction of high-pressure lattice parameter for rare earth compounds - p. 269 26. Chapter 13. Concluding remarks - p. 291 27. Index - p. 295
