High Entropy Materials: Fundamentals and Potential Applications covers the fundamental science of high entropy materials (HEMs) and advances in the development of various structural and functional HEMs: topics covered include strength and ductility combination; hydrogen embrittlement resistance; shape memory properties; fatigue properties as well as detailed reviews of high-entropy superalloys; refractory high entropy alloys; ferroelectric high entropy oxides; nanocrystal library for catalytic applications; water splitting for hydrogen production; thermoelectric properties; lithium and sodium batteries; high-entropy polymers; high-entropy coatings for elevated temperatures and wear resistance; and AI-based approaches to explore the high entropy materials composition space. The book is written by international experts in the field including the director and principal investigators of the High Entropy Materials Center in Taiwan: the first research center dedicated to the development of HEMs
1. Cover image - p. c 2. Title page - p. i 3. Copyright - p. iv 4. Contents - p. v 5. Contributors - p. xi 6. About the Editors - p. xv 7. Preface - p. xvii 8. Part I The science of high entropy materials concept - p. 1 9. Chapter 1 The science of high-entropy materials concept - p. 3 10. Part II High-entropy alloys and related materials - p. 31 11. Chapter 2 Strength and ductility combination - p. 33 12. Chapter 3 Hydrogen embrittlement in high-entropy alloy - p. 75 13. Chapter 4 Shape memory properties - p. 109 14. Chapter 5 Microstructure effects on the fatigue properties of high-entropy alloys - p. 137 15. Chapter 6 Design and development of high-entropy superalloys for elevated temperature applications - p. 155 16. Chapter 7 Phase transformation pathways in high-entropy alloys - p. 189 17. Chapter 8 Grain boundary segregation and role of defects on diffusion of segregating elements in high entropy alloys: A perspective - p. 243 18. Part III Functional high-entropy materials - p. 255 19. Chapter 9 Ferroelectric high entropy oxides - p. 257 20. Chapter 10 Nanocrystal library for catalytic application - p. 291 21. Chapter 11 Water splitting for hydrogen production - p. 305 22. Chapter 12 Thermoelectric properties - p. 331 23. Chapter 13 Lithium-ion and sodium-ion batteries - p. 347 24. Part IV High-entropy polymers - p. 387 25. Chapter 14 High entropy polymers: A new venue for polymer materials science and engineering - p. 389 26. Part V High-entropy coatings - p. 411 27. Chapter 15 Exploring functional coatings with high entropy alloy powders: Synthesis, properties, and performance - p. 413 28. Chapter 16 High-temperature oxidation-resistant coating - p. 449 29. Part VI AI-based approaches to explore the high entropy materials composition space - p. 471 30. Chapter 17 AI meets high-entropy alloys: From classification and regression to explainable models and predictive discovery - p. 473 31. Part VII Summary and future prospects of high entropy materials - p. 543 32. Chapter 18 Future prospects of high-entropy materials - p. 545 33. Index - p. 549
High Entropy Materials: Fundamentals and Potential Applications covers the fundamental science of high entropy materials (HEMs) and advances in the development of various structural and functional HEMs: topics covered include strength and ductility combination; hydrogen embrittlement resistance; shape memory properties; fatigue properties as well as detailed reviews of high-entropy superalloys; refractory high entropy alloys; ferroelectric high entropy oxides; nanocrystal library for catalytic applications; water splitting for hydrogen production; thermoelectric properties; lithium and sodium batteries; high-entropy polymers; high-entropy coatings for elevated temperatures and wear resistance; and AI-based approaches to explore the high entropy materials composition space. The book is written by international experts in the field including the director and principal investigators of the High Entropy Materials Center in Taiwan: the first research center dedicated to the development of HEMs
1. Cover image - p. c 2. Title page - p. i 3. Copyright - p. iv 4. Contents - p. v 5. Contributors - p. xi 6. About the Editors - p. xv 7. Preface - p. xvii 8. Part I The science of high entropy materials concept - p. 1 9. Chapter 1 The science of high-entropy materials concept - p. 3 10. Part II High-entropy alloys and related materials - p. 31 11. Chapter 2 Strength and ductility combination - p. 33 12. Chapter 3 Hydrogen embrittlement in high-entropy alloy - p. 75 13. Chapter 4 Shape memory properties - p. 109 14. Chapter 5 Microstructure effects on the fatigue properties of high-entropy alloys - p. 137 15. Chapter 6 Design and development of high-entropy superalloys for elevated temperature applications - p. 155 16. Chapter 7 Phase transformation pathways in high-entropy alloys - p. 189 17. Chapter 8 Grain boundary segregation and role of defects on diffusion of segregating elements in high entropy alloys: A perspective - p. 243 18. Part III Functional high-entropy materials - p. 255 19. Chapter 9 Ferroelectric high entropy oxides - p. 257 20. Chapter 10 Nanocrystal library for catalytic application - p. 291 21. Chapter 11 Water splitting for hydrogen production - p. 305 22. Chapter 12 Thermoelectric properties - p. 331 23. Chapter 13 Lithium-ion and sodium-ion batteries - p. 347 24. Part IV High-entropy polymers - p. 387 25. Chapter 14 High entropy polymers: A new venue for polymer materials science and engineering - p. 389 26. Part V High-entropy coatings - p. 411 27. Chapter 15 Exploring functional coatings with high entropy alloy powders: Synthesis, properties, and performance - p. 413 28. Chapter 16 High-temperature oxidation-resistant coating - p. 449 29. Part VI AI-based approaches to explore the high entropy materials composition space - p. 471 30. Chapter 17 AI meets high-entropy alloys: From classification and regression to explainable models and predictive discovery - p. 473 31. Part VII Summary and future prospects of high entropy materials - p. 543 32. Chapter 18 Future prospects of high-entropy materials - p. 545 33. Index - p. 549
