Hybrid Atomic-Scale Interface Design for Materials Functionality covers a broad range of atomistic, meso and macro scale computational methodologies, including multiphase (hybrid) materials constructs for tailoring structural, thermal and electrical properties. As future materials are expected to perform with increasing efficiency in complex and dynamic environments hybrid materials design, in contrast to monolithic concepts, they are a cost-effective alternative. Taking materials hybridization at smaller scale, even at atomic scale, offers exceedingly high-payoff opportunities for optimizing materials functionality at reduced material consumption and even reduced qualification costs (eliminates many costly component and system level qualification tests).
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xi 7. Preface - p. xiii 8. Chapter 1. Hybrid material design issues and challenges for materials functionality for microdevices - p. 1 9. Chapter 2. Molecular dynamics methodologies for predicting thermal transport in aerospace polymers and their composites - p. 19 10. Chapter 3. Electron transport through nanomaterial interfaces - p. 35 11. Chapter 4. Phonon dynamics modeling using wave packet - p. 55 12. Chapter 5. Molecular modeling for predicting material and junction strengths of various carbon nanostructures - p. 67 13. Chapter 6. Kapitza resistance in lattice Boltzmann equation for multiphase phonon dynamics - p. 103 14. Chapter 7. Interface chemistry of atomic-scale structures for building bioinspired 3D light-weight and porous architectures - p. 115 15. Chapter 8. Nanoporous graphitic carbon for efficient supercapacitors and related energy applications - p. 143 16. Chapter 9. Laser processing of nanomaterials: From controlling chemistry to manipulating structure at the atomic scale - p. 179 17. Chapter 10. Probing interface strength in nanocomposites and hybrid nanomaterials - p. 209 18. Chapter 11. Thermal conductivity measurement at the micrometer scales - p. 241 19. Index - p. 255
Hybrid Atomic-Scale Interface Design for Materials Functionality covers a broad range of atomistic, meso and macro scale computational methodologies, including multiphase (hybrid) materials constructs for tailoring structural, thermal and electrical properties. As future materials are expected to perform with increasing efficiency in complex and dynamic environments hybrid materials design, in contrast to monolithic concepts, they are a cost-effective alternative. Taking materials hybridization at smaller scale, even at atomic scale, offers exceedingly high-payoff opportunities for optimizing materials functionality at reduced material consumption and even reduced qualification costs (eliminates many costly component and system level qualification tests).
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Copyright - p. iv 6. List of contributors - p. xi 7. Preface - p. xiii 8. Chapter 1. Hybrid material design issues and challenges for materials functionality for microdevices - p. 1 9. Chapter 2. Molecular dynamics methodologies for predicting thermal transport in aerospace polymers and their composites - p. 19 10. Chapter 3. Electron transport through nanomaterial interfaces - p. 35 11. Chapter 4. Phonon dynamics modeling using wave packet - p. 55 12. Chapter 5. Molecular modeling for predicting material and junction strengths of various carbon nanostructures - p. 67 13. Chapter 6. Kapitza resistance in lattice Boltzmann equation for multiphase phonon dynamics - p. 103 14. Chapter 7. Interface chemistry of atomic-scale structures for building bioinspired 3D light-weight and porous architectures - p. 115 15. Chapter 8. Nanoporous graphitic carbon for efficient supercapacitors and related energy applications - p. 143 16. Chapter 9. Laser processing of nanomaterials: From controlling chemistry to manipulating structure at the atomic scale - p. 179 17. Chapter 10. Probing interface strength in nanocomposites and hybrid nanomaterials - p. 209 18. Chapter 11. Thermal conductivity measurement at the micrometer scales - p. 241 19. Index - p. 255
