Material-Tissue Interfacial Phenomena: Contributions from Dental and Craniofacial Reconstructions explores the material/tissue interfacial phenomena using dental and craniofacial reconstructions as a model system. As the mouth is a particularly caustic environment, the synthetic and/or bio-enabled materials used to repair damaged tissues and restore form, function, and esthetics to oral structures must resist a variety of physical, chemical, and mechanical challenges.
These challenges are magnified at the interface between dissimilar structures such as the tooth/material interface. Interfacial reactions at the atomic, molecular, and nano-scales initiate the failure of materials used to repair, restore, and reconstruct dental and craniofacial tissues.
Understanding the phenomena that lead to failure at the interface between dissimilar structures, such as synthetic materials and biologic tissues, is confounded by a variety of factors that are thoroughly discussed in this comprehensive book.
1. 2.1. Introduction - p. 23 2. 2.2. Overview of materials used in prosthetic restorations - p. 23 3. 2.3. Clinical indications: philosophical context - p. 32 4. 2.4. Implant-supported restorations - p. 34 5. 2.5. Dental preparation, adaptation, and cementation of indirect restorations - p. 43 6. 2.6. Shape and function of indirect restorations - p. 46 7. 2.7. Clinical challenges and failures - p. 49 8. 2.8. Future directions - p. 54 9. 3. Interfaces in fixed dental prostheses: Challenges and opportunities - p. 67 10. Part Two. Fundamental structure/property characteristics - p. 83 11. 4. Fundamentals of the material-tissue interface in dental reconstructions: Structure/property relationships and characterization - p. 87 12. 5. Understanding the mechanical behavior of the material–tissue and material–material interface in dental reconstructions - p. 113 13. 6. Understanding the chemistry and improving the durability of dental resin–dentin bonded interface - p. 147 14. 7. Biology of the oral environment and its impact on the stability of dental and craniofacial reconstructions - p. 181 15. Part Three. Characterization of material-tissue interfaces in dental and craniofacial reconstructions - p. 202 16. 8. Morphologic and structural analysis of material-tissue interfaces relevant to dental reconstruction - p. 205 17. 9. Analyses of material-tissue interfaces by Fourier transform infrared, Raman spectroscopy, and chemometrics - p. 231 18. 10. Material-tissue interfacial phenomena: Challenges in mathematical modeling - p. 253 19. Part Four. Lessons learned: next generation reconstructions and future opportunities - p. 264 20. 11. Dentinoenamel junction: Motif for interfacial mechanics of dissimilar materials - p. 267 21. 12. Chimeric biomolecules: Biomolecular recognition–based self-organization at the bio-material interfaces - p. 285 22. 12.1. Introduction - p. 285 23. 12.2. Controlled hierarchical interface of mineralized hard tissues - p. 286 24. 12.3. Functional integration of titanium-based implant materials - p. 287 25. 12.4. Osteointegration of biofunctionalized implant materials - p. 290 26. 12.5. Solid-binding peptides as molecular building blocks to control specific interactions at the materials interfaces - p. 291 27. 12.6. Biofunctionalization of titanium dental implants materials using solid-binding peptides - p. 293 28. 12.7. Self-organized chimeric peptides toward creating controllable biomaterial interfaces - p. 295 29. 12.8. Calcium phosphate coating of titanium implants to increase biocompatibility - p. 297 30. 12.9. Peptides to tune calcium phosphate recognition and mineralization - p. 300 31. 12.10. Chimeric genetically fused protein as a modular biomolecular device at the interface: from monitoring to biomolecular mediation of mineral layer - p. 302 32. 12.11. Future prospects - p. 305 33. 13. Stem cells and dental tissue reconstruction - p. 325 34. Index - p. 355
Material-Tissue Interfacial Phenomena: Contributions from Dental and Craniofacial Reconstructions explores the material/tissue interfacial phenomena using dental and craniofacial reconstructions as a model system. As the mouth is a particularly caustic environment, the synthetic and/or bio-enabled materials used to repair damaged tissues and restore form, function, and esthetics to oral structures must resist a variety of physical, chemical, and mechanical challenges.
These challenges are magnified at the interface between dissimilar structures such as the tooth/material interface. Interfacial reactions at the atomic, molecular, and nano-scales initiate the failure of materials used to repair, restore, and reconstruct dental and craniofacial tissues.
Understanding the phenomena that lead to failure at the interface between dissimilar structures, such as synthetic materials and biologic tissues, is confounded by a variety of factors that are thoroughly discussed in this comprehensive book.
1. 2.1. Introduction - p. 23 2. 2.2. Overview of materials used in prosthetic restorations - p. 23 3. 2.3. Clinical indications: philosophical context - p. 32 4. 2.4. Implant-supported restorations - p. 34 5. 2.5. Dental preparation, adaptation, and cementation of indirect restorations - p. 43 6. 2.6. Shape and function of indirect restorations - p. 46 7. 2.7. Clinical challenges and failures - p. 49 8. 2.8. Future directions - p. 54 9. 3. Interfaces in fixed dental prostheses: Challenges and opportunities - p. 67 10. Part Two. Fundamental structure/property characteristics - p. 83 11. 4. Fundamentals of the material-tissue interface in dental reconstructions: Structure/property relationships and characterization - p. 87 12. 5. Understanding the mechanical behavior of the material–tissue and material–material interface in dental reconstructions - p. 113 13. 6. Understanding the chemistry and improving the durability of dental resin–dentin bonded interface - p. 147 14. 7. Biology of the oral environment and its impact on the stability of dental and craniofacial reconstructions - p. 181 15. Part Three. Characterization of material-tissue interfaces in dental and craniofacial reconstructions - p. 202 16. 8. Morphologic and structural analysis of material-tissue interfaces relevant to dental reconstruction - p. 205 17. 9. Analyses of material-tissue interfaces by Fourier transform infrared, Raman spectroscopy, and chemometrics - p. 231 18. 10. Material-tissue interfacial phenomena: Challenges in mathematical modeling - p. 253 19. Part Four. Lessons learned: next generation reconstructions and future opportunities - p. 264 20. 11. Dentinoenamel junction: Motif for interfacial mechanics of dissimilar materials - p. 267 21. 12. Chimeric biomolecules: Biomolecular recognition–based self-organization at the bio-material interfaces - p. 285 22. 12.1. Introduction - p. 285 23. 12.2. Controlled hierarchical interface of mineralized hard tissues - p. 286 24. 12.3. Functional integration of titanium-based implant materials - p. 287 25. 12.4. Osteointegration of biofunctionalized implant materials - p. 290 26. 12.5. Solid-binding peptides as molecular building blocks to control specific interactions at the materials interfaces - p. 291 27. 12.6. Biofunctionalization of titanium dental implants materials using solid-binding peptides - p. 293 28. 12.7. Self-organized chimeric peptides toward creating controllable biomaterial interfaces - p. 295 29. 12.8. Calcium phosphate coating of titanium implants to increase biocompatibility - p. 297 30. 12.9. Peptides to tune calcium phosphate recognition and mineralization - p. 300 31. 12.10. Chimeric genetically fused protein as a modular biomolecular device at the interface: from monitoring to biomolecular mediation of mineral layer - p. 302 32. 12.11. Future prospects - p. 305 33. 13. Stem cells and dental tissue reconstruction - p. 325 34. Index - p. 355
