Titanium in Medical and Dental Applications is an essential reference book for those involved in biomedical materials and advanced metals. Written by well-known experts in the field, it covers a broad array of titanium uses, including implants, instruments, devices, the manufacturing processes used to create them, their properties, corrosion resistance and various fabrication approaches. Biomedical titanium materials are a critically important part of biomaterials, especially in cases where non-metallic biomedical materials are not suited to applications, such as the case of load-bearing implants.
The book also covers the use of titanium for implants in the medical and dental fields and reviews the use of titanium for medical instruments and devices.
1. 1.1: Titanium for medical and dental applications—An introduction - p. xxiv 2. 1.2: Titanium background, alloying behavior and advanced fabrication techniques—An overview - p. 21 3. 1.3: The molecular orbital approach and its application to biomedical titanium alloy design - p. 37 4. 1.4: Titanium and titanium alloys: Materials, review of processes for orthopedics and a focus on a proprietary approach to producing cannulated bars for screws and nails for trauma - p. 64 5. Section 2: Surface biofunctionalization of titanium and titanium alloys for biomedical applications - p. 91 6. 2.1: Transition of surface modification of titanium for medical and dental use - p. 91 7. 2.2: Modern techniques of surface geometry modification for the implants based on titanium and its alloys used for improvement of the biomedical characteristics - p. 113 8. 2.3: Nanobioceramic thin films: Surface modifications and cellular responses on titanium implants - p. 145 9. 2.4: Ti-Nb-Zr system and its surface biofunctionalization for biomedical applications - p. 173 10. Section 3: Additive manufacturing of titanium and titanium alloys for implant applications - p. 200 11. 3.1: Design of titanium implants for additive manufacturing - p. 200 12. 3.2: Anatomics 3D-printed titanium implants from head to heel - p. 224 13. 3.3: Ti-6Al-4V orthopedic implants made by selective electron beam melting - p. 237 14. 3.4: 3D-printed titanium alloys for orthopedic applications - p. 249 15. 3.5: Ti-6Al-4V lattice structures fabricated by electron beam melting for biomedical applications - p. 275 16. 3.6: Additive manufacturing of cp-Ti, Ti-6Al-4V and Ti2448 - p. 301 17. 3.7: Additive manufacturing of titanium and titanium alloys for biomedical applications - p. 324 18. Section 4: Titanium for implant applications - p. 343 19. 4.1: Titanium spinal-fixation implants - p. 343 20. 4.2: Biocompatible beta-Ti alloys with enhanced strength due to increased oxygen content - p. 369 21. 4.3: Nanostructured commercially pure titanium for development of miniaturized biomedical implants - p. 392 22. 4.4: Mechanical performance and cell response of pure titanium with ultrafine-grained structure produced by severe plastic deformation - p. 417 23. 4.5: Microstructure and lattice defects in ultrafine grained biomedical α + β and metastable β Ti alloys - p. 454 24. 4.6: Aluminum- and vanadium-free titanium alloys for application in medical engineering - p. 475 25. Section 5: Titanium implants for dental applications - p. 492 26. 5.1: Why titanium in dental applications? - p. 492 27. 5.2: The role of titanium in implant dentistry - p. 504 28. 5.3: Titanium MIM for manufacturing of medical implants and devices - p. 529 29. Section 6: Nitinol and Ni-free superelastic titanium alloys in medical and dental applications - p. 551 30. 6.1: The metallurgy of Nitinol as it pertains to medical devices - p. 551 31. 6.2: The effect of Nitinol on medical device innovation - p. 570 32. 6.3: Advanced TiNi shape memory alloy stents fabricated by a powder metallurgy route - p. 582 33. 6.4: Ni-free superelastic titanium alloys for medical and dental applications - p. 590 34. Index - p. 613
Titanium in Medical and Dental Applications is an essential reference book for those involved in biomedical materials and advanced metals. Written by well-known experts in the field, it covers a broad array of titanium uses, including implants, instruments, devices, the manufacturing processes used to create them, their properties, corrosion resistance and various fabrication approaches. Biomedical titanium materials are a critically important part of biomaterials, especially in cases where non-metallic biomedical materials are not suited to applications, such as the case of load-bearing implants.
The book also covers the use of titanium for implants in the medical and dental fields and reviews the use of titanium for medical instruments and devices.
1. 1.1: Titanium for medical and dental applications—An introduction - p. xxiv 2. 1.2: Titanium background, alloying behavior and advanced fabrication techniques—An overview - p. 21 3. 1.3: The molecular orbital approach and its application to biomedical titanium alloy design - p. 37 4. 1.4: Titanium and titanium alloys: Materials, review of processes for orthopedics and a focus on a proprietary approach to producing cannulated bars for screws and nails for trauma - p. 64 5. Section 2: Surface biofunctionalization of titanium and titanium alloys for biomedical applications - p. 91 6. 2.1: Transition of surface modification of titanium for medical and dental use - p. 91 7. 2.2: Modern techniques of surface geometry modification for the implants based on titanium and its alloys used for improvement of the biomedical characteristics - p. 113 8. 2.3: Nanobioceramic thin films: Surface modifications and cellular responses on titanium implants - p. 145 9. 2.4: Ti-Nb-Zr system and its surface biofunctionalization for biomedical applications - p. 173 10. Section 3: Additive manufacturing of titanium and titanium alloys for implant applications - p. 200 11. 3.1: Design of titanium implants for additive manufacturing - p. 200 12. 3.2: Anatomics 3D-printed titanium implants from head to heel - p. 224 13. 3.3: Ti-6Al-4V orthopedic implants made by selective electron beam melting - p. 237 14. 3.4: 3D-printed titanium alloys for orthopedic applications - p. 249 15. 3.5: Ti-6Al-4V lattice structures fabricated by electron beam melting for biomedical applications - p. 275 16. 3.6: Additive manufacturing of cp-Ti, Ti-6Al-4V and Ti2448 - p. 301 17. 3.7: Additive manufacturing of titanium and titanium alloys for biomedical applications - p. 324 18. Section 4: Titanium for implant applications - p. 343 19. 4.1: Titanium spinal-fixation implants - p. 343 20. 4.2: Biocompatible beta-Ti alloys with enhanced strength due to increased oxygen content - p. 369 21. 4.3: Nanostructured commercially pure titanium for development of miniaturized biomedical implants - p. 392 22. 4.4: Mechanical performance and cell response of pure titanium with ultrafine-grained structure produced by severe plastic deformation - p. 417 23. 4.5: Microstructure and lattice defects in ultrafine grained biomedical α + β and metastable β Ti alloys - p. 454 24. 4.6: Aluminum- and vanadium-free titanium alloys for application in medical engineering - p. 475 25. Section 5: Titanium implants for dental applications - p. 492 26. 5.1: Why titanium in dental applications? - p. 492 27. 5.2: The role of titanium in implant dentistry - p. 504 28. 5.3: Titanium MIM for manufacturing of medical implants and devices - p. 529 29. Section 6: Nitinol and Ni-free superelastic titanium alloys in medical and dental applications - p. 551 30. 6.1: The metallurgy of Nitinol as it pertains to medical devices - p. 551 31. 6.2: The effect of Nitinol on medical device innovation - p. 570 32. 6.3: Advanced TiNi shape memory alloy stents fabricated by a powder metallurgy route - p. 582 33. 6.4: Ni-free superelastic titanium alloys for medical and dental applications - p. 590 34. Index - p. 613
