Medical Modelling:?The Application of Advanced Design and Additive Manufacturing Techniques in Medicine, Third Edition?provides readers with a thorough update of the core contents, along with key information on innovative imaging techniques, additive manufacturing technologies and a range of applied case studies. This comprehensive new edition includes new coverage of advanced technologies, such as selective laser melting, electron beam melting, multi jet fusion, and more. The extensive section of peer-reviewed case studies is thoroughly updated and includes additional clinical examples, describing the practical applications of advanced design technologies in surgical, prosthetic, orthotic, dental and research applications. Finally, Medical Modelling:?The Application of Advanced Design and Additive Manufacturing Techniques in Medicine, Third Edition explores the future potential of medical modelling, such as in simulations for training, the development of new medical devices and so on.
1. Chapter 1 Introduction - p. 1 2. Chapter 2 Medical imaging - p. 9 3. Chapter 3 Working with medical scan data - p. 49 4. Chapter 4 Physical reproduction - p. 91 5. Chapter 5 Case studies - p. 137 6. 5.1: Introduction - p. 137 7. Chapter 5.1 Implementation case study 1 - p. 141 8. Chapter 5.2 Implementation case study 2 - p. 151 9. Chapter 5.3 Implementation case study 3 - p. 167 10. Chapter 5.4 Surgical application case study 1—Planning osseointegrated implants using computer-aided design and additive manufacturing∗ - p. 187 11. Chapter 5.5 Surgical applications case study 2—Rapid manufacture of custom fitting surgical guides∗ - p. 195 12. Chapter 5.6 Surgical application case study 3—The use of a reconstructed 3D solid model from CT to aid the surgical management of a total knee arthroplasty∗ - p. 207 13. Chapter 5.7 Surgical application case study 4—The custom-made titanium orbital floor prosthesis in reconstruction for orbital floor fractures∗ - p. 213 14. Chapter 5.8 Surgical application case study 5—The use of 3D technology in the multidisciplinary management of facial disproportion∗ - p. 221 15. Chapter 5.9 Surgical applications case study 6—An appropriate approach to computer-aided design and manufacture of reconstructive implants∗ - p. 229 16. Chapter 5.10 Surgical application case study 7—Computer-aided planning and additive manufacture for complex, mid-face osteotomies∗ - p. 253 17. Chapter 5.11 Surgical applications case study 8—Virtual surgical planning and development of a patient-specific resection guide for treatment of distal radius osteosarcoma∗ - p. 261 18. Chapter 5.12 Prosthetic rehabilitation applications case study 1—An investigation of three-dimensional scanning of human body surfaces and its use in the design and manufacture of prostheses∗ - p. 277 19. Chapter 5.13 Prosthetic rehabilitation applications case study 2—Producing burns therapy conformers using noncontact scanning and additive manufacturing∗ - p. 287 20. Chapter 5.14 Prosthetic rehabilitation applications case study 3—An appropriate approach to computer-aided design and manufacture of cranioplasty plates∗ - p. 297 21. Chapter 5.15 Prosthetic rehabilitation applications case study 4—Evaluation of advanced technologies in the design and manufacture of an implant-retained facial prosthesis∗ - p. 321 22. Chapter 5.16 Prosthetic rehabilitation applications case study 5—Additive manufacturing technologies in soft tissue facial prosthetics: Current state of the art∗ - p. 337 23. Chapter 5.17 Prosthetic rehabilitation applications case study 6—Evaluation of direct and indirect additive manufacture of maxillofacial prostheses using additive manufacturing∗ - p. 357 24. Chapter 5.18 Prosthetic rehabilitation applications case study 7—Computer-aided methods in bespoke breast prosthesis design and fabrication∗ - p. 377 25. Chapter 5.19 Prosthetic rehabilitation applications case study 8—Immediate nasal prosthesis following rhinectomy∗ - p. 389 26. Chapter 5.20 Prosthetic rehabilitation applications case study 9—Applications of 3D topography scanning and multimaterial additive manufacturing for facial prosthesis development and production∗ - p. 397 27. Chapter 5.21 Prosthetic rehabilitation applications case study 10—Advanced auricular prosthesis development by 3D modeling and multimaterial printing∗ - p. 413 28. Chapter 5.22 Prosthetic rehabilitation applications case study 11—Augmented patient-specific facial prosthesis production using medical imaging modeling and 3D printing technologies for improved patient outcomes∗ - p. 421 29. Chapter 5.23 Prosthetic rehabilitation applications case study 12—Customized design and development of patient-specific 3D printed whole mandible implant∗ - p. 439 30. Chapter 5.24 Orthotic applications case study 1—A review of existing anatomic data capture methods to support the mass customization of wrist splints∗ - p. 453 31. Chapter 5.25 Orthotic applications case study 2—comparison of additive manufacturing systems for the design and fabrication of customized wrist splints∗ - p. 467 32. Chapter 5.26 Orthotic applications case study 3—Evaluation of a digitized splinting approach with multiple-material functionality using additive manufacturing technologies∗ - p. 497 33. Chapter 5.27 Orthotic applications case study 4—Digitization of the splinting process: development of a CAD strategy for splint design and fabrication∗ - p. 517 34. Chapter 5.28 Orthotic applications case study 5—Evaluation of a refined three-dimensional computer-aided design workflow for upper extremity splint design to support additive manufacture∗ - p. 529 35. Chapter 5.29 Orthotic applications case study 6—Design optimization of a thermoplastic splint∗ - p. 539 36. Chapter 5.30 Orthotic applications case study 7—Design and additive manufacturing of a patient-specific polymer thumb splint concept∗ - p. 549 37. Chapter 5.31 Orthotic applications case study 8—Digital design and fabrication of a controlled porosity, personalized lower limb ankle foot orthosisaa - p. 567 38. Chapter 5.32 Orthotic applications case study 9—A review of 3D printed patient-specific immobilization devices in radiotherapyaa - p. 573 39. Chapter 5.33 Orthotic applications case study 10—case reports of three-dimensional printed assistive technologya - p. 589 40. Chapter 5.34 Dental applications case study 1—the computer-aided design and additive manufacture of removable partial denture frameworksa - p. 603 41. Chapter 5.35 Dental applications case study 2—trial fitting of a removable partial denture framework made using computer-aided design and additive manufacturinga - p. 617 42. Chapter 5.36 Dental applications case study 3—direct additive manufacture of removable partial denture frameworksa - p. 625 43. Chapter 5.37 Dental applications case study 4—A comparison of plaster, digital, and reconstructed study model accuracya - p. 637 44. Chapter 5.38 Dental applications case study 5—Design and fabrication of a sleep apnea device using CAD/AM technologies∗ - p. 661 45. Chapter 5.39 Dental applications case study 6—CAD/CAM/AM applications in the manufacture of dental appliances∗ - p. 673 46. Chapter 5.40 Research applications case study 1—Bone structure models using stereolithography∗ - p. 687 47. Chapter 5.41 Research applications case study 2—Recreating skin texture relief using CAD/AM∗ - p. 697 48. Chapter 5.42 Research applications case study 3—Comparison of additive manufacturing materials and human tissues in computed tomography scanning∗ - p. 711 49. Chapter 5.43 Research applications case study 4—Producing physical models from CT scans of ancient Egyptian mummies∗ - p. 725 50. Chapter 5.44 Research applications case study 5—Trauma simulation of massive lower limb/pelvic injurya - p. 735 51. Chapter 5.45 Research applications case study 6—biomodeling with bio-inspired soft materialsa - p. 743 52. Chapter 5.46 Research applications case study 7—Three-dimensional bone surrogates for assessing cement injection behavior in cancellous bone∗ - p. 765 53. Chapter 5.47 Research applications case study 8—Full-color medical models—Worked examples∗ - p. 775 54. Chapter 6 Future directions in medical modeling - p. 785 55. Chapter 7 Glossary and explanatory notes - p. 795 56. Index - p. 801
Medical Modelling:?The Application of Advanced Design and Additive Manufacturing Techniques in Medicine, Third Edition?provides readers with a thorough update of the core contents, along with key information on innovative imaging techniques, additive manufacturing technologies and a range of applied case studies. This comprehensive new edition includes new coverage of advanced technologies, such as selective laser melting, electron beam melting, multi jet fusion, and more. The extensive section of peer-reviewed case studies is thoroughly updated and includes additional clinical examples, describing the practical applications of advanced design technologies in surgical, prosthetic, orthotic, dental and research applications. Finally, Medical Modelling:?The Application of Advanced Design and Additive Manufacturing Techniques in Medicine, Third Edition explores the future potential of medical modelling, such as in simulations for training, the development of new medical devices and so on.
1. Chapter 1 Introduction - p. 1 2. Chapter 2 Medical imaging - p. 9 3. Chapter 3 Working with medical scan data - p. 49 4. Chapter 4 Physical reproduction - p. 91 5. Chapter 5 Case studies - p. 137 6. 5.1: Introduction - p. 137 7. Chapter 5.1 Implementation case study 1 - p. 141 8. Chapter 5.2 Implementation case study 2 - p. 151 9. Chapter 5.3 Implementation case study 3 - p. 167 10. Chapter 5.4 Surgical application case study 1—Planning osseointegrated implants using computer-aided design and additive manufacturing∗ - p. 187 11. Chapter 5.5 Surgical applications case study 2—Rapid manufacture of custom fitting surgical guides∗ - p. 195 12. Chapter 5.6 Surgical application case study 3—The use of a reconstructed 3D solid model from CT to aid the surgical management of a total knee arthroplasty∗ - p. 207 13. Chapter 5.7 Surgical application case study 4—The custom-made titanium orbital floor prosthesis in reconstruction for orbital floor fractures∗ - p. 213 14. Chapter 5.8 Surgical application case study 5—The use of 3D technology in the multidisciplinary management of facial disproportion∗ - p. 221 15. Chapter 5.9 Surgical applications case study 6—An appropriate approach to computer-aided design and manufacture of reconstructive implants∗ - p. 229 16. Chapter 5.10 Surgical application case study 7—Computer-aided planning and additive manufacture for complex, mid-face osteotomies∗ - p. 253 17. Chapter 5.11 Surgical applications case study 8—Virtual surgical planning and development of a patient-specific resection guide for treatment of distal radius osteosarcoma∗ - p. 261 18. Chapter 5.12 Prosthetic rehabilitation applications case study 1—An investigation of three-dimensional scanning of human body surfaces and its use in the design and manufacture of prostheses∗ - p. 277 19. Chapter 5.13 Prosthetic rehabilitation applications case study 2—Producing burns therapy conformers using noncontact scanning and additive manufacturing∗ - p. 287 20. Chapter 5.14 Prosthetic rehabilitation applications case study 3—An appropriate approach to computer-aided design and manufacture of cranioplasty plates∗ - p. 297 21. Chapter 5.15 Prosthetic rehabilitation applications case study 4—Evaluation of advanced technologies in the design and manufacture of an implant-retained facial prosthesis∗ - p. 321 22. Chapter 5.16 Prosthetic rehabilitation applications case study 5—Additive manufacturing technologies in soft tissue facial prosthetics: Current state of the art∗ - p. 337 23. Chapter 5.17 Prosthetic rehabilitation applications case study 6—Evaluation of direct and indirect additive manufacture of maxillofacial prostheses using additive manufacturing∗ - p. 357 24. Chapter 5.18 Prosthetic rehabilitation applications case study 7—Computer-aided methods in bespoke breast prosthesis design and fabrication∗ - p. 377 25. Chapter 5.19 Prosthetic rehabilitation applications case study 8—Immediate nasal prosthesis following rhinectomy∗ - p. 389 26. Chapter 5.20 Prosthetic rehabilitation applications case study 9—Applications of 3D topography scanning and multimaterial additive manufacturing for facial prosthesis development and production∗ - p. 397 27. Chapter 5.21 Prosthetic rehabilitation applications case study 10—Advanced auricular prosthesis development by 3D modeling and multimaterial printing∗ - p. 413 28. Chapter 5.22 Prosthetic rehabilitation applications case study 11—Augmented patient-specific facial prosthesis production using medical imaging modeling and 3D printing technologies for improved patient outcomes∗ - p. 421 29. Chapter 5.23 Prosthetic rehabilitation applications case study 12—Customized design and development of patient-specific 3D printed whole mandible implant∗ - p. 439 30. Chapter 5.24 Orthotic applications case study 1—A review of existing anatomic data capture methods to support the mass customization of wrist splints∗ - p. 453 31. Chapter 5.25 Orthotic applications case study 2—comparison of additive manufacturing systems for the design and fabrication of customized wrist splints∗ - p. 467 32. Chapter 5.26 Orthotic applications case study 3—Evaluation of a digitized splinting approach with multiple-material functionality using additive manufacturing technologies∗ - p. 497 33. Chapter 5.27 Orthotic applications case study 4—Digitization of the splinting process: development of a CAD strategy for splint design and fabrication∗ - p. 517 34. Chapter 5.28 Orthotic applications case study 5—Evaluation of a refined three-dimensional computer-aided design workflow for upper extremity splint design to support additive manufacture∗ - p. 529 35. Chapter 5.29 Orthotic applications case study 6—Design optimization of a thermoplastic splint∗ - p. 539 36. Chapter 5.30 Orthotic applications case study 7—Design and additive manufacturing of a patient-specific polymer thumb splint concept∗ - p. 549 37. Chapter 5.31 Orthotic applications case study 8—Digital design and fabrication of a controlled porosity, personalized lower limb ankle foot orthosisaa - p. 567 38. Chapter 5.32 Orthotic applications case study 9—A review of 3D printed patient-specific immobilization devices in radiotherapyaa - p. 573 39. Chapter 5.33 Orthotic applications case study 10—case reports of three-dimensional printed assistive technologya - p. 589 40. Chapter 5.34 Dental applications case study 1—the computer-aided design and additive manufacture of removable partial denture frameworksa - p. 603 41. Chapter 5.35 Dental applications case study 2—trial fitting of a removable partial denture framework made using computer-aided design and additive manufacturinga - p. 617 42. Chapter 5.36 Dental applications case study 3—direct additive manufacture of removable partial denture frameworksa - p. 625 43. Chapter 5.37 Dental applications case study 4—A comparison of plaster, digital, and reconstructed study model accuracya - p. 637 44. Chapter 5.38 Dental applications case study 5—Design and fabrication of a sleep apnea device using CAD/AM technologies∗ - p. 661 45. Chapter 5.39 Dental applications case study 6—CAD/CAM/AM applications in the manufacture of dental appliances∗ - p. 673 46. Chapter 5.40 Research applications case study 1—Bone structure models using stereolithography∗ - p. 687 47. Chapter 5.41 Research applications case study 2—Recreating skin texture relief using CAD/AM∗ - p. 697 48. Chapter 5.42 Research applications case study 3—Comparison of additive manufacturing materials and human tissues in computed tomography scanning∗ - p. 711 49. Chapter 5.43 Research applications case study 4—Producing physical models from CT scans of ancient Egyptian mummies∗ - p. 725 50. Chapter 5.44 Research applications case study 5—Trauma simulation of massive lower limb/pelvic injurya - p. 735 51. Chapter 5.45 Research applications case study 6—biomodeling with bio-inspired soft materialsa - p. 743 52. Chapter 5.46 Research applications case study 7—Three-dimensional bone surrogates for assessing cement injection behavior in cancellous bone∗ - p. 765 53. Chapter 5.47 Research applications case study 8—Full-color medical models—Worked examples∗ - p. 775 54. Chapter 6 Future directions in medical modeling - p. 785 55. Chapter 7 Glossary and explanatory notes - p. 795 56. Index - p. 801
