Elsevier S & T

Bioceramics Volume 10

Sedel, L.; Rey, C.

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Table of contents
  • CONTENTSix
  • PART 1: CALCIUM PHOSPHATE IN VIVO FORMATION1
  • Chapter 1. Precipitation of Calcium Phosphate on Titania Ceramics3
  • Chapter 2. Apatite Formation on Polymers by Biomimetic Processing Using Sodium Silicate Solution7
  • Chapter 3. Bonelike Apatite Formation on the Surface of Chemically Treated Tantalum Substrates: Effe11
  • Chapter 4. Influence of Hydroxyapatite Particle Size and Morphology on Hapex TM15
  • Chapter 5. Effect of Fluoride Substitution on the Biocompatibility of Hydroxyapatite19
  • Chapter 6. Apatite Precipitation in Biphasic Calcium Phosphate Ceramic After Incubation in Rabbit Se23
  • Chapter 7. Apatite Precipitation in Biphasic Calcium Phosphate Ceramic After Implantation: Influence27
  • PART 2: GLASS CERAMICS BIOACTIVITY31
  • Chapter 8. Bioactivity and Structure of Organically Modified Silicate Synthesized by the Sol-Gel Me33
  • Chapter 9. Hydroxyapatite Formation on Bioactive Glass Coated Titanium37
  • Chapter 10. Effect of Multivalent Cations in Calcium Silicate Glasses on Bioactivity41
  • Chapter 11. Transformtion of bioactive Glass Granules Into Ca-P Shells In Vitro45
  • Chapter 12. Multilayered Coatings of Hydroxyapatite/Glass Ceramic Composites Plasma Sprayed on Ti-649
  • Chapter 13.The Bony Reaction to Rapidly Degradable Glass-Ceramics Based on the New Phase Ca2KNa(P0453
  • Chapter 14. Resorbable, Porous Phosphate Invert Glasses-First in Vitro and in Vivo Results57
  • Chapter 15. Implantation of Bioactive and Inert Glass Fibres in Rats-Soft Tissue Response and Short61
  • Chapter 16. Spinal Fusion Using Titanium Spacers With Bioglass and Autogenous Bone: A Comparative S65
  • PART 3: DENSE AND POROUS BIOACTIVE CERAMICS69
  • Chapter 17. Macroporous Biphasic Calcium Phosphate Ceramics: Influence of Macropore Diameter and Mac71
  • Chapter 18. Mechanical Fatigue of Hot Pressed Hydroxyapatite75
  • Chapter 19. Mechanical Property Changes in Macroporous Ceramic After Implantation into Bone and Musc79
  • Chapter 20. Difference of Bonding Behavior Between Four Different Kinds of Hydroxyapatite Plate and83
  • Chapter 21. Treatment of Osteomyelitis by Antibiotic-Soaked Porous A-W Glass Ceramic Block87
  • Chapter 22. Calcium Hydroxyapatite Ceramic Implants Impregnated With Antibiotic for the Treatment of91
  • PART 4: BONE CELLS ONTO BIOACTIVE CERAMICS95
  • Chapter 23. Measurement of Intact Osteocalcin Contents in the Composite of Porous Hydroxyapatite Cer97
  • Chapter 24. Si-Ca-P Xerogels and Bone Morphogenetic Protein Act Synergistically on Rat Stromal Marro101
  • Chapter 25. Effect of Surface Instability of Calcium Phosphate Ceramics on Growth and Adhesion of Os105
  • Chapter 26. Histological Evaluation of Cultured Bone Graft Using Cryopreserved Marrow Cells109
  • Chapter 27. Interactions of Bioceramics on Human Osteoarthritis (OA) Type B Synoviocytes. Effects on113
  • Chapter 28. A Long Term Implantation of Cultured Bone in Porous Hydroxyapatite117
  • PART 5: SURFACE BEARING CERAMICS121
  • Chapter 29. Oxide Ceramics for Articulating Components of Total Hip Replacements123
  • Chapter 30. Ex Vivo and In Vitro Analysis of the Alumina/Alumina Bearing System for Hip Joint Prost127
  • Chapter 31. Hybrid Alumina-Alumina Hip Replacement: A Survivorship Analysis and Results at a Minimal131
  • Chapter 32. Low Temperature Ageing Behaviour of Zirconia Hip Joint Heads135
  • Chapter 33. Characterization of Zirconia Coated by Bioactive Glass: Preliminary Observations139
  • Chapter 34. Calcium Phosphate Particles are Found at the Polyethylene Insert Surface Whether Implant143
  • Chapter 35. Bone Remodelling Around Implanted Materials Under Load-Bearing Conditions147
  • PART 6: CLINICAL USE OF CERAMICS151
  • Chapter 36. Clinical Comparative Study Between Porous Coated and Hydroxyapatite Porous Femoral Impla153
  • Chapter 37. Revision Rates and Radiographic Changes Associated With Different Socket Interface Techn157
  • Chapter 38. Comparative Study of the Results Between Custom Non-Coated Cementless Hip Implants and M161
  • Chapter 39. Improvement of THR With Spongiosa Metal Surface Using the Wear Couple Ceramic-On-Ceramic165
  • Chapter 40. Acetabular Reconstruction in Revision Total Hip Arthroplasty Using a Bone Graft Substitu169
  • POSTER 1173
  • Effect of Solution Ageing on Sol-Gel Hydroxyapatite Coatings175
  • Ionic Cements: Influence of the Liquid/Solid Ratio on Porosity and Mechanical Properties179
  • Sintering and Thermal Decomposition of Hydroxyapatite Bioceramics183
  • An Elaboration of the New Dissolution Mechanism for Apatite187
  • Ultrastructural Study of Long Term Implanted Ca-P Particulate into Rabbit Bones191
  • Bioactive Glass-and Glass-Ceramic Composites and Coatings195
  • Mechanical Characterisation of Bioactive Coatings on Zirconia199
  • Vacuum Plasma Sprayed Titanium and Hydroxyapatite Coatings on Carbon Fiber Reinforced Polyetherether203
  • Low Temperature Crystallization of Hydroxyapatite Sputtered Films in an Autoclave207
  • Fabrication of In-Ceram Core by Sheet Forming Process211
  • Surface Structure of Bioactive Titanium Prepared by Chemical Treatment215
  • Prefabricated Biological Apatite Formation on a Bioactive Glass-Ceramic Promotes In Vitro Differenti219
  • The Effect on Mechanical Properties by Osteoblastic Cell Ingrowth in Macroporous Synthetic Hydroxyap223
  • Characterization and Cell Reaction of α-TCP- and HΑp-Coatings on Titanium Plate229
  • The Ectopic Osteoconduction Model233
  • Conditions of the Coprecipitation of Calcium Hydroxyapatite With ZrO2, ZrO2+ Y2O3, AI2O3 from Aquoeu237
  • Transformation of α-TCP to Hydroxyapatite in Organic Media241
  • Structure and Solvation Effects of PO43-, HPO42-, H2PO4- and H3PO4 from AM1 and PM3245
  • The Detailed Configuration of Carbonate Ions in Apatite Structure Determined by Polarized Ir Spectro249
  • Tissue Culture on Amorphous Calcium Phosphate Coating253
  • Bonelike Apatite Layer Formed on Organic Polymers by Biomimetic Process: TEM-EDX Observation of Init257
  • Sinterability and Second Phase Formation of Synthetic Hydroxy Apatite: Controlling Parameters and Ef261
  • Porous Sol-Gel Bioglass® from Near-Equilibrium Drying265
  • POSTER 2269
  • Ceramic-Ceramic Bearing Systems Compared on Different Testing Configurations271
  • Dissolution and Mechanical Behaviour of Plasma-Sprayed Ceramic Coatings for Orthopaedic Applications275
  • Design of a Calcium Phosphate Bone Cement Suitable for the Fixation of Metal Endoprostheses279
  • Quantitative Comparison of In Vivo Bone Generation With Particulate Bioglass® and Hydroxyapatite as283
  • Test of Bioactivity in Four Different Glasses287
  • Comparison of Bone-Implant Attachment Strength Between the Implants With Hydroxyapatite-Coating and291
  • Effect of Hydroxyapatite Coating on Bony Ingrowth into Grooved Titanium Implants295
  • Mechanism of the Inflammatory Reaction of Conventional Calcium Phosphate Cement301
  • Fracture of Alumina Ceramic Head in Total Hip Arthroplasty-Report of a Case With Histological Examin305
  • Experimental Comparative Study Between Rough-Blasted and Hydroxyapatite Coated Implants309
  • Mechanical and Biological Properties of Alumina Bead Composite313
  • Remodeling of Bone Around Hydroxylapatite-Coated Femoral Stems317
  • Processing and Characterisation of Biological Hydroxyapatite Derived from Cattle, Sheep and Deer Bon321
  • Catastrophic Wear of Metal Ball of Bipolar Hip Prosthesis After Fracture of Alumina Ceramic Screws U325
  • Antibacterial Property of Ag-Doped Calcium Phosphate Compound-Cellulose Composites329
  • Wear Behaviour of Polyethylene Cup Against 28 mm Alumina Ball in Total Hip Prostheses333
  • In Vitro Cell Behavior of Osteoblasts on Pyrost Bone Substitute337
  • The Efficacy of Hydroxyapatite-Tricalcium Phosphate Filler for Bone Defects Associated With Humeral341
  • Experimental Study of Apatite Cement Including Cisplatin345
  • In Vivo Evaluation of Sol-Gel Bioglass®.-Biomechanical Findings337
  • Fixation of Hip Prostheses by Hydroxyapatite Coating353
  • Acetabular Reconstruction With an Artificial Bone Block357
  • Participation of Calcium Phosphate Cements for Healing of Alveolar Bone361
  • PART 7: BIOCERAMICS SYNTHESIS AND EVALUATION365
  • Chapter 41. Syntheses of Rapid Resorbable Calcium Phosphate Ceramics With High Macro or High Micro P367
  • Chapter 42. Composite Bioceramics Made of Macroporous Calcium Phosphate Ceramics Filled With a Self-371
  • Chapter 43. Physical Properties of an Apatitic Ceramic Containing Tricalcium Phosphate Prepared by t375
  • Chapter 44. Cytocompatibility of Calcium Phosphate Coatings With Various Ca/P Ratios379
  • Chapter 45. Comparison of Resorption and Bone Conduction of Two CaCOa Bone Substitutes383
  • Chapter 46. Reliability of Dual Energy X-Ray Absorptiometry in Evaluation of Phospho- Calcic Biocera387
  • Chapter 47. The Evaluation of Degradability of Melt and Sol-Gel Derived Bioglass® In- Vitro391
  • PART 8: COMPOSITE CERAMICS395
  • Chapter 48. Upgrading of Hydroxyapatite Ceramic Biocompatibility by Incorporation of α-Tricalcium P397
  • Chapter 49. Preparation of Composite Materials Calcium Hydroxyapatite/Collagen by Coprecipitation Me401
  • Chapter 50. Bony Reaction of Several Kinds of Ca-P-Collagen Conjugated Sponges403
  • Chapter 51. In Vitro and In Vivo Tests of Newly Developed TCP/CPLA Composites407
  • Chapter 52. Occlusion of Dentin Tubules by 45S5 Bioglass®411
  • Chapter 53. Bioinert and Biodegradable Polymeric Matrix Composites Filled With Bioactive SiO2-3CaO-P415
  • Chapter 54. The Healing of Segmental Bone Defects, Induced by Bioresorbable Calcium Phosphate Cement419
  • PART 9: DENTAL AND E.N.T. APPLICATIONS423
  • Chapter 55. Implant Placement Enhanced by a New Bioactive Material425
  • Chapter 56. Behaviour of Bioactive Glass (S53P4) in Human Frontal Sinus Obliteration429
  • Chapter 57. All-Ceramic Dental Bridges by the Direct Ceramic Machining Process (DCM)433
  • Chapter 58. Grinding of Zirconia-TZP in Dentistry-CAD/CAM-Technology for the Manufacturing of Fixed437
  • Chapter 59. Zirconia Implants With a Plasma-Sprayed SiO2-HA Bioactive Coating441
  • PART 10: ORTHOPAEDIC APPLICATIONS445
  • Chapter 60. Effect of Time and Temperature on the Production of Porous Electrolytic Hydroxyapatite C447
  • Chapter 61. Calcium Phosphate Formation on Chemically Treated Vacuum Plasma Sprayed Titanium Coating451
  • Chapter 62. Properties of Plasma Sprayed Bioactive Fluorhydroxyapatite Coatings455
  • Chapter 63. Longer-Term Mechanical and Biological Evaluation of Titanium Alloy Coated With Apatite L459
  • Chapter 64. Electrophoretic Coatings of Porous Apatite Composite onto Alumina Ceramics463
  • Chapter 65. Osseointegration in Experimental HA-Coated Femoral Stems467
  • Chapter 66. Effect of Hydroxyapatite-Coating on the Bonding of Bone to Titanium Implants in the Femu471
  • PART 11: BIO ACTIVE BONE CEMENT475
  • Chapter 67. Optimization of Setting Time and Mechanical Strength of β-TCP/MCPM Biocements477
  • Chapter 68. Influence of the Particle Size of the Powder Phase in the Setting and Hardening Behaviou481
  • Chapter 69. Subcutaneous Tissue Responses and Kinetics of Cells to Tetracalcium Phosphate Cements485
  • Chapter 70. Biological Behaviour of a Bioactive Bone Cement Implanted in Rabbit Tibiae489
  • Chapter 71. Histological Study of a DCPD-Based Calcium Phosphate Cement493
  • Chapter 72. Bioactive Bone Cement Studied in Canine Total Hip Arthroplasty,2 Years Follow-Up Study497
  • PART 12: NEW MATERIALS AND TECHNOLOGIES501
  • Chapter 73. Experimental Study on Hydroxyapatite/N-Carboxymethyl Chitosan Fillers503
  • Chapter 74. Injectable Chitosamine Hydroxylapatite Bone Paste507
  • Chapter 75. Manufacture of a Hydroxyapatite-Chitin Composite511
  • Chapter 76. Load-Bearing and Ductile Hydroxylapatite/Polyethylene Composites for Bone Replacement515
  • Chapter 77. In Vitro Assessment of Hydroxyapatite- and Bioglass® - Reinforced Polyethylene Composit519
  • Chapter 78. Osteoconductive Properties of Pure and Type-A Carbonated Hydroxyapatites523
  • Chapter 79. Coagulation Times of Blood in Contact With Gel-Derived Silica-Alumina Composite Powders527
  • Chapter 80. Preparation of P+Implanted Y203-Al203-Si02 Glass for Radiotherapy of Cancer531
  • Chapter 81. New Ferromagnetic Bone Cement for Local Hyperthermia535
  • PART 13: BIOCERAMICS PROCESSING539
  • Chapter 82. Adsorption of L-Lysine onto Silica Glass: A Synergistic Approach Combining Molecular Mod541
  • Chapter 83. Effects of Divalent Cations on Calcium Phosphates Precipitation on a Langmuir-Blodgette545
  • Chapter 84. Effect of Processing on the Characteristics of a 20 Vol.% Al2O3 Platelet- Reinforced Hyd549
  • Chapter 85. Mechanical Evaluation of Phosphate Biodegradable Glasses by Means of Indentation Methods553
  • Chapter 86. Silicon in Connective Tissue: Semi-Empirical Molecular Orbital Models557
  • Chapter 87. The Effect of Heat Treatment on Bone Bonding Ability of Alkali-Treated Titanium561
  • Chapter 88. Thermal Processing of Compact Bovine Bone565
  • PART 14: EVALUATIONS METHODS AND NEW APPLICATIONS569
  • Chapter 89. Characterization of Synthetic and Biological Calcium Phosphate Materials by Micro-Raman571
  • Chapter 90. Biological Evaluation of Glass Reinforced Hydroxyapatite by Flow Cytometry575
  • Chapter 91. Evaluation of Macrophage Response to Ceramic Particles by Flow Cytometry: Analysis of Ph579
  • Chapter 92. Study of Porous Interconnections of Bioceramic on Cellular Rehabitation In Vitro and In583
  • Chapter 93. Repair of Osteochondral Defect Using Artificial Articular Cartilage587
  • Chapter 94. Calcium Phosphate Ceramics as Controlled Release Systems for FGF-2591
  • Chapter 95. C-SRC Oncogene mRNA Expression in Porous Hydroxyapatite Ceramics595
  • Author Index599
  • Keyword Index607
Book details
  • Vendor Elsevier S & T
  • SKU 9780080426921
  • ISBN-13 9780080548357
  • Author Sedel, L.; Rey, C.
  • Category Medical
  • Subject Plastic & Cosmetic

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Bioceramics 10 contains the proceedings of the 10th International Symposium on Ceramics in Medicine, held in Paris, France, in October 1997. These annual symposia bring together distinguished researchers in the fields of ceramics and medicine to exchange ideas and to discuss recent research results.

Bioceramics in medicine has become one of the more important fields of biomaterials. The clinical applications of bioceramics are numerous. In particular in areas such as orthopaedic surgery, dentistry and plastic surgery, but also E.N.T., percutaneous devices and embolisation materials. In addition to the many clinical applications, Bioceramics 10 deals with a range of fundamental subjects in depth.

This book will be an essential reference tool for both clinicians, academics and industrial researchers interested in the use of ceramics in medicine. The book will also be of great value to students and lecturers in materials science, biomedical engineering and orthopaedics. This volume contains 140 papers, more than 200 high quality photographs, and both author and keyword indexes.