Addresses the important issues and factors influencing the component cement and bone cement interface that contribute to durability of fixation
Examines and evaluates combinations of materials to determine the most durable and the most cost-effective
Written by experts in the field using the results of their extensive work and research on hip interfaces
This book incorporates the experience of numerous experts who explore contemporary opinion of how best to rationalise and optimise the interfaces at total hip replacement to provide the most favourable and durable results. The survival of a total hip replacement depends principally on the enduring integrity of the fixation interfaces and of the articular interface. The design of the stem and the material properties of cement largely determine the state of the component-cement inter face, while the bone-cement interface is significantly influenced by both mechanical and biological factors. The surface finish and shape of cementless implants are designed to preserve the integrity of biological fixation (osseo-integration) at the bone-component interface. Once again, both mechanical and biological factors have to be considered, while bioactive coatings accelerate bone ongrowth. Metal-on-polyethylene is the most widely used articular interface. However, it has been suggested that wear of polyethylene is one of the major factors contributing to failure of total hip replacements. The increasing prevalence of total hip replacement in younger patients has stimulated the investigation of alternative, more durable couples -including ceramic-polyethylene, ceramic-ceramic and metal-on-metal. Modularity provides greater intra-operative flexibility, but each new modular interface introduces new mechanisms of failure. These need to be anticipated and appropriate measures taken to avoid them. Hopefully this book will provide a better understanding of the factors that contribute to stable interfaces and long-term survival of total hip arthroplasty.
Section I Component-Cement-Interface.- 1 Titanium Femoral Component Fixation and Experience with a Cemented Titanium Prosthesis.- 2 The Time-dependent Properties of Polymethylmethacrylate Bone Cement: the Interaction of Shape of Femoral Stems, Surface Finish and Bone Cement.- 3 Femoral Stem Design and Cement Mantle Stress.- Section II Cement-Bone Interface.- 4 Histological Analysis of the Interface.- 5 Mechanical Analysis of the Interface.- Section III Modular Interface.- 6 Clinical Implications of Component Modularity in Total Hip Replacement.- Section IV Component-Bone Interface.- 7 Component Bone Interface in Cementless Hip Arthroplasty.- 8 Importance of Prosthesis Design and Surface Structure for the Primary and Secondary Stability of Uncemented Hip Joint Prostheses.- Section V Articular Interface.- 9 Polyethylene as a Bearing Surface.- 10 The Metal/Polyethylene Interface.- 11 Metal on Metal Articulation in Total Hip Replacement.- 12 Alumina on Polyethylene Bearings.- 13 Ceramic on Ceramic Bearing Surfaces.- Section VI Infected Interface.- 14 Periprosthetic Infection — Bacteria and the Interface Between Prosthesis and Bone.
This book incorporates the experience of numerous experts who explore contemporary opinion of how best to rationalise and optimise the interfaces at total hip replacement to provide the most favourable and durable results. The survival of a total hip replacement depends principally on the enduring integrity of the fixation interfaces and of the articular interface. The design of the stem and the material properties of cement largely determine the state of the component-cement inter face, while the bone-cement interface is significantly influenced by both mechanical and biological factors. The surface finish and shape of cementless implants are designed to preserve the integrity of biological fixation (osseo-integration) at the bone-component interface. Once again, both mechanical and biological factors have to be considered, while bioactive coatings accelerate bone ongrowth. Metal-on-polyethylene is the most widely used articular interface. However, it has been suggested that wear of polyethylene is one of the major factors contributing to failure of total hip replacements. The increasing prevalence of total hip replacement in younger patients has stimulated the investigation of alternative, more durable couples -including ceramic-polyethylene, ceramic-ceramic and metal-on-metal. Modularity provides greater intra-operative flexibility, but each new modular interface introduces new mechanisms of failure. These need to be anticipated and appropriate measures taken to avoid them. Hopefully this book will provide a better understanding of the factors that contribute to stable interfaces and long-term survival of total hip arthroplasty.
Section I Component-Cement-Interface.- 1 Titanium Femoral Component Fixation and Experience with a Cemented Titanium Prosthesis.- 2 The Time-dependent Properties of Polymethylmethacrylate Bone Cement: the Interaction of Shape of Femoral Stems, Surface Finish and Bone Cement.- 3 Femoral Stem Design and Cement Mantle Stress.- Section II Cement-Bone Interface.- 4 Histological Analysis of the Interface.- 5 Mechanical Analysis of the Interface.- Section III Modular Interface.- 6 Clinical Implications of Component Modularity in Total Hip Replacement.- Section IV Component-Bone Interface.- 7 Component Bone Interface in Cementless Hip Arthroplasty.- 8 Importance of Prosthesis Design and Surface Structure for the Primary and Secondary Stability of Uncemented Hip Joint Prostheses.- Section V Articular Interface.- 9 Polyethylene as a Bearing Surface.- 10 The Metal/Polyethylene Interface.- 11 Metal on Metal Articulation in Total Hip Replacement.- 12 Alumina on Polyethylene Bearings.- 13 Ceramic on Ceramic Bearing Surfaces.- Section VI Infected Interface.- 14 Periprosthetic Infection - Bacteria and the Interface Between Prosthesis and Bone.
Inhaltsverzeichnis
Section I Component-Cement-Interface.- 1 Titanium Femoral Component Fixation and Experience with a Cemented Titanium Prosthesis.- 2 The Time-dependent Properties of Polymethylmethacrylate Bone Cement: the Interaction of Shape of Femoral Stems, Surface Finish and Bone Cement.- 3 Femoral Stem Design and Cement Mantle Stress.- Section II Cement-Bone Interface.- 4 Histological Analysis of the Interface.- 5 Mechanical Analysis of the Interface.- Section III Modular Interface.- 6 Clinical Implications of Component Modularity in Total Hip Replacement.- Section IV Component-Bone Interface.- 7 Component Bone Interface in Cementless Hip Arthroplasty.- 8 Importance of Prosthesis Design and Surface Structure for the Primary and Secondary Stability of Uncemented Hip Joint Prostheses.- Section V Articular Interface.- 9 Polyethylene as a Bearing Surface.- 10 The Metal/Polyethylene Interface.- 11 Metal on Metal Articulation in Total Hip Replacement.- 12 Alumina on Polyethylene Bearings.- 13 Ceramic on Ceramic Bearing Surfaces.- Section VI Infected Interface.- 14 Periprosthetic Infection - Bacteria and the Interface Between Prosthesis and Bone.
Klappentext
This book incorporates the experience of numerous experts who explore contemporary opinion of how best to rationalise and optimise the interfaces at total hip replacement to provide the most favourable and durable results. The survival of a total hip replacement depends principally on the enduring integrity of the fixation interfaces and of the articular interface. The design of the stem and the material properties of cement largely determine the state of the component-cement inter face, while the bone-cement interface is significantly influenced by both mechanical and biological factors. The surface finish and shape of cementless implants are designed to preserve the integrity of biological fixation (osseo-integration) at the bone-component interface. Once again, both mechanical and biological factors have to be considered, while bioactive coatings accelerate bone ongrowth. Metal-on-polyethylene is the most widely used articular interface. However, it has been suggested that wear of polyethylene is one of the major factors contributing to failure of total hip replacements. The increasing prevalence of total hip replacement in younger patients has stimulated the investigation of alternative, more durable couples -including ceramic-polyethylene, ceramic-ceramic and metal-on-metal. Modularity provides greater intra-operative flexibility, but each new modular interface introduces new mechanisms of failure. These need to be anticipated and appropriate measures taken to avoid them. Hopefully this book will provide a better understanding of the factors that contribute to stable interfaces and long-term survival of total hip arthroplasty.
Addresses the important issues and factors influencing the component cement and bone cement interface that contribute to durability of fixation
Examines and evaluates combinations of materials to determine the most durable and the most cost-effective
Written by experts in the field using the results of their extensive work and research on hip interfaces
