
Surface Engineered Surgical Tools And Medical Devices
by Jackson, Mark J.; Ahmed, WaqarRent Textbook
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Summary
Table of Contents
Foreword | p. v |
Preface | p. vii |
List of Authors | p. xv |
Nomenclature | p. xxi |
Atomic Scale Machining of Surfaces | p. 1 |
Introduction | p. 1 |
Theoretical Basis of Nanomachining | p. 3 |
Further Developments | p. 18 |
References | p. 18 |
Anodization: A Promising Nano-Modification Technique of Titanium-based Implants for Orthopedic Applications | p. 21 |
Introduction | p. 21 |
Anodization of Titanium | p. 23 |
Structure and Properties of Anodized Oxide Film | p. 34 |
Future Directions | p. 44 |
References | p. 45 |
Titanium Dioxide Coatings in Medical Device Applications | p. 49 |
Introduction | p. 49 |
References | p. 62 |
The Effect of Shape and Surface Modificationon the Corrosion of Biomedical Nitinol Alloy Wires Exposed to Saline Solution | p. 65 |
Introduction | p. 65 |
Experimental Methods | p. 66 |
Summary | p. 78 |
References | p. 80 |
Cardiovascular Interventionaland Implantable Devices | p. 83 |
Introduction | p. 83 |
Cardiovascular Interventional Tools | p. 83 |
Key Surface Properties for Cardiovascular Interventional Devices | p. 86 |
Cardiovascular Implantable Devices | p. 87 |
Electrical Implantable Devices | p. 88 |
Mechanical Implantables | p. 91 |
Important Surface Properties for Implantable Cardiovascular Devices | p. 94 |
References | p. 96 |
Surface Engineering Artificial Heart Valvesto Improve Quality of Life and Lifetimeusing Modified Diamond-like Coatings | p. 99 |
Introduction | p. 99 |
History of Mechanical Heart Valves | p. 100 |
Thrombosis | p. 107 |
Hemocompatibility | p. 109 |
Endothelium and Endothelial Cell Seeding | p. 112 |
Surface Engineering Artificial Heart Valves | p. 114 |
Summary | p. 133 |
References | p. 135 |
Diamond Surgical Tools | p. 141 |
Introduction | p. 141 |
Properties of Diamond | p. 143 |
History of Diamond | p. 143 |
CVD Diamond Technology | p. 149 |
CVD Diamond Processes | p. 150 |
Treatment of Substrate | p. 154 |
Modification of HFCVD Process | p. 159 |
Nucleation and Growth | p. 162 |
Deposition on 3-D Substrates | p. 171 |
Wear of Diamond | p. 180 |
Time-Modulated CVD Diamond | p. 188 |
Conclusions | p. 196 |
References | p. 196 |
Dental Tool Technology | p. 201 |
Introduction | p. 201 |
Burs and Abrasive Points | p. 203 |
Classification of Dental Burs | p. 207 |
Coding of Dental Tools | p. 207 |
Dental Devices | p. 212 |
Dental Laboratory Materials | p. 213 |
Dental Cutting Tools | p. 224 |
Health and Safety | p. 229 |
References | p. 231 |
Nanocrystalline Diamond: Deposition Routes and Clinical Applications | p. 241 |
Introduction | p. 241 |
Nanocrystalline Diamond | p. 243 |
Clinical Applications | p. 256 |
Summary | p. 264 |
References | p. 265 |
Environmental Engineering Controls and Monitoring in Medical Device Manufacturing | p. 273 |
Introduction | p. 273 |
Stressor Source, Properties, and Characteristics | p. 275 |
Sterilization | p. 275 |
Cleaning, Etching, and Surface Preparation | p. 284 |
Adhesive Applications | p. 294 |
Coating Applications | p. 295 |
Drilling, Grinding, Cutting, and Machining | p. 296 |
Welding and Soldering | p. 298 |
General Maintenance Activities | p. 299 |
Laboratory Research and Testing | p. 300 |
Environmental and Engineering Controls | p. 301 |
Substitution | p. 302 |
Process Controls | p. 302 |
Enclosure/Isolation | p. 303 |
Process Change or Elimination | p. 304 |
Ventilation Controls | p. 304 |
Personal Protective Equipment and Clothing | p. 312 |
Control Strategies in Device Manufacturing | p. 312 |
Monitoring | p. 314 |
Particle, Fumes, and Aerosol Monitoring | p. 315 |
Vapors and Gases | p. 321 |
Ionizing Radiation | p. 327 |
Non-Ionizing Radiation | p. 329 |
Noise and Heat Stress | p. 330 |
Microbial Environmental Monitoring | p. 331 |
Clean Room Monitoring Requirements | p. 334 |
Monitor Selection in Device Manufacturing | p. 335 |
Summary | p. 337 |
References | p. 337 |
Biomaterial-CeN-Tissue Interactions In Surface Engineered Carbon-Based Biomedical Implants and Devices | p. 341 |
Introduction | p. 341 |
Potential Biomedical Applications of DLC | p. 347 |
Definitions and General Aspects of Biocompatibility | p. 348 |
Blood | p. 350 |
Cell Culture/Seeding Peculiar to Each Cell | p. 356 |
Statistics and Counting of Cells | p. 359 |
Stereological Investigations | p. 360 |
Photo-Fluorescent Imaging of Cells/Tissues | p. 361 |
Biocompatibility and Hemo-compatibility Models | p. 363 |
Carbon-based Materials Interaction with Selected Proteins and Cells | p. 367 |
DLC Interactions with Fibroblasts In-Vitro | p. 368 |
Endothelial Pre-seeding on Biomaterials for Tissue Engineering | p. 400 |
Bio-Assays and Assessment of Intracellular Activities | p. 406 |
In-vivo Studies of Carbon-based Materials: Cell-Tissue Interactions In-situ | p. 417 |
On-going and Future Investigations | p. 426 |
References | p. 429 |
Applications of Carbon Nanotubes in Bio-Nanotechnology | p. 439 |
Introduction | p. 439 |
Bio-Nanomaterials | p. 440 |
Carbon Nanotubes | p. 441 |
Analysis | p. 464 |
Toxicity of Carbon Nanotubes | p. 468 |
Conclusions | p. 469 |
References | p. 469 |
Bonelike Graft for Regenerative Bone Applications | p. 477 |
Introduction | p. 477 |
Synthetic Bone Graft Material - Bonelike | p. 486 |
Summary | p. 509 |
References | p. 509 |
Machining Cancellous Bone Prior to Prosthetic Implantation | p. 513 |
Introduction | p. 513 |
Structure of Cancellous Bone | p. 514 |
Theory of Micromachining | p. 515 |
Initial Chip Curl Modeling | p. 518 |
Experimental | p. 524 |
Discussion | p. 529 |
Conclusions | p. 530 |
References | p. 531 |
Titanium and Titanium Alloy Applicationsin Medicine | p. 533 |
Metallurgical Aspects | p. 533 |
Principal Requirements of Medical Implants | p. 545 |
Shape Memory Alloys | p. 554 |
Conclusions | p. 568 |
References | p. 568 |
Subject Index | p. 577 |
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