Biomaterials' Mechanical PropertiesHelen E. Kambic, A. Toshimitsu Yokobori Contains 23 papers presented at the May 1992 symposium in Pittsburgh, PA. Covers issues in biomaterials science such as polyurethanes, metal components, novel plastics, coatings, bioresorbable materials, and testing methods. Discusses future directions in the field, such as the design and fabricatio |
Contents
Overview | 1 |
Fatigue Properties of Segmented Polyether Polyurethanes for Cardiovascular Applications | 9 |
High Strain Rate Testing and Structural Analysis of Pericardial Bioprosthetic Materials | 19 |
A New Method for InVitro Wear Assessment of Materials Used in Mechanical Heart Valves | 43 |
The Influence of an Autologous Jugular Vein Wrap | 53 |
The Effect of Tissue Adhesion Due to Encapsulation on Anastomosis Strength and a Comparative Study of Vascular Substitute | 65 |
Predicting the Life and Design Stresses of Medical Plastics Under Creep Conditions | 76 |
Mechanical Properties of Hard Tissue Adhesive Films | 87 |
Mechanical Testing for Fretting Corrosion of Modular Total Hip Tapers | 156 |
CelltoMaterials Interaction An Approach to Elucidate Biocompatibility of Biomaterials In Vitro | 167 |
Mechanical Evaluation of Soft Tissue and Ligament Implant Fixation Devices | 180 |
Characterization of Interfacial Bond Strength and Environmental Sensitivity | 192 |
The Use of SmallScale Flexure Test Specimens to Evaluate the Mechanical Properties of Polymer Composites for Biomaterials Applications | 212 |
A Numerical TimeFrequency Transform Technique for the Determination of the Complex Modulus of Composite and Polymeric Biomaterials from ... | 225 |
Fracture Behavior of PolyurethaneCalcium Chloride Blends | 245 |
Micromechanical Testing of Interfacial Bonding in Absorbable Composites | 256 |
Taguchi Experiment on Strength Correlation Between a Customer and Supplier of Porous Coatings | 96 |
Characterization and Quantification of Fretting Particulates Generated in CeramicMetal and MetalMetal Modular HeadTaper Systems | 111 |
Identification of the Dynamic Properties of Bone Using the SplitHopkinson PressureBar Technique | 127 |
Mechanical Properties of Immature Callus in Long Bones | 142 |
Evaluation of Mechanical Properties of Metallic Biomaterials | 148 |
Chemical Components and Mechanical Properties of Urinary Calculi | 267 |
Tests to Evaluate the Mechanical Properties of the Ureter | 275 |
Mechanical Properties and Modeling of the StressStrain Behavior of the Urinary Bladder In Vivo | 283 |
Changing Strategies for Biomaterials and Biotechnology | 293 |
Common terms and phrases
adhesive analysis anastomoses anastomosis strength applied ASTM International ASTM STP behavior bendbar Biomaterials Biomedical Materials Research bladder bond strength bone bovine calcium chloride cells chloride blend components composite condition corrosion crack length creep rupture crevice cycles deformation Delrin dynamic effect elastic endothelial Evaluation experimental extraction factors fatigue testing fiber film fixation force fracture frequency fretting grafts grips implant increased interfacial bond Journal of Biomedical Laplace transform load loss tangent measured mechanical heart valves mechanical properties mechanical test metal MFBs microdroplet modulus pericardium polymer polyurethane PTFE ratio saline sample shear stress shown in Fig simulated slippage Society for Testing solution specimen strain energy strain rate stress relaxation stress-strain curve surface suture Table taper technique temperature tensile strength test machine test methods Testing and Materials tissue titanium alloy UHMWPE ureter urinary calculi vascular substitute viscoelastic vitro vivo wear Yokobori