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Tribological Performance of Artificial Joints
Amir Kamali and J. Philippe Kretzer
2019
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Joint replacement is a very successful medical treatment. However, the survivorship of the implants could be adversely affected due to the loss of materials in the form of particles or ions as the bearing surfaces articulate against earch other. The consequent tissue and immune response to the wear products, remain one of the key factors of their failure. Tribology has been defined as the science and technology of interacting surfaces in relative motion and all related wear products (e.g., particles, ions, etc.). Over the last few decades, in an attempt to understand and improve joint replacement technology, the tribological performance of several material combinations have been studied experimentally and assessed clinically. In addition, research has focused on the biological effects and long term consequences of wear products. Improvements have been made in manufacturing processes, precision engineering capabilities, device designs and materials properties in order to minimize wear and friction and maximize component longevity in vivo.
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Keywords
- abrasion
- alginate
- alternative bearings
- arthroplasty
- biolubricant
- Biomaterials
- biomechanical testing/analysis
- biotribology
- coating
- cobalt
- contact angle
- cross-linked polyethylene
- crosslink density
- crosslinked polyethylene
- degenerative disc disease
- failure
- FEA
- fillers
- finite element analysis
- gamma irradiation
- gellan gum
- highly crosslinked UHMWPE
- hip implants
- hip joint simulator
- hip prosthesis
- histomorphological characterization
- implant
- Implants
- in vitro macrophages response
- ion treatment
- joint simulators
- Knee
- knee replacement
- lubrication
- Mechanical properties
- metal-on-metal
- multiwall carbon nanotubes
- orthopedic
- osteolysis
- oxidized zirconium
- patello-femoral joint
- pin-on-plate
- polyethylene wear
- Surface engineering
- Surfaces
- synovial fluid
- synovial lining
- systematic review
- titanium niobium nitride
- TKA
- total disc replacement
- UHMWPE
- ultra high molecular weight polyethylene
- ultra-high molecular weight polyethylene
- unicompartmental arthroplasty
- validated model
- wear
- wear analysis/testing
- wear debris
- wear debris cytotoxicity
- wear resistance
- wear simulation
- wear testing
Links
DOI: 10.3390/books978-3-03921-079-4Editions
