Back to Search
Start Over
Evaluation of the clinical performance of ultrahigh molecular weight polyethylene fiber cable using a dog osteosynthesis model
- Source :
- Bio-Medical Materials and Engineering. 23:329-338
- Publication Year :
- 2013
- Publisher :
- IOS Press, 2013.
-
Abstract
- The purpose of this study was to assess the removability and biological reactivity of an ultrahigh molecular weight polyethylene (UHMWPE) fiber cable as a new biomaterial for osteosynthesis. We used a pull-out test and an implantation test to analyze the performance of the UHMWPE fiber cable using a dog model, and compared its characteristics with those of a wire cable and a soft wire. In the pull-out test, the UHMWPE fiber cable was as easy to remove as the soft wire, and both the UHMWPE fiber cable and the soft wire were significantly easier to remove than the wire cable. The fixation capability and the biological reactivity of the UHMWPE fiber cable were examined in an osteosynthesis model of the dog greater trochanter, and were compared with those of the soft wire. The bone union rate, assessed radiographically, was very similar when using the UHMWPE fiber cable and the soft wire. However, in the soft wire group, both the surface of the greater trochanter under the fixation material and the penetration area around the fixation material showed an increased tendency toward a biological reaction, including inflammation and granulation tissue formation, as compared to the UHMWPE fiber cable group. The UHMWPE fiber cable was as easily removed from the bone tissue as the soft wire, and was easier to remove than the wire cable. Additionally, the UHMWPE fiber cable caused reduced biological reactivity with the surrounding tissue, as compared with the soft wire. In conclusion, the UHMWPE fiber cable appeared to be a suitable fixation material for osteosynthesis.
- Subjects :
- Materials science
Biological reaction
Biomedical Engineering
Prosthesis Design
Bone tissue
law.invention
Biomaterials
Fracture Fixation, Internal
Dogs
law
Elastic Modulus
Tensile Strength
medicine
Animals
Humans
Composite material
Device Removal
Fracture Healing
Optical fiber cable
Osteosynthesis
Bone union
Clinical performance
Biomaterial
General Medicine
Equipment Failure Analysis
Radiography
Disease Models, Animal
Ultrahigh molecular weight polyethylene
medicine.anatomical_structure
Female
Stress, Mechanical
Polyethylenes
Femoral Fractures
Bone Wires
Subjects
Details
- ISSN :
- 09592989
- Volume :
- 23
- Database :
- OpenAIRE
- Journal :
- Bio-Medical Materials and Engineering
- Accession number :
- edsair.doi.dedup.....11f26f6caeeee97397e4ffbf0e60b413
- Full Text :
- https://doi.org/10.3233/bme-130757