J A Szivek
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Explore the profile of J A Szivek including associated specialties, affiliations and a list of published articles.
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Articles
38
Citations
159
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Recent Articles
1.
Tellis B, Szivek J, Bliss C, Margolis D, Vaidyanathan R, Calvert P
Mater Sci Eng C Mater Biol Appl
. 2011 Apr;
28(1):171-178.
PMID: 21461176
Free form fabrication and high resolution imaging techniques enable the creation of biomimetic tissue engineering scaffolds. A 3D CAD model of canine trabecular bone was produced via micro CT and...
2.
Szivek J, Margolis D, Schnepp A, Grana W, Williams S
J Biomed Mater Res A
. 2007 Jan;
81(4):939-47.
PMID: 17252549
To develop implantable, engineered, cartilage constructs supported by a scaffold, techniques to encourage rapid tissue growth into, and on the scaffold are essential. Preliminary studies indicated that human endothelial cells...
3.
Bliss C, Szivek J, Tellis B, Margolis D, Schnepp A, Ruth J
J Biomed Mater Res B Appl Biomater
. 2006 Aug;
81(1):30-9.
PMID: 16941586
Treatment of cartilage defects is essential to the prevention of osteoarthritis. Scaffold-based cartilage tissue engineering shows promise as a viable technique to treat focal defects. Added functionality can be achieved...
4.
Szivek J, Bliss C, Geffre C, Margolis D, DeYoung D, Ruth J, et al.
J Biomed Mater Res B Appl Biomater
. 2006 Apr;
79(2):218-28.
PMID: 16637034
No technique has been consistently successful in the repair of large focal defects in cartilage, particularly in older patients. Tissue-engineered cartilage grown on synthetic scaffolds with appropriate mechanical properties will...
5.
Szivek J, Margolis D, Garrison B, Nelson E, Vaidyanathan R, DeYoung D
J Biomed Mater Res B Appl Biomater
. 2005 Feb;
73(1):43-53.
PMID: 15682399
Porous polybutylene terephthalate (PBT) scaffold systems were tested as orthopedic implants to determine whether these scaffolds could be used to detect strain transfer following bone growth into the scaffold. Three...
6.
Rabkin B, Szivek J, Schonfeld J, Halloran B
J Biomed Mater Res
. 2001 Apr;
58(3):277-81.
PMID: 11319741
Despite the importance of strain in regulating bone metabolism, knowledge of strains induced in bone in vivo during normal activities is limited to short-term studies. Biodegeneration of the bond between...
7.
Cordaro N, Szivek J, DeYoung D
J Biomed Mater Res
. 2001 Apr;
56(1):109-19.
PMID: 11309797
Calcium phosphate ceramic (CPC)-coated strain gauges have been used for in vivo bone strain measurements for up to 18 weeks, but they require 6 to 9 weeks for sufficient bonding....
8.
Cordaro N, Weiss J, Szivek J
J Biomed Mater Res
. 2001 Mar;
58(2):147-55.
PMID: 11241333
The finite element method was used to simulate strain transfer from bone to a calcium phosphate ceramic (CPC) coated strain gauge. The model was constructed using gross morphometric and histological...
9.
Szivek J, Benjamin J, Anderson P
Med Eng Phys
. 2000 Jun;
22(2):109-16.
PMID: 10854964
Experimental models that have been used to evaluate hip loading and the effect of hip implants on bone often use only a head load and abductor load. Anatomic considerations and...
10.
Szivek J, Battraw A, Persselin S, Anderson P
J Biomed Mater Res
. 2000 May;
53(3):211-5.
PMID: 10813759
Calcium phosphate ceramic (CPC) coated strain gauges have been used to measure bone strain in animal models for up to 16 weeks and are being developed to collect measurements in...