Many current bone cements have proprietary minor ingredients that affect the chemical kinetics and heat transfer modeling of the exothermic reaction during bone cement polymerization. In addition, the geometry and the method of cooling/curing the bone cement can vary by application. A method for modeling energy generation, based on temperature measurement of various geometries and conditions, expresses the exothermic reaction and the duration with respect to time. Reaction from the bone cement can yield temperatures above 110°C for the air convective cooling boundary condition. Experiments show that by using cold irrigation cooling (saline) with an initial temperature of 1.5°C, the maximum reaction temperature of the PMMA cement approaches 40°C depending upon the thickness of the cement. For bone cement cooled in air and saline at room temperature, the exothermic reaction begins around 400 seconds (8 min) after the compounds are mixed. When cold saline is applied, the time-delay of the reaction is approximately 300 additional seconds compared to the two room temperature cases. Finally, based on compression testing, the structural behavior of the PMMA cement is improved when the material is cured in a slower and wet environment.
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ASME 2003 Heat Transfer Summer Conference
July 21–23, 2003
Las Vegas, Nevada, USA
Conference Sponsors:
- Heat Transfer Division
ISBN:
0-7918-3694-0
PROCEEDINGS PAPER
Thermal Curing and Strength of PMMA Bone Cement
M. A. Sanchez,
M. A. Sanchez
University of Oklahoma, Norman, OK
Search for other works by this author on:
J. Tompkins, II
J. Tompkins, II
University of Oklahoma, Norman, OK
Search for other works by this author on:
M. A. Sanchez
University of Oklahoma, Norman, OK
W. Sutton
University of Oklahoma, Norman, OK
W. Rizk
University of Oklahoma, Norman, OK
J. Tompkins, II
University of Oklahoma, Norman, OK
Paper No:
HT2003-47067, pp. 743-755; 13 pages
Published Online:
December 17, 2008
Citation
Sanchez, MA, Sutton, W, Rizk, W, & Tompkins, J, II. "Thermal Curing and Strength of PMMA Bone Cement." Proceedings of the ASME 2003 Heat Transfer Summer Conference. Heat Transfer: Volume 2. Las Vegas, Nevada, USA. July 21–23, 2003. pp. 743-755. ASME. https://doi.org/10.1115/HT2003-47067
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