Please use this identifier to cite or link to this item: http://hdl.handle.net/11717/11804
Title: Numerical simulations on efficient microwave processing of thermoplastics with ceramic composites
Authors: Basak, T.
Durairaj, S.
Keywords: Ceramic composites
Ceramic-polymer composites
High thermal
Intermediate layers
Microwave processing
Numerical simulation
Nylon 66
Processing rates
Processing Time
Spatial distribution
Thermal runaways
Uniform heating
Aluminum
Ceramic materials
Computer simulation
Dielectric losses
Heating
Microwaves
Polyamides
Rayon
Reinforced plastics
Silicon carbide
Polyethylene terephthalates
Issue Date: 2010
Citation: Numerical Heat Transfer; Part A: Applications, 57(8), 554-579
Abstract: A theoretical analysis has been carried out to study efficient heating of one-dimensional thermoplastic (Nylon 66 and PET) slabs via polymer-ceramic- polymer composite. Detailed spatial distributions of power and temperature are illustrated for specific cases. Uniform heating with an enhanced processing rate may be obtained for a thick Nylon sample with specific thickness of the Al 2O3 composite, whereas the SiC composite leads to an enhanced processing rate with higher thermal runaway. For the thin Nylon sample, the SiC composite is effective due to an enhanced processing rate whereas Al2O3 is not effective due to a reduced processing rate. It is also found that thin thermoplastics with less dielectric loss (PET) may be efficiently processed using microwave with SiC as an intermediate layer, whereas Al2O3 leads to uniform heating with high processing time. On the other hand, for thick PET samples both Al 2O3 and SiC composites are not effective due to very high processing times as well as high thermal runaway. � 2010 Taylor & Francis Group, LLC.
URI: http://dx.doi.org/10.1080/10407781003684530
http://hdl.handle.net/11717/11804
ISSN: 10407782
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