Temperature redistribution modelling during intermittent microwave convective heating

Procedia Engineering

Volumn 90, Issue , 2014, Pages 544-549

  Kumar, Chandan ^a   Joardder, M U H ^a,b   Karim, Azharul ^a   Millar, Graeme J ^a   Amin, Zakaria ^a  

^a QUEENSLAND UNIVERSITY OF TECHNOLOGY   (Australia)

^b RAJSHAHI UNIVERSITY OF ENGINEERING AND TECHNOLOGY   (Bangladesh)

Author keywords

Convective; Drying; Intermittent microwave convective heating; Microwave; Modelling; Temperature redistribution

Indexed keywords

DRYING; FINITE ELEMENT METHOD; INFRARED IMAGING; MASS TRANSFER; MICROWAVE HEATING; MICROWAVES; MODELS;

CONVECTIVE; CONVECTIVE HEATING; HEAT AND MASS TRANSFER MODELS; IMPACT OF NON-UNIFORMITIES; INTERMITTENT HEATING; INTERMITTENT MICROWAVE HEATING; THERMAL IMAGING CAMERAS; VOLUMETRIC HEATING;

HEATING;

EID: 84923289471     PISSN: None     EISSN: 18777058     Source Type: Conference Proceeding    
DOI: 10.1016/j.proeng.2014.11.770     Document Type: Conference Paper

References (16)

1. Vadivambal, R. and D. Jayas, Non-uniform Temperature Distribution During Microwave Heating of Food Materials-A Review. Food and Bioprocess Technology, 2010. 3(2): p. 161-171.
2. Pitchai, K., et al., Coupled electromagnetic and heat transfer model for microwave heating in domestic ovens. Journal of Food Engineering, 2012. 112(1-2): p. 100-111.
3. Gunasekaran, S. and H.-W. Yang, Effect of experimental parameters on temperature distribution during continuous and pulsed microwave heating. Journal of Food Engineering, 2007. 78(4): p. 1452-1456.
4. Kumar, C., M.A. Karim, and M.U.H. Joardder, Intermittent drying of food products: A critical review. Journal of Food Engineering, 2014. 121(0): p. 48-57.
5. Kumar, C., et al. Modeling Heat and Mass Transfer Process during Convection Drying of Fruit. in The 4th International Conference on Computational Methods. 2012. Gold Coast, Australia.
6. Perussello, C.A., et al., Heat and mass transfer modeling of the osmo-convective drying of yacon roots (Smallanthus sonchifolius). Applied Thermal Engineering, 2014. 63(1): p. 23-32.
7. Arballo, J.R., L.A. Campanone, and R.H. Mascheroni, Modeling of Microwave Drying of Fruits. Part II: Effect of Osmotic Pretreatment on the Microwave Dehydration Process. Drying Technology, 2012. 30(4): p. 404-415.
8. Mihoubi, D. and A. Bellagi, Drying-Induced Stresses during Convective and Combined Microwave and Convective Drying of Saturated Porous Media. Drying Technology, 2009. 27(7-8): p. 851-856.
9. Chandrasekaran, S., S. Ramanathan, and T. Basak, Microwave material processing-a review. AIChE Journal, 2012. 58(2): p. 330-363.
10. Malafronte, L., et al., Combined convective and microwave assisted drying: Experiments and modeling. Journal of Food Engineering, 2012. 112(4): p. 304-312.
11. Rakesh, V. and A.K. Datta, Microwave puffing: Determination of optimal conditions using a coupled multiphase porous media - Large deformation model. Journal of Food Engineering, 2011. 107(2): p. 152- 163.
12. F. Marra, M.V. De Bonis, and G. Ruocco, Combined microwaves and convection heating: A conjugate approach. Journal of Food Engineering, 2010. 97(1): p. 31-39.
13. V. Rakesh, et al., Microwave combination heating: Coupled electro magnetics- multiphase porous media modeling and MRI experimentation. AIChE Journal, 2012. 58(4): p. 1262-1278.
14. C. Kumar, et al. Multi physics modelling of convective drying of food materials. in Proceedings of the Global Engineering, Science and Technology Conference. 2012. Global Institute of Science and Technology.
15. O. Sipahioglu, and S.A. Barringer, Dielectric Properties of Vegetables and Fruits as a Function of Temperature, Ash, and Moisture Content. Journal of Food Science, 2003. 68(1): p. 234-239.
16. H. Feng, J. Tang, and R.P. Cavalieri, Dielectric properties of dehydrated apples as affected by moisture and temperature. T. ASAE, 2002. 45: p. 129-135.