Electrochemical reactions during ohmic heating and moderate electric field processing

Ohmic Heating in Food Processing

Volumn , Issue , 2014, Pages 119-127

  Samaranayake, Chaminda P ^a   Sastry, Sudhir K ^a  

^a OHIO STATE UNIVERSITY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

ELECTRIC FIELDS; ELECTROCHEMISTRY; HEAT GENERATION; HEATING;

ELECTROCHEMICAL REACTIONS; FIELD STRENGTHS; MODERATE ELECTRIC FIELD PROCESSING; TEMPERATURE-JUMP METHOD; UNIFORM HEATING;

THERMAL PROCESSING (FOODS);

EID: 84994250329     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1201/b16605     Document Type: Chapter

References (30)

1. Amatore, C., Berthou, M., and Hebert, S. 1998. Fundamental principles of electrochemical Ohmic heating of solutions. Journal of Electroanalytical Chemistry 457:191-203.
2. Assiry, A.M., Sastry, S.K., and Samaranayake, C.P. 2006. Influence of temperature, electrical conductivity, power and pH on ascorbic acid degradation kinetics during Ohmic heating using stainless steel electrodes. Bioelectrochemistry 68:7-13.
3. Assiry, A.M. 1996. Effect of Ohmic heating on the degradation kinetics of ascorbic acid. PhD thesis, the Ohio State University.
4. Assiry, A., Sastry, S.K., and Samaranayake, C. 2003. Degradation kinetics of ascorbic acid during Ohmic heating with stainless steel electrodes. Journal of Applied Electrochemistry 33(2):187-196.
5. Bently, R. and Prentice, T.R. 1957. The alternating current electrolysis of concentrated acids. Journal of Applied Chemistry 7(November), 619-626.
6. Bosch, R.W. and Bogaerts, W.F. 1998. A theoretical study of AC-induced corrosion considering diffusion phenomena. Corrosion Science 40(2/3):323-336.
7. Eigen, M. 1954. Methods for investigation of ionic reactions in aqueous solutions with half-times as short as 10-9 sec. Discussions of Faraday Society 17:194-205.
8. Getchell, B.E. 1935. Electric pasteurization of milk. Agricultural Engineering 16(10):408-410.
9. Hoeppner, J.W., Entz, M.H., McConkey, B., Zentner B. and Nagy, C. 2005. Energy use and efficiency in two Canadian organic and conventional crop production systems. Renewable Agric. and Food Systems. 19:1-8.
10. Jan, S., Sastry, S., and Samaranayake, C. 2007. Migration of electrode components during Ohmic heating of foods in retort pouches. Innovative Food Science & Emerging Technologies 8(2):237-243.
11. Konya, J. 1979. Notes on the “non-faraday” electrolysis of water. Journal of Electrochemical Society: Electrochemical Science and Technology 126(1):54-56.
12. Kulman, F.E. 1961. Effects of alternating currents in causing corrosion. Corrosion 17(3):34-35.
13. Lalvani, S.B. and Lin, X.A. 1994. A theoretical approach for predicting AC-induced corrosion. Corrosion Science 36(6):1039-1046.
14. Lalvani, S.B. and Lin, X.A. 1996. A revised model for predicting corrosion of materials induced by alternating voltages. Corrosion Science 38(10):1709-1719.
15. Mizrahi, S., Kopelman, I.J., and Perlman, J. 1975. Blanching by electroconductive heating. Journal of Food Technology 10:281-288.
16. Moses, B.D. 1938. Electric pasteurization of milk. Agriculture Engineering 19(12):525-526.
17. Palaniappan, S. and Sastry, S. 1991. Electrical conductivity of selected juices: Influences of temperature, solid content, applied voltage, and practical size. Journal of Food Process Engineering 14:247-260.
18. Reznick, D. 1996. Ohmic heating of fluid foods. Journal of Food Technology 5:250-251.
19. Rubinstein, I. 1995. Physical electrochemistry: Principles, methods, and applications. Rubinstein I. (Ed.), Chapter 1 Fundamentals of Physical Electrochemistry, Marcel Dekker, Inc., New York, pp. 1-4.
20. Samaranayake, C.P. and Sastry, S.K. 2005. Electrode and pH effects on electrochemical reactions during Ohmic heating. Journal of Electroanaytical Chemistry 557:125-135.
21. Samaranayake, C.P., Sastry, S.K., and Zhang, Q.H. 2005. Pulsed Ohmic heating—A novel technique for minimization of electrochemical reactions during processing. Journal of Food Science 70:E460-E465.
22. Sawyer, D.T. 2003. Electrochemical transformations of metals, metal compounds, and metal complexes: Invariably (ligand/solvent)-centered. Journal of Molecular Catalysis A: Chemical 194:53-67.
23. Schafer, H.J. 2001. Organic Electrochemistry (Fourth edition). Lund H. and Hammerich O. (Ed.), Chapter 4: Comparison between electrochemical reactions and chemical oxidations and reductions, Marcel Dekker, Inc., New York, pp. 207-221.
24. Shaw, M. and Remick, A.E. 1950. Studies on alternating current electrolysis. Journal of Electrochemical Society 97(10):324-334.
25. Stirling, R. 1987. Ohmic heating—A new process for the food industry. Power Engineering Journal 1(6):365-371.
26. Tzedakis, T., Basseguy, R., and Comtat, M. 1999. Voltammetric and coulometric techniques to estimate the electrochemical reaction rate during Ohmic sterilization. Journal of Applied Electrochemistry 29(7):821-828.
27. Uemura, K., Noguchi, A., Park, S.J., and Kim, D.U. 1994. Ohmic heating of food materials—Effect of frequency on the heating rate of fish protein. Developments in Food Engineering—Proceedings of the 6th International Congress on Engineering and Food, Blackie Academic & Professional Press, London, pp. 310-312.
28. Venkatachalam, S. and Mehendale, S.G. 1981. Electrodissolution and corrosion of metals by alternating currents. Journal of Electrochemical Society India 30(3):231-237.
29. Venkatesh, S. and Chin, D. 1979. The alternating current electrode processes. Israel Journal of Chemistry 18:56-64.
30. Wu, H., Kolbe, E., Flugstad, B., Park, J.W., and Yongsawatdigul, J. 1998. Electrical properties of fish mince during multi-frequency Ohmic heating. Journal of Food Science 63(6):1028-1032.