Process Sequence Development for Automated Progressive Freeze Concentration System

Authors

  • Nor Zanariah Safiei Faculty of Chemical Engineering, Universiti Teknologi Malaysia, 81310 UTM Johor Bahru, Johor, Malaysia
  • Mazura Jusoh Faculty of Chemical Engineering, Universiti Teknologi Malaysia, 81310 UTM Johor Bahru, Johor, Malaysia

DOI:

https://doi.org/10.11113/jt.v69.3147

Keywords:

Freeze concentration, progressive freeze concentration, solution concentration process, industrial application, control and process sequence

Abstract

Nowadays there is a growing interest on Progressive Freeze Concentration (PFC) in solution concentration process due to its several significant advantages. The PFC process is proven to be able to be applied successfully in industrial application. PFC often exhibits a dynamic character and involves complex behavior and process. Even a slight change in the operating condition can cause unstable process behavior and lead to low performance of the system. Due to these reasons, the objective of this paper is to develop a sequence for conducting PFC process. In order to develop the process sequence, it has been divided into four major steps which are feeding process, crystallization process, Product 1 collection and Product 2 collection.  This system offers improved overall performance in conducting experiments as well as increased efficiency of the separation process. 

References

Nakagawa, K., S. Maebashi, and K. Maeda. 2010. Freeze-Thawing As a

Path to Concentrate Aqueous Solution. Sep. Purif. Technol. 73: 403–408.

Deshpande, S. S., H.R. Bolin, and D. K Salunke. 1982. Freeze Concentration of Fruit Juice. Food Technol. 39: 68–82.

Petzold, G., K. Niranjan, and J. M. Aguiler. 2013. Vacuum-Assisted Freeze Concentration of Sucrose Solutions. J. Food Eng. 115: 357–361.

Rolf, H. 1980. Concentration of Impurities by Progressive Freezing. Water Res. 14: 575–580.

Glen, J. W. 1974.The Physics of Ice. CRREL Monogr.

Morison, K. R., and R.W. Hartel. 2006. Evaporation and Freeze Concentration. Handbook of Food Engineering. 496–550.

Liu, L., O.Miyawaki, and K. Nakamura. 1997. Progressive Freeze- Concentration of Model Liquid Food. Food Sci. Technol. Int. 3: 348–352.

Habib, B., and M. Farid. 2007. Freeze Concentration of Milk and Saline Solutions in a Liquid–Solid Fluidized Bed: Part I. Experimental. Chem. Eng. Process: Process Intensification. 46: 1400–1411.

Nakagawa, K., S. Maebashi, and K. Maeda. 2010. Freeze Thawing As a Path to Concentrate Aqueous Solution. Sep. Purif. Technol.73: 403–408.

Sánchez, J., Y. Ruiz, J. M. Auleda, E. Hernández, and M. Raventós. 2009. Review: Freeze Concentration in the Fruit Juices Industry. Food Sci. Technol. Int. 15: 303–315.

Aider, M., and D. de Halleux. 2009. Cryoconcentration Technology in the Bio-Food Industry: Principles and Applications. Food Sci. Technol. 42: 679–685.

Matthews, J. S., and N. D. Coggeshall 1959. Concentration of Impurities from Organic Compounds by Progressive Freezing. Anal. Chem. 31: 1124–1125.

Sánchez, J., E. Hernández, J. M. Auleda, and M. Raventós. 2011. Freeze Concentration of Whey in a Falling-Film Based Pilot Plant: Process and Characterization. J. Food Eng. 103: 147–155.

Miyawaki, O., L. Liu, and K. Nakamura. 2011. Effective Partition Constant of Solute between Ice and Liquid Phases in Progressive Freeze Concentration. J. Food Sci. 63: 1–3.

Chen, P., D. C. Xiao, and K. W. Free. 1998. Solute Inclusion in Ice Formed From Sucrose Solutions on Aa Sub-Cooled Surface: An Experimental Study. J. Food Eng. 38: 1–13.

Shirai, Y., M. Wakisaka, O. Miyawaki, and S. Sakashita. 1998. Conditions of Producing an Ice Layer With High Purity for Freeze Wastewater Treatment. J. Food Eng. 38: 297–308.

Rodriguez, M., S. Luque, J. R. Alvarez, and J. Coca. 2000. A Comparative Study of Reverse Osmosis and Freeze Concentration for the Removal of Valeric Acid from Wastewaters. Desalination. 127: 1–11.

Lorain, O., P. Thiebaud, E. Badorc, and Y. Aurelle. 2001. Potential of Freezing in Wastewater Treatment: Soluble Pollutant Applications. Water Res. 35: 541–547.

Wakisaka, M., Y. Shirai, and S. Sakashita. 2001. Ice Crystallization in a Pilot-Scale Freeze Wastewater Treatment System. Chem. Eng. Process: Process Intensification. 40: 201–208.

Ramos, F. A., J. L. Delgado, E. Bautista, A. L. Morales, and C. Duque. 2005. Changes in Volatiles with the Application of Progressive Freeze-Concentration to Andes Berry (Rubus Glaucus Benth). J. Food Eng. 69: 291–297.

Miyawaki, O., L. Liu, Y. Shirai, S. Sakashita, and K. Kagitani. 2005. Tubular Ice System for Scale-Up of Progressive Freeze- Concentration. J. Food Eng. 69: 107–113.

Raventós, M., E. Hernández, J. Auleda, and A. Ibarz. 2007. Concentration of Aqueous Sugar Solutions in a Multi-Plate Cryoconcentrator. J. Food Eng. 79: 577–585.

Rich, A., Y. Mandri, D. Mangin, A. Rivoire, S. Abderafi, and C. Bebon. 2012. Sea Water Desalination by Dynamic Layer Melt Crystallization: Parametric Study of the Freezing and Sweating Steps. J. Cryst. Growth. 342: 110–116.

Auleda, J. M., M. Raventós, and E. Hernández. 2011. Calculation Method for Designing a Multi-Plate Freeze-Concentrator for Concentration of Fruit Juices. J. Food Eng. 107: 27–35.

Englezos, P. 1992. The Freeze Concentration Process and Its Applications. University of British Columbia, Vancouver, British, Columbia.

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Published

2014-06-20

How to Cite

Process Sequence Development for Automated Progressive Freeze Concentration System. (2014). Jurnal Teknologi, 69(3). https://doi.org/10.11113/jt.v69.3147