Effect of High Pressure Processing on enzymatic activity for strawberries, sour cherries and red grapes

  • Andres Felipe Moreno Barreto ,
  • Giuseppe Vignali, 
  • Luca Sandei 
  • a,c  Stazione Sperimentale per l’Industria delle Conserve Alimentare (SSICA), Viale F.Tanara 31/A, Parma, 43121 Parma, Italy
  • University of Parma, Parco Area delle Scienze, 181/A, Parma, 43124, Italy
Cite as
Barreto A.F.M., Vignali G., Sandei L. (2021). Effect of High Pressure Processing on enzymatic activity for strawberries, sour cherries and red grapes. Proceedings of the 7th International Food Operations and Processing Simulation Workshop (FoodOPS 2021), pp. 23-28. DOI: https://doi.org/10.46354/i3m.2021.foodops.004
 Download PDF

Abstract

Color degradation is an important factor that affect the quality and acceptability of fruit juices and purees; several enzymes, as well as the microbial endogenous population are not only responsible for this phenomenon but for changes in flavor and texture. Traditional stabilization methods have been used to preserve these kind of products; however, there is a negative impact on vitamins and bioactive compounds composition. High Pressure Processing (HPP) is a non-thermal alternative that has been applied for the extension of shelf life of fresh products, reducing the adverse effects of classical treatments. The aim of this review is to provide a scientific base on the effect of HPP technology in terms of enzymatic inactivation (peroxidase, polyphenol oxidase, ascorbate oxidase and β-glucosidase) in comparison with a conventional pasteurization process in strawberries, sour cherries and red grapes, and to propose an optimization strategy for the operational parameters to achieve the greatest inactivation

References

  1. Achir, N., Vitrac, O., and Trystram, G. (2008). Sim ulation and ability to control the surface thermal history and reactions during deep fat frying. Chem ical Engineering and Processing: Process Intensification, 47(11):1953–1967. 
  2. Aguilera, J. M. and Gloria-Hernandez, H. (2000). Oil Absorption During Frying of Frozen Parfried Potatoes. Journal of Food Science, 65(3):476–479. 
  3. Andrés, A., Arguelles, A., Castelló, M. L., and Heredia, A. (2013). Mass Transfer and Volume Changes in French Fries During Air Frying. Food and Bioprocess Technology, 6(8):1917–1924. 
  4. Białobrzewski, I. (2007). Determination of the mass transfer coefficient during hot-air-drying of celery root. Journal of Food Engineering, 78(4):1388–1396. 
    Bonazzi, C. and Bimbenet, J.-J. (2003). Séchage des produits alimentaires - principes
  5. Bouchon, P. and Aguilera, J. M. (2001). Microstructural analysis of frying potatoes. International Journal of Food Science and Technology, 36(6):669–676. 
  6. Bouchon, P. and Pyle, D. (2005). Modelling oil absorp tion during post-frying cooling. Food and Bioproducts Processing, 83(4):253–260. 
  7. Costa, R. M. and Oliveira, F. A. R. (1999). Modelling the kinetics of water loss during potato frying with a compartmental dynamic model. Journal of Food Engineering, 41(3):177–185. 
  8. Courtois, F., Trystram, G., Lemaire, R., and Wack, A.-L. (1998). Modelling of deep fat frying of banana using a compartmental approach and boiling’s theory. In Drying ’98.
  9. Dhalsamant, K., Tripathy, P. P., and Shrivastava, S. L. (2017). Moisture transfer modeling during solar dry ing of potato cylinders considering shrinkage. Inter national Journal of Green Energy, 14(2):184–195. 
  10. Farid, M. and Kizilel, R. (2009). A new approach to the analysis of heat and mass transfer in drying and frying of food products. Chemical Engineering and Processing: Process Intensification, 48(1):217–223. 
  11. Farid, M. M. and Chen, X. D. (1998). The analysis of heat and mass transfer during frying of food using a moving boundary solution procedure. Heat and Mass Transfer, 34(1):69–77. 
  12. Farkas, B. E., Singh, R. P., and Rumsey, T. R. (1996). Modeling heat and mass transfer in immersion fry ing. II, model solution and verification. Journal of Food Engineering, 29(2):227–248. 
  13. Flick, D., Doursat, C., Grenier, D., and Lucas, T. (2015). 5 - modelling of baking processes. In Bakalis, S., Knoerzer, K., and Fryer, P. J., editors, Modeling Food Processing Operations, Woodhead Publishing Series in Food Science, Technology and Nutrition, pages 129– 161. Woodhead Publishing. 
  14. Garayo, J. and Moreira, R. (2002). Vacuum frying of potato chips. Journal of Food Engineering, 55(2):181– 191. 
  15. Gouyo, T., Goujot, D., Bohuon, P., and Courtois, F. (2021a). Multi-compartment model for heat and mass transfer during the frying of frozen pre-fried french fries. Journal of Food Engineering, 305:110587. 
  16. Gouyo, T., Rondet, E., Mestres, C., Hofleitner, C., and Bohuon, P. (2021b). Microstructure analysis of crust during deep-fat or hot-air frying to under stand French fry texture. Journal of Food Engineering, 298:110484. 
  17. Gupta, P., Shivhare, U. S., and Bawa, A. S. (2000). Stud ies on frying kinetics and quality of french fries. 18(1):311–321. 
  18. Heredia, A., Castelló, M. L., Argüelles, A., and Andrés, A. (2014). Evolution of mechanical and optical prop erties of French fries obtained by hot air-frying. LWT - Food Science and Technology, 57(2):755–760. 
  19. Krokida, M. K., Oreopoulou, V., Maroulis, Z. B., and Marinos-Kouris, D. (2001). Deep fat frying of potato strips—quality issues. 19(5):879–935. 
  20. Lalam, S., Sandhu, J. S., Takhar, P. S., Thompson, L. D., and Alvarado, C. (2013). Experimental study on trans port mechanisms during deep fat frying of chicken nuggets. LWT - Food Science and Technology, 50(1):110– 119. 
  21. Lioumbas, J. S. and Karapantsios, T. D. (2012). Effect of Potato Orientation on Evaporation Front Propaga tion and Crust Thickness Evolution during Deep-Fat Frying. Journal of Food Science, 77(10):E297–E305. 
  22. Loncin, M. and Merson, R. L. (1979). Food engineering, principles and selected applications. Academic Press, New York. 
  23. Miketinac, M., Sokhansanj, S., and Tutek, Z. (1992). Determination of heat and mass transfer coefficients in thin layer drying of grain. Transactions of the Amer ican Society of Agricultural Engineers, 35(6):1853–1858. 
  24. Murray, F. W. (1967). On the computation of satura tion vapor pressure. Journal of Applied Meteorology, 6(1):203–204. 
  25. Ni, H. and Datta, A. (1999). Moisture, oil and energy transport during deep-fat frying of food materials. Food and Bioproducts Processing, 77(3):194–204. 
  26. Patsioura, A., Vauvre, J.-M., Kesteloot, R., Smith, P., Trystram, G., and Vitrac, O. (2016). Chapter 17 - Mechanisms of Oil Uptake in French Fries. In Singh, J. and Kaur, L., editors, Advances in Potato Chemistry 
    and Technology (Second Edition), pages 503–526. Aca demic Press, San Diego
  27. Pedreschi, F. and Aguilera, J. M. (2002). Some changes in potato chips during frying observed by confocal laser scanning microscopy (CLSM). Food Science and Technology International, 8(4):197–201. 
  28. Sablani, S. S., Marcotte, M., Baik, O. D., and Castaigne, F. (1998). Modeling of simultaneous heat and water transport in the baking process. 31(3):201–209. 
  29. Sansano, M., Juan-Borrás, M., Escriche, I., Andrés, A., and Heredia, A. (2015). Effect of Pretreatments and Air-Frying, a Novel Technology, on Acrylamide Generation in Fried Potatoes. Journal of Food Science, 80(5):T1120–T1128. 
  30. Teruel, M. R., Gordon, M., Linares, M. B., Garrido, M. D., Ahromrit, A., and Niranjan, K. (2015). A com parative study of the characteristics of french fries produced by deep fat frying and air frying. Journal of Food Science, 80(2):E349–E358. 
  31. Tian, J., Chen, S., Shi, J., Chen, J., Liu, D., Cai, Y., Ogawa, Y., and Ye, X. (2017). Microstructure and digestibility of potato strips produced by conven tional frying and air-frying: An in vitro study. Food Structure, 14:30–35. 
  32. Touffet, M., Trystram, G., and Vitrac, O. (2020). Revisit ing the mechanisms of oil uptake during deep-frying. Food and Bioproducts Processing, 123:14 – 30. 
  33. van Koerten, K. N., Somsen, D., Boom, R. M., and Schutyser, M. A. I. (2017). Modelling water evapo ration during frying with an evaporation dependent heat transfer coefficient. Journal of Food Engineering, 197:60–67. 
  34. Vauvre, J.-M., Kesteloot, R., Patsioura, A., and Vitrac, O. (2014). Microscopic oil uptake mechanisms in fried products. European Journal of Lipid Science and Technology, 116(6):741–755. 
  35. Vitrac, O., Dufour, D., Trystram, G., and Raoult-Wack, A.-L. (2002). Characterization of heat and mass transfer during deep-fat frying and its effect on cassava chip quality. Journal of Food Engineering, 
  36. Vries, U. d., Sluimer, P., Bloksma, A. H., and Centraal Instituut voor Voedingsonderzoek TNO (1988). A quantitative model for heat transport in dough and crumb during baking. Series Number: 600. 
  37. Xiong, X., Narsimhan, G., and Okos, M. R. (1992). Effect of composition and pore structure on binding energy and effective diffusivity of moisture in porous food. Journal of Food Engineering, 15(3):187–208. 
  38. Yamsaengsung, R. and Moreira, R. G. (2002). Modeling the transport phenomena and structural changes during deep fat frying: Part I: model development. Journal of Food Engineering, 53(1):1–10. 
  39. Zanoni, B., Pierucci, S., and Peri, C. (1994). Study of the bread baking process — II. mathematical modelling. 23(3):321–336. 
  40. Ziaiifar, A. M. (2008). Mécanisme d’imprégnation en huile au cours de friture. thesis, Paris, AgroParisTech.