Optimization of pretreatment for prevention of enzymatic browning of fresh-cut lotus root slices

Prevention of browning of fresh-cut lotus root slices

Authors

  • REENA KUMARI Department of Post-Harvest Process and Food Engineering, GBPUAT, Pantnagar -263145
  • P K OMRE Professor & Head, Department of Post-Harvest Process and Food Engineering, GBPUAT, Pantnagar -263145
  • SACHIN KUMAR Assistant Professor, Department of Post-Harvest Process and Food Engineering, GBPUAT, Pantnagar -263145
  • MANVIKA SAHGAL Department of Microbiology, GBPUAT, Pantnagar -263145
  • ANIL KUMAR Department of Food Science and Technology, GBPUAT, Pantnagar -263145
  • AMIT KUMAR PhD Scholar, Division of Agricultural Engineering, ICAR-IARI, New Delhi-110012

DOI:

https://doi.org/10.21921/jas.v8i04.7751

Keywords:

Browning index, Enzymatic Browning, Lotus root slices, Optimization, Pretreatment

Abstract

The experiments were carried out optimized the chemical concentration as pre-treatments prior to drying of fresh-cut lotus root slices. The lotus root slices were pretreated by chemicals with Potassium metabisulphite (0.1, 0.2, and 0.3 % (w/v)), sodium bicarbonate (2, 4, and 6 % (w/v)), and ascorbic acid (0.5, 1 and 1.5 % (w/v)). The quality parameters of lotus root slices were taken as color parameters such as lightness (L*), redness (a*), and  (b*) along with the browning index. The best treatment was decided based on the browning index. The experimental results indicated that the color parameters of fresh-cut lotus root slices and chemicals deteriorate over the time span of 0h to 5h. Besides that, chemically treated samples were improved over the fresh-cut lotus root slices. The lightness (L*), redness (a*), and yellowness (b*) of 0.30% potassium metabisulphite samples varies from 136 to 116, 1.17 to 248, and 2.87 to 5.34 for a period of time 0h to 5h, respectively. Which is the lowest as compared to all other samples. The browning index pre-treated samples was much lower than samples without treatment. The browning index increased with elapsed time and highly increase in untreated (fresh-cut lotus root slices) samples than pre-treated samples (chemicals treated). The optimized browning index was minimum (1.498 to 4.963) for 0.3 % KMS as compared to 5.337 to 16.02 and 2.73 to 9.227 for 6 % (w/v) sodium bicarbonate and 1.5 % (w/v) ascorbic acid solutions, respectively.

Author Biographies

REENA KUMARI, Department of Post-Harvest Process and Food Engineering, GBPUAT, Pantnagar -263145

Department of Post-Harvest Process and Food Engineering

P K OMRE, Professor & Head, Department of Post-Harvest Process and Food Engineering, GBPUAT, Pantnagar -263145

Professor & Head, Department of Post-Harvest Process and Food Engineering

SACHIN KUMAR, Assistant Professor, Department of Post-Harvest Process and Food Engineering, GBPUAT, Pantnagar -263145

Assistant Professor, Department of Post-Harvest Process and Food Engineering

MANVIKA SAHGAL, Department of Microbiology, GBPUAT, Pantnagar -263145

Department of Microbiology

ANIL KUMAR, Department of Food Science and Technology, GBPUAT, Pantnagar -263145

Department of Food Science and Technology

AMIT KUMAR, PhD Scholar, Division of Agricultural Engineering, ICAR-IARI, New Delhi-110012

PhD Scholar, Division of Agricultural Engineering

References

Adams JB. 1978. The inactivation and regeneration of peroxidase in relation to the high temperature-short time processing of vegetables. International Journal of Food Science & Technology 13(4): 281-297.

Araujo PW and Brereton RG. 1966. Experimental design III. Quantification. TrAC Trends in Analytical Chemistry 15(3), 156-163.

Arslan O and Dogan S. 2005. Inhibition of polyphenol oxidase obtained from various sources by 2, 3‐diaminopropionic acid. Journal of the Science of Food and Agriculture 85(9), 1499-1504.

Carroad PA, Swartz JB and Bomben JL. 1980. Yields and solids loss in water and steam blanching, water and air cooling, freezing and cooking of broccoli spears. Journal of Food Science 45(5): 1408-1410.

Chiang PY and Luo YY. 2007. Effects of pressurized cooking on the relationship between the chemical compositions and texture changes of lotus root (Nelumbonu cifera Gaertn.). Food chemistry, 105(2), 480-484.

Deng G, Lin X, Xu X, Gao L, Xie J and Li H. 2013. Antioxidant capacities and total phenolic contents of 56 vegetables. Journal of Functional Foods 5(1): 260–266.

Du JH, Fu YC and Wang NY. 2009. Effects of aqueous chlorine dioxide treatment on browning of fresh-cut lotus root. LWT–Food Science and Technology 42: 654-659

Guo HB. 2009. Cultivation of Lotus (Nelum bonucifera Gaertn. ssp. nucifera) and its utilization in China. Genetic resources of Crop Evolution 56(3): 323–330.

Gupta MK, Sehgal VK and Arora S. 2013. Optimization of drying process parameters for cauliflower drying. Journal of Food Science and Technology 50(1): 62-69.

Hu J, Yang L, Wu W, Li Y and Zhan L. 2014. Slicing increases antioxidant capacity of fresh‐cut lotus root slices by accumulating total phenols. International journal of food science & technology 49(11): 2418-2424.

Huang B, He J, Ban X, Zeng H. Yao X and Wang Y. 2011. Antioxidant activity of bovine and porcine meat treated with extracts from edible lotus (Nelumbo nucifera) rhizome knot and leaf. Meat Science 87: 46–53

Jiang J, Jiang L, Luo H and Yu Z. Establishment of a statistical model for browning of fresh-cut lotus root during storage. Postharvest biology and technology 92: 164-171

Krokida MK, Karathanos VT and Maroulis ZB. 2000. Effect of osmotic dehydration on visco-elastic properties of apple and banana. Drying Technology 18(4-5):951-966

Odland D and Eheart MS. 1975. Ascalrbic acid, mineral and quality retention in frozen broccoli blanched in water, steam alndarrunonia stream, J. Food Sci 40:1004- 1007

Ogle M, Dao HTA, Mulokozi G and Leif HB. 2001. Micronutrient composition and nutritional importance of gathered vegetables in Vietnam. International Journal of Food Sciences and Nutrition 52(6): 485-499.

Sheikh SA. 2014. Ethno-medicinal uses and pharmacological activities of lotus (Nelumbo nucifera). Journal of Medicinal Plants Studies 2(6): 42-46.

Son J, Hyun JE, Lee JW, Lee SY and Moon BK. 2015. Combined application of ant browning, heat treatment and modified-atmosphere packaging to extend the shelf life of fresh-cut lotus root. Journal of Food Science 80: 1178-1187.

Spyridon P, Abdul MS, Kamdem RE and Yam K. 2000. A versatile and inexpensive technique for measuring colour of foods. Food Technology 54(12): 48-51.

Su XG, Jiang YM, Li YB and Lin WB. 2003. Effects of 4-hexylresorcinol (4-HRluo) on browning and quality of fresh-cut lotus. Food Science 24: 142-145.

Sun Y, Zhang W, Zeng T, Nie Q, Zhang F and Zhu L. 2015. Hydrogen sulphide inhibits enzymatic browning of fresh-cut lotus root slices by regulating phenolic metabolism. Food Chem 177: 376–381.

Toivonen PMA and Brummell DA. 2008. Biochemical bases of appearance and texture changes in fresh-cut fruit and vegetables. Postharvest Biology and Technology 48(1): 1-14.

Voirol F. 1980. The blanching of vegetables and hits. A study of the literature and some practical applications. Roche Information Service.

Xing Y, Li X, Xu Q, Jiang Y, Yun J and Li W. 2010. Effects of chitosan-based coating and modified atmosphere packaging (MAP) on browning and shelf life of fresh-cut lotus root (Nelum bonucifera Gaerth). Innovative food science & emerging technologies 11(4): 684-689.

Xu XC, Lin CP and Zhu DH. 2008. Selection of browning inhibitor for fresh-cut lotus roots. Food Ind 2: 51-53.

Yu ZF, Zhao YX, Li N, Xia ZH and Peng GX. 2002. Identification of enzymatic browning substrates in fresh-cut lotus roots. Food Sci. 23(4): 41-44.

Zhang L, Li S, Wang A, Li J and Zong W. 2017. Mild heat treatment inhibits the browning of fresh-cut Agaricus bisporus during cold storage. LWT-Food Science and Technology 82:104-112.

Zhang SY, Yu YW, Xiao CL, Wang XD and Tian YY. 2014. Effect of carbon monoxide on browning of fresh-cut lotus root slice in relation to phenolic metabolism. LWT–Food Science and Technology 53(2): 555-559.

Downloads

Published

2021-12-30