Non-Centrifugal Cane Sugar is a Potential Functional Food?
Jader Rodríguez Cortina1 and María Hernández Carrión2*
1 Tibaitatá Research Center, Colombian Agricultural Research Corporation-Agrosavia, Colombia
2 Faculty of Engineering, Product and Process Design Group, Universidad de los Andes, Colombia
Submission: February 27, 2021; Published: March 16, 2021
*Corresponding author: María Hernández Carrión, Faculty of Engineering, Product and Process Design Group, Universidad de los Andes, Bogotá, Colombia
How to cite this article: Jader R C, María H C. Non-Centrifugal Cane Sugar is a Potential Functional Food?. Nutri Food Sci Int J. 2021. 10(4): 555793. DOI: 10.19080/NFSIJ.2021.10.555794.
Abstract
Non-centrifugal sugar (NCS) is a traditional sweetener consumed worldwide. Previous investigations have reported that NCS is an important source of nutritional and bioactive compounds. The results show that NCS is of great scientific and nutritional and technological interest due to its potential beneficial effects on health. However, better characterization is required to recognize NCS as a functional food.
Keywords:Sugar cane; Antioxidants compounds; Functional food; Amino acids; Complex sugars
Introduction
Nutraceuticals and functional foods have broad potential for preventing the mechanisms of viral infection and modulating immune responses [1], for this reason, in the last decade this topic has been widely studied. Non-centrifugal sugar (NCS) is a traditional sweetener consumed worldwide Flórez-Martínez et al. [2] that contains abundant amounts of sucrose and potentially relevant components like phenolic compounds, amino acids, complex sugars and other compounds that make it different from refined sugar [3]. Interest in the constituents of sugarcane and its products has been rekindled by the recognition that sugarcane juice and some of its products, particularly un-refined sugars, less-refined sugars, and molasses, have antioxidant capacities. Previous authors have reported that NCS is an important source of nutritional and bioactive components [4-8]. The aim of this review to provide a comprehensive overview of beneficial reports of NCS properties from antioxidants compounds and other potentially relevant components.
Methodology
Relevant studies published in scientific journals were analyzed. The search was done in the Scopus database using a structural equation with keywords. Keywords related to minerals, vitamins, antioxidants, and other potentially relevant components and their effect on health were used in this search.
Health Effects of NCS
NCS can be considered as a potential bioactive product. The cane plant itself supplies primarily low molecular weight plant pigments (flavonoids, chlorophylls, carotenes, xanthophylls and phenolic compounds [5]. Previous research [8-11] have demonstrated the antioxidant activity of NCS. Furthermore, Asikin et al. [9] reported policosanol content in NCS, which may have beneficial effects on human health. Different in vitro studies have reported the effect of the antioxidant activity of NCS. Harish Nayaka et al. [7] showed that NCS has a 97% protection against the oxidation of NIH 373 cells. Salazar et al. [12], demonstrated the neuroprotective and antioxidant effects of NCS. Cuellar et al. [13] studied the potential regenerative effects of NCS in a 2D Skin wound Model. In addition, the effect on diseases such as the decrease in the proliferation of tumor cells in leukemia, stomach, lung, colon, and bladder cancer has been demonstrated [14]. An antitoxic and cytoprotective effect has also been demonstrated. Of the studies reviewed, only two articles report the beneficial effects of NCS in human trials [14]. Jaffe [14] showcased the state-of-the-art research reporting the health benefits associated with NCS consumption. The reported benefits include immunological effects, as well as cytoprotective, antitoxic and anticariogenic effects. Also, he found that NCS has the ability to scavenge free radicals, reduce iron complex, and inhibit lipid peroxidation.
Conclusion and Future Prospect
NCS is of great scientific, nutritional and technological interest due to its potential beneficial effects on health, but a better characterization is required. In addition, this antioxidant and healthy product could have a more relevant position as a key nutritional component in a wide variety of foods. In this way, the recognition of NCS as a promising functional food would be promoted, and it would be hoped that research efforts would be increased to extend its use.
References
- Haslberger GA, Jacob U, Hippe B, Karlic H (2020) Mechanisms of selected functional foods against viral infections with a view on COVID-19: Mini review. Functional Foods in Health and Disease 10(5): 195-209.
- Florez Martinez DH, Contreras Pedraza CA, Rodriguez J (2021) A systematic analysis of non-centrifugal sugar cane processing: Research and new trends. Trends in Food Science & Technology 107: 415-428.
- Velásquez F, Espitia, J, Mendieta O, Escobar S, Rodríguez J (2019) Non-centrifugal cane sugar processing: A review on recent advances and the influence of process variables on qualities attributes of final products. Journal of Food Engineering 255: 32-40.
- Barrera C, Betoret, N, Seguí L (2020) Phenolic Profile of Cane Sugar Derivatives Exhibiting Antioxidant and Antibacterial Properties. Sugar Tech 22: 798-811.
- Jaffé WR (2015) Nutritional and functional components of non centrifugal cane sugar: A compilation of the data from the analytical literature. Journal of Food Composition and Analysis 43: 194-202.
- Duarte AJM, Vidal NA, Fallarero A, Lajolo FJ, Genovese MI (2006) Antioxidant Activity of Phenolics Compounds From Sugar Cane (Saccharum officinarum L.) Juice. Plant Foods for Human Nutrition 61(4): 187-192.
- Nayaka MAH, Sathisha UV, Manohar MP, Chandrashekar KB, Dharmesh SM (2009) Cytoprotective and antioxidant activity studies of jaggery sugar. Food Chemistry 115(1): 113-118.
- Seguí L, Calabuig L, Betoret N, Fito P (2015) Physicochemical and antioxidant properties of non-refined sugarcane alternatives to White sugar. International Journal of Food Science and Technology 50(12): 2579-2588.
- Asikin Y, Hirose N, Tamaki H, Ito S, Oku H, et al. (2016) Effects of different drying-solidification processes on physical properties, volatile fraction, and antioxidant activity of non-centrifugal cane brown sugar. LWT-Food Science and Technology 66: 340-347.
- Weerawatanakorn A, Asikin Y, Takahashi M, Tamaki H, Wada K, et al. (2016) Physico-chemical properties, wax composition, aroma profiles, and antioxidant activity of granulated non-centrifugal sugars from sugarcane cultivars of Thailand. J Food Sci Technol 53(11): 4084-4092.
- Meerod K, Weerawatanakorn M, Pansak W (2018) Impact of sugarcane juice clarification on physicochemical properties, some nutraceuticals and antioxidant activities of non-centrifugal sugar. Sugar Technol 21: 471-480.
- Salazar V, Castellanos C, Cuellar M, Cifuentes JF, Rodriguez J, Muñoz CC, Cruz JC (2020) Demonstrated Neuroprotective and Antioxidant Effects of Sugarcane Derivatives: In Vitro Rotenone-Induced Oxidative Stress on Neuroblastoma Cells (SH-SY5Y). Virtual AIChE Annual Meeting.
- Cuellar M, Julian JA, Rodriguez J, Escobar S, Cruz JC, et al. (2020) Biocompatibility and Potential Regenerative Effects of Sugarcane Derivatives in a 2D Skin Wound Model. Virtual AIChE Annual Meeting
- Jaffé WR (2012) Health Effects of Non-Centrifugal Sugar (NCS): A Review. Sugar Tech 14(2): 87-94.