Study on the nutritional and chemical composition of "Ogiri" condiment made from sandbox seed (Hura crepitans) as affected by fermentation time
DOI:
https://doi.org/10.30574/gscbps.2020.11.2.0115Keywords:
Sandbox seed, Ogiri condiment, Fermented condiment, Steroid, TerpenoidAbstract
This study investigated the effects of fermentation time on the proximate composition, steroid, terpenoid, pH, and titratable acidity of fermented condiment made from sandbox seed (Hura crepitans). Samples of dehulled sandbox seeds wrapped in blanched plantain leaves, cooked for 9 hours and fermented for 4 days were analyzed at different fermentation time. Unfermented sandbox seeds (SAA) had the highest level of proximate (moisture 41.9%; carbohydrate 2.88%; fibre 2.37%; ash 1.8%; protein 19.0%; and lipid 32.05%). Sample SAE (day4) showed the lowest values for all the proximate (moisture 48.35%; carbohydrate 0.26%; fibre 0.28%; ash 2.5%; protein 15.31%; lipid 31.0%). SAE had the highest titratable acidity (TTA) content. Fermentation resulted to a significant decrease in total carbohydrate, protein and crude fibre, including a significant increase in moisture of the produced condiment. There is an insignificant decrease in total lipid, ash and pH as affected by the fermentation time. High availability of terpenoids was observed all through the fermentation period, while low steroid only appeared on the SAE (day 4) sample. The result of the research proved the potential use of sandbox (Hura crepitans) seeds in the production of Ogiri condiment.
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References
Ojinnaka MC and Ojimelukwe PC. (2012). Effect of fermentation period on the organic acid and amino acid contents of Ogiri from Ricunus communis. Journal of Food Technology, 10, 140-150.
Dimejesi SA and Odibo FJC. (2017). Determination of heavy metals, Aflatoxin and Amino Acid Profile of fermented seeds of Telfairia occidentalis. Proceedings of the 41st Nigeria Insitute of Food Science and Technology (NIFST) Conference and Annual Genral Meeting at Abuja, 251-252.
Achi OK. (2005). Traditional fermented protein condiments in Nigeria: Review. African Journal of Biotechnology, 4(13), 1612-1621.
Ogueke CC, Okoli AI, Owuamanam CI and Nwosu JN. (2013). Fermentation of melon seeds for “Ogiriegusi” as affected by fermentation variables using Bacillus subtilis. Malaysian Journal of Microbiology, 9(4), 79 – 288.
Burkill HM. (1994). The useful plants of west tropical Africa, 2, 84-85.
Olatidoye OP, Adeleke AE, Adegbite SA and Sobowale SS. (2010). Chemical composition and nutritional evaluation of sandbox (Hura crepitans) seed flour for domestic consumption and industrial utilization in Nigeria. Journal of Medical Applied Biosciences, 2, 72-83.
Okolie PN, Uaboi-Egbenni PO and Ajekwene AE. (2012). Extraction and quality evaluation of sandbox tree seed (Hura crepitans) oil. World journal of agricultural science, 8(4), 359-365.
Mohammed B, Gabel M and Karlsson LM. (2013). Nutritive values of the drought tolerant food and fodder crop enset. Afr. J. Agric. Sci., 8(20), 2326-2333.
Omafuvbe BO, Shonukan OO and Abiose SH. (2000). Microbiological and biochemical changes in the traditional fermentation of soybean for soy dawa-dawa Nigerian food condiment. Food Microbiology, 17, 469- 474.
Odunfa SA. (1981). Microorganisms associated with fermentation of African locust bean (Parkia filicoidea) during “iru” preparation, J. Plant Foods, 3(4), 245-250.
Mensah PPA, Tomkins AM, Draser BS and Harrison TJ. (1990). Fermentation of cereals for reduction of bacterial contamination of weaning foods in Ghana. The Lancet, 336, 140-143.
Ojinnaka MC, Ojimelukwe PC and Ezeama CF. (2013). Microbial and enzymatic changes associated with the production of ogiri from castor oil bean using Bacillus subtilis as starter culture. Sky Journal of Food Science, 2(2), 10-18.
Omafuvbe BO, Olumuyiwa SF, Bolanke AO and Steve RS. (2004). Chemical changes in Africa locust beans (Parkia biglobosa) and melon (Citrullus vulgaris) seeds during fermentation to condiment. Pakistan journal of nutrition, 3(3), 140-145.
Khalid EK, Babiker EE and El Tinay A.H. (2003). Solubility and functional properties of fermented sesame seed protein as influenced by pH and salt concentrate. Food chemistry, 82(3), 361-366.
Onweluzo JC and Nwabugwu CC. (2009). Fermentation of Millet (Pennisetum americanum) and Pigeon Pea (Cajanus cajan) Seeds for Flour Production: Effects on Composition and Selected Functional Properties. Pakistan Journal of Nutrition, 8, 737-744.
Swaine MD and Beer T. (1977). Explosive seed dispersal in Hura crepitan L. (Euphorbiaceae). New Phytologist, 78(3), 695-708.
Oyeleke GO, Olayiwola OA and Latona DF. (2012). Chemical Examination of Sandbox (HuraCrepitans) Seed: Proximate, Elemental and Fatty Acid Profile. IOSR Journal of Applied Chemistry, 1(2), 10-1.
AOAC. (1990). Association of Official Analytical Chemists. 15thEdition, AOAC. Inc. Arlington, V.A.U.S.A, 1945-1962.
James SC. (1996). Experimental Methods. In: Analytical Chemistry of Foods, Champman & Hall, New York, 28.
Bainbridge Tk and Westby k. (1996). Method of assessing quality characteristics of non-grained starch Staples. Natural resource institute chattamU, 3.
Ige MM, Gbadamosi SO and Solana OI. (2019). Proximate composition and functional properties of sandbox seeds as influenced by processing methods. Ife Journal of Science, 21(1), 129 – 144.
Auta J and Anwa EP. (2007). Preliminary studies on Albizia lebbeck seeds: proximate analysis and phytochemical screening. Research Journal of Biological Sciences, 2, 33-35.
Idowu DO and Abegunrin PT. (2014). A study of some hydro-thermal properties of sandbox (Hura crepitans) seed. Agricultural engineering international:CIGR journal, 16(4), 225-260.
Hannington T, Awuchi CG and Mihigo R. (2020). Comparative Study of the Proximate Composition and Functional Properties of Composite Flours of Amaranth, Rice, Millet, and Soybean. American Journal of Food Science and Nutrition, 6(1), 6-19.
Awuchi CG. (2019b). Proximate Composition and Functional Properties of Different Grain Flour Composites for Industrial Applications. International Journal of Food Sciences, 2(1), 43 - 64.
Achinewhu SC and MO Isichei. (1990).The nutritional evaluation of fermented fluted pumpkin seeds (Telferia occidentalis Hook). Discovery and Innovation, 2, 62-65.
Babalola AO and Giwa OE. (2012). Effect of fermentation on nutritional and anti-nutritional properties of fermenting Soy beans and the antagonistic effect of the fermenting organism on selected pathogens. International Research Journal of Microbiology (IRJM) (ISSN: 2141-5463) 3(10), 333-338.
Osborn HT and Akoh CC. (2003). Effects of natural antioxidants on iron-catalyzed lipid oxidation of structured lipid-based emulsions. J Amer Oil Chem.’Soc 80, 847–852.
Ajani OO, Owoeye FT, Owolabi FE, Akinlabu DK and Audu OY. (2019). Phytochemical screening and nutraceutical potential of sandbox tree (Hura crepitans L.) seed oil. Foods and Raw Materials, 7(1), 143–150.
Awuchi CG. (2019a). Medicinal Plants: the Medical, Food, and Nutritional Biochemistry and Uses. International Journal of Advanced Academic Research, 5 (11), 220 – 241.
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