Amino acids of seeds of some acacia taxa as taxonomic marker

Paper Details

Research Paper 01/07/2021
Views (909)
current_issue_feature_image
publication_file

Amino acids of seeds of some acacia taxa as taxonomic marker

Eiman Mohammed Ali Mustafa, Hatil Hashim Alkamali, Ahlam Salih Eltahir, Magdah Abdelbasit Nory Salih
Int. J. Biosci. 19(1), 153-160, July 2021.
Copyright Statement: Copyright 2021; The Author(s).
License: CC BY-NC 4.0

Abstract

The aim of this study is to determine the composition of amino acids in eight Acacia seeds (A cacia mellifera, A. nilotica ssp, adansonia, A. nilotica ssp nilotica, A. oerfota, A. polycantha ssp. campylacantha, A. senegal var senegal, A. seyal var. seyal and A. sieberiana var sieberiana) of the Sudan and to add another marker in the taxonomy of these taxa. The study included a determination of amino acid composition using HPLC followed by pairing affinity between studied taxa based on distribution of free amino acids and fatty acids. The amino acid composition of seeds of the studied eight Acacia taxa indicated that glutamic acid is the most dominant in all Acacia taxa studied highest value appeared in Acacia seyal var. seyal (43.65mg/gm), and the lowest value in Acacia polyacantha ssp. camplacantha (32.62mg/gm). Whereas, methionine is the minor, in Acacia mellifera (1.25mg/gm), and the lowest value noted in Acacia nilotica ssp. nilotica (0.55 mg/gm). Highest degree of pairing affinity noted between Acacia oerfota and Acacia siebriana (89.91%) followed by Acacia nilotica ssp. adansonia and Acacia nilotica ssp. nilotica (71.37%) and between nilotica ssp. nilotica and Acacia seyal var seyal (70.91%), Acacia nilotica ssp. adansonia and Acacia seyal (70.54%) and between Acacia nilotica ssp. nilotica and Acacia siebriana (70.19%). Hence Acacia orefota and Acacia siebriana are the most closely related, also Acacia nilotica adansonia and Acacia nilotica seyal.

Adewusi SRA, Falade MS, Oyedapo BO, Rinaudo T, Harwood C. 2006. Traditional and Acacia colei Seed incorporated Diets in Maradi, Niger Republic. Nutrition and Health 18, 161-177.

Adewusi SRA, Falade OS, Harwood C. 2003. Chemical composition of Acacia colei and Acacia tumida seeds potential   food sources in the semi-arid tropics. Food Chemistry 80, 187-195.

Adewusi SRA, Falade OS, Nwoha PU, Caxton-Martins AE, Harwood C. 2006. Reproductive performance of Wistar rats fed Acacia colei seed-based diets. Journal of Arid Environments 66, 16-26.

Agboola S, Ee KY, Huhn A. 2012. Functional properties of processed Australian wattle (Acacia victoriae Bentham) seed extracts. Food Chemistry 133, 990-997.

AOAC. 1984. Official Method of Analysis 14th ed. Association. Agric. Chem. Washington D.C.

Ee KY, Rehman A, Agoola S, Zhao J. 2009. Influence of heat processing on functional properties of Australian wattle seed (Acacia victoria Bentham) extracts. Food Hydrocolloids 23, 116-124.

Ee KY, Yates P. 2013. Nutritional and anti – nutritional evaluation of raw and processed Australian wattle (Acacia saligna) seeds. Food Chemistry 138, 762-769.

Ee KY, Zhao J, Rehman A, Agboola S. 2008. Characterisation of trypsin and α-chymotrypsin inhibitors in Australian wattle seed (Acacia victoriae Bentham). Food Chemistry 107, 337-343.

Ee KY, Zhao J, Rehman A, Agboola S. 2008a. Characterisation of trypsin and α-chymotrypsin inhibitors in Australian wattle seed (Acacia victoria Bentham). Food Chemistry 107, 337-343.

Ee KY, Zhao J, Rehman A, Agboola S. 2011. Glycosylation, amino acid analysis and kinetic properties of a major Kunitz-type trypsin inhibitor from Acacia victoria Bentham seeds. Food Chemistry 129, 1224-1227.

Elamin HM. 1972. Taxonomic studies on Sudan Acacias. MSc thesis, Edinburgh University: UK.

Falade MS, Owoyomi O, Harwood C, Adewusi SRA. 2005. Chemical composition and starch hydrolysis of Acacia colei and Acacia tumida seeds. Cereal Chemistry 82, 479-484.

Falade OS, Adekunle AS, Aderogba MA, Atanda SO, Hardwood C, Adewusi S R. 2008. Physicochemical     properties, total phenol and tocopherol of some Acacia seed oils. Journal of the Science of Food and Agriculture 88, 263-268.

Falade OS, Adewusi SRA, Harwood C. 2012. S carboxymethyl cysteine (A constituent of Acacia seed) negatively affects casein protein utilization by rats. Nutrition 28, 785-792.

Harwood C, Rinaudo T, Adewusi S. 1999. Developing Australian Acacia seeds as a human food for the Sahel. Unasylva 50.

Kinnari J, Shelat OQ, Adiamo SM, Olarte M, Heather E, Smyth UT, Sarah H, Broder, Volker SieberYasmina Sultanbawa R. 2019. Overall Nutritional and Sensory Profile of Different Species of Australian Wattle Seeds (Acacia spp.): Potential Food Sources in the Arid and Semi-Arid Regions. Foods. 2019 Oct 8(10), 482.

Sokal, Sneath. 1963. Principles of Numerical Taxonomy, San Francisco: W.H. Freeman.

Youzbachi N, ELfalleh W, Tlili N, Gregoire S, Berdeaux O, Salles C, Triki S, Khouja ML, Khaldi A, Nasri N. 2012. Unexploited Acacia cyanophylla seeds: potential food sources of ω6 fatty acids and antioxidants. Journal of the Science of Food and Agriculture 92, 1526-1532.

Related Articles

Perceptions, effectiveness, and credibility of artificial intelligence in healthcare among medical students and interns: A cross-sectional study

Shabeer Khan, Shafee Ur Rehman*, Naile Aleyna Dede, Mishal Tahir, Romana Hussain, Int. J. Biosci. 28(4), 8-16, April 2026.

A review on ethnomedicinal uses, phytochemical profile and pharmacological properties of Tetrastigma leucostaphylum (Dennst.) Alston ex Mabb.

P. P. Stephy, Prasobh K. Mohan, Anas Bin Firoz, S. Soosai Raj*, Int. J. Biosci. 28(4), 1-7, April 2026.

Influence of climatic factors on the spatial and temporal distribution of mealybugs, vectors of swollen shoot disease of cocoa tree in Koda, South-West Côte d’Ivoire

Akoua Miézan Claudine N’guettia, Zokou Franck Oro, Yédé Jean Aliko, San-Whouly Mauricette Ouali N’goran, Int. J. Biosci. 28(3), 115-124, March 2026.

Surveillance and detection of the occurrence of African swine fever in abattoirs in the different municipalities of the second district of Cagayan, Philippines

Maricel F. Campanano, Dennis M. Oyardo, Mary Ann M. Santos*, Int. J. Biosci. 28(3), 106-114, March 2026.

Spawn preparation and cultivation of Volvariella volvacea (Bull. ex Fr.) Singer on paddy straw substrate

A. Anees Fathima*, J. Jayasree, Int. J. Biosci. 28(3), 97-105, March 2026.

Effects of dairy cattle rotational grazing on soil properties in the grassland area of CSU Piat, Cagayan

Andrea Flores Dawan*, Nonito Baliuag Pattugalan, Juan Sales Daquioag II, Int. J. Biosci. 28(3), 90-96, March 2026.

Diversity of melliferous plants in a forest ecosystem in the Sudanian zone: The case of the Badenou classified forest in northern Côte d’Ivoire

Dofoungo Koné*, Pagadjovongo Adama Silué, Fofana Séguéna, Bruno Marcel Iritié, Doudjo Noufou Ouattara, Wandan Eboua Narcisse, Int. J. Biosci. 28(3), 80-89, March 2026.