Evaluation of The Effects of Thermal Processing Treatments on The Nutrient and Anti-nutrient Composition of Pigeon Pea (Cajanus cajan) Seed Flours

Abstract

This study was carried out to evaluate the effects of thermal processing techniques on the nutrient and antinutrient contents of pigeon pea (Cajanus cajan) flours. The pigeon pea seeds were sorted, cleaned and divided into five equal lots of 0.5kg each. Four lots of pigeon pea seeds were processed into blanched, boiled, roasted, and autoclaved pigeon pea flours, while the fifth lot was processed raw and used as control. The raw and thermally processed samples obtained were analysed for nutrient and antinutrient composition using standard methods. The proximate composition of the samples showed that the flours had a range of 8.61 - 11.46 % moisture, 21.13 - 23.94 % crude protein, 1.26 - 1.68 % fat, 5.12 – 6.10 % crude fibre, 1.74 – 2.97 % ash, 55.56 – 60.41 % carbohydrate and 333.45 - 342.75 kJ/100g energy, respectively. The mineral composition showed that the flours contained 86.24 – 144.72 mg/100g calcium, 137.80 – 170.33 mg/100g magnesium, 125.86 - 156.76 mg/100g potassium, 66.66 – 95.62 mg/100g sodium, 4.38 – 6.64 mg/100g iron and 130.27 – 178.29 mg/100g phosphorus, respectively. The vitamin content of the flours were 3.09 - 4.33 mg/100g ascorbic acid, 0.05 - 0.17 mg/100g thiamine, 0.03 - 0.21 mg/100g riboflavin, 0.13 - 0.28 mg/100g niacin, 3.21 - 6.25 mg/100g vitamin A and 1.10 - 2.70 mg/100g vitamin E, respectively. The antinutrient composition of the flours also showed that the levels of trypsin inhibitor, tannin, phytate, oxalate, saponin and haemagglutinin ranged from, 2.30 – 5.61 Tiu/mg, 0.81 – 1.5mg/100g, 1.12 - 4.18mg/100g, 0.48-4.01 mg/100g, 1.28 – 3.66 mg/100g and 1.30 – 7.44 Hiu/g, respectively. Therefore, the study showed that thermally processed pigeon pea flours could be used as nutrient dense ingredients in the preparation of a wide range of foods for children, adolescents and aged adults especially in developing countries where the problems of protein-energy malnutrition and micronutrients deficiencies are prevalent than the raw sample.

Authors and Affiliations

Okechukwu, C. O. , Okoye, J. I. , Egbujie, A. E. , Odo, P. C. , Eze, S. I.

Keywords

Related Articles

Application of Entomopathogenic Fungus Beauveria Bassiana on Shallot Plants Through Soaking the Bulbs and its Effect on the on the Growth of Spodoptera Exigua Larvae

Spodoptera exigua Hubner is a major pest of shallots. This pest attack can cause a decrease in shallot production. The use of entomopathogenic fungus Beauveria bassiana is an environmentally friendly pest control alterna...

Analysing the Impact of Broiler Line and Egg Preservation Durations on Immunoglobulin Levels and Some Egg Quality Indicators

The basis of the poultry industry is the presence of parent flocks, and the lack of this causes the eggs to be transported for long periods and long distances, reducing the quality of hatching eggs and producing poor-qua...

Protein from Plants and Algae: Potential Trends of Replacing Animal Protein for Public Health

Meat is considered as a significant source of high-quality protein along with other nutritional benefits and sensory properties. However, meat production and consumption is associated with human health concerns, includin...

Effect Bioameliorants dan Interval of Ready-to-Absorb Nutrient Solution on Soil Health, Crop Productivity, and Quality of Chili Pepper Yields

Red chili peppers have high economic value due to increasing consumer demand, particularly in large cities, which require about 800,000 tons per year. Despite an increase in production from 1,360,571 tons in 2021 to 1,47...

Comparison of Environmental Impacts of Body wash product in Life cycle: Korea and Europe

As the scope and standards of environmental regulations are expanding and strengthening, environmental impact assessment and carbon emission reduction activities for new product lines are spreading, and the environmental...

Download PDF file
  • EP ID EP751215
  • DOI https://doi.org/10.55677/ijlsar/V03I11Y2024-04
  • Views 43
  • Downloads 0

How To Cite

Okechukwu, C. O. , Okoye, J. I. , Egbujie, A. E. , Odo, P. C. , Eze, S. I. (2024). Evaluation of The Effects of Thermal Processing Treatments on The Nutrient and Anti-nutrient Composition of Pigeon Pea (Cajanus cajan) Seed Flours. International Journal of Life Science and Agriculture Research, 3(11), -. https://europub.co.uk/articles/-A-751215