Flour Fortification Using Lablab Purpureus Evaluation with a Biosensor

Due to rapid metabolic and growth rates during the first two years of life, the nutritional needs of young children are high. Given the small portion sizes consumed by children between the ages of 6 and 24 months, it is necessary to improve diets to meet the nutritional needs of this age group. Ther...

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Veröffentlicht in:Cellular physiology and biochemistry 2024-08, Vol.58 (4), p.393-403
Hauptverfasser: Piedra, Felipe Jadán, Z, Rodolfo Andrés Rivadeneira, Vélez, María Isabel Zambrano, Murillo, José Patricio Muñoz, Flor, Frank Guillermo Intriago, Loor, Andrés Miguel Anchundia, Alfonso, Yanelis Ramos, Moreno, Jose Alberto Vigueras, Sánchez, Herman Cevallos, Sánchez, Jorge Milton Velepucha, Vega, Efrain Pérez, Brito, Lorena Daniela Domínguez
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container_end_page 403
container_issue 4
container_start_page 393
container_title Cellular physiology and biochemistry
container_volume 58
creator Piedra, Felipe Jadán
Z, Rodolfo Andrés Rivadeneira
Vélez, María Isabel Zambrano
Murillo, José Patricio Muñoz
Flor, Frank Guillermo Intriago
Loor, Andrés Miguel Anchundia
Alfonso, Yanelis Ramos
Moreno, Jose Alberto Vigueras
Sánchez, Herman Cevallos
Sánchez, Jorge Milton Velepucha
Vega, Efrain Pérez
Brito, Lorena Daniela Domínguez
description Due to rapid metabolic and growth rates during the first two years of life, the nutritional needs of young children are high. Given the small portion sizes consumed by children between the ages of 6 and 24 months, it is necessary to improve diets to meet the nutritional needs of this age group. Therefore, the analysis of lysine content is an important parameter in the evaluation of enriched foods. The utilization of an enzymatic sensor employing lysine-α-oxidase (LOx) as a biorecognition element represents an alternative to the existing methods. This sensor was optimized for quantifying the lysine content in flour mixtures: Quinoa-Lablab purpureus rye - Lablab purpureus, and pole beans - Lablab purpureus, with a maximum ratio of 85g/100g. The addition of lablab purpureus significantly increased the lysine concentration in the enriched samples. When 30 percent was substituted in quinoa, it reached a 143 percent increase. And when 15 percent was substituted in the rye flour, the final concentration of this amino acid increased by 64 percent. In order to quantify the lysine concentration, it was necessary to optimize various parameters during the use of the sensor, e.g. a potentiometric signal was detected upon the depletion of oxygen present during the oxidation of lysine in the samples, and the sensor response was recorded at 2 s. This was possible due to the modification of the pH and the thickness of the membrane. The oxidation of lysine is catalyzed by LOx using molecular oxygen as the electron acceptor. The corresponding acidic compounds and hydrogen peroxide were formed in the reaction medium. It was possible to increase and verify the concentration of lysine in all the flours tested through the use of the biosensor, which turned out to be a valid method for controlling the nutritional quality of flours.
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subjects Amino Acid Oxidoreductases - metabolism
Biosensing Techniques - methods
Chenopodium quinoa - chemistry
Chenopodium quinoa - metabolism
Flour - analysis
Food, Fortified - analysis
Lysine - analysis
Lysine - chemistry
Lysine - metabolism
Secale - chemistry
Secale - metabolism
title Flour Fortification Using Lablab Purpureus Evaluation with a Biosensor
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