2020
DOI: 10.1088/1755-1315/422/1/012021
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New aspects of application of microalgae Dunaliella Salina in the formula of enriched bread

Abstract: The methods of mathematical planning of the experiment determined that the optimal dosages in the formulation of bread powder from microalgae Dunaliella Salina are 5.0-10.0 % by weight of flour in the dough. As a result of applying the recipe of promising new plant additives the organoleptic quality (taste, odor, status crumb) and physical-chemical parameters of the finished products (specific volume and porosity of bread crumb) improves. Due to the increased content of protein substances, including essential … Show more

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Cited by 9 publications
(5 citation statements)
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“…Current commercial food applications of T. chuii in the EU through novel food approval have been limited to sauces, condiments and salts albeit at a very limited maximum permissible addition level of 250 mg/serving/d (AECOSAN, 2017). Several other genera of dried green and blue-green (cyanobacteria) microalgae, and even an unidentified species of Tetraselmis (Lafarga, 2019), have been evaluated as experimental ingredients in wheat bread making with a proliferation of interest in the last five years (Ak et al, 2016;Finney, Pomeranz, & Bruinsma, 1984;García-Segovia, Pagán-Moreno, Lara, & Martínez-Monzó, 2017;Graça, Fradinho, Sousa, & Raymundo, 2018;Lafarga, 2019;Sanjari, Sarhadi, & Shahdadi, 2018;Tertychnaya, Manzhesov, Andrianov, & Yakovleva, 2019). Wheat flour replacement with microalgae up to 10% w/w have been investigated (Ak et al, 2016;Finney et al, 1984) although most studies tended to add less (1-5%) and often as a direct addition rather than a substitution of wheat flour.…”
Section: Introductionmentioning
confidence: 99%
“…Current commercial food applications of T. chuii in the EU through novel food approval have been limited to sauces, condiments and salts albeit at a very limited maximum permissible addition level of 250 mg/serving/d (AECOSAN, 2017). Several other genera of dried green and blue-green (cyanobacteria) microalgae, and even an unidentified species of Tetraselmis (Lafarga, 2019), have been evaluated as experimental ingredients in wheat bread making with a proliferation of interest in the last five years (Ak et al, 2016;Finney, Pomeranz, & Bruinsma, 1984;García-Segovia, Pagán-Moreno, Lara, & Martínez-Monzó, 2017;Graça, Fradinho, Sousa, & Raymundo, 2018;Lafarga, 2019;Sanjari, Sarhadi, & Shahdadi, 2018;Tertychnaya, Manzhesov, Andrianov, & Yakovleva, 2019). Wheat flour replacement with microalgae up to 10% w/w have been investigated (Ak et al, 2016;Finney et al, 1984) although most studies tended to add less (1-5%) and often as a direct addition rather than a substitution of wheat flour.…”
Section: Introductionmentioning
confidence: 99%
“…In addition to this, microalgae contain algal polysaccharides, astaxanthin, unsaturated fatty acids, β-carotene, terpenoids, etc., which have diverse health functions and pharmacological effects, making them widely used in functional foods. Tertychnaya et al [18] improved the nutritive value of bread using D. salina with an increase in phosphorus content by 2.8 to 3.6 times and calcium content by 2.25 to 3.25 times.…”
Section: Microalgae-based Functional Foodsmentioning
confidence: 99%
“…As indicated in Table 1, natural D. salina contains 6.63% moisture and 48.74% ash. Carbohydrates are the main component with a ratio of 25.31%, and this is followed by proteins with 10.03%, carotenoids with 3.46%, and lipids with 3.49% [28][29][30]. Dusty Rose Lake (Canada) Hillier Lake (Australia) Torrevieja Lake (Spain)…”
Section: Microalgae Production Systemsmentioning
confidence: 99%