2015
DOI: 10.1016/j.lwt.2015.03.080
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Effect of high temperature drying on gluten-free pasta properties

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Cited by 51 publications
(20 citation statements)
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“…No loss of starch or proteins seems to be occurred (Table 2). It was reported that during cooking, insoluble fibre fractions may get suspended in viscous gelatinized starch and prevented amylose from leaching into the cooking water as well as the formation of lipid-amylose-complexes that probably contributed to a decrease in the amylase loss [33,34]. In the present investigation the increment of bean flour in formulations had a slight effect on this parameter, affected basically by the mineral loss after cooking ( Table 2).…”
Section: Cooking Propertiesmentioning
confidence: 46%
“…No loss of starch or proteins seems to be occurred (Table 2). It was reported that during cooking, insoluble fibre fractions may get suspended in viscous gelatinized starch and prevented amylose from leaching into the cooking water as well as the formation of lipid-amylose-complexes that probably contributed to a decrease in the amylase loss [33,34]. In the present investigation the increment of bean flour in formulations had a slight effect on this parameter, affected basically by the mineral loss after cooking ( Table 2).…”
Section: Cooking Propertiesmentioning
confidence: 46%
“…Nevertheless, because the functional properties were evaluated directly in the dough, there were other composites within the matrix influencing the measurements, mainly the protein, which is the second major component of quinoa. D'Amico et al () found that the drying processes increased the protein solubility of the uncooked quinoa/amaranth/buckwheat pasta at low temperature (60 °C) when the drying time was longer due to heat treatments inducing polymerization of the proteins. This may explain why FQD dried for longer times both at 40 °C and 50 °C and had higher functional properties values than their counterparts.…”
Section: Resultsmentioning
confidence: 99%
“…Extrusion‐cooking of both rice and amaranth flour prior to production of the amaranth‐enriched rice pasta has beneficial effects on pasta firmness and, in contrast to their nonextrusion‐cooked counterparts, reduces cooking losses (Cabrera‐Chávez and others ). Recently, D'Amico and others () observed higher cooking losses and inferior elasticity for pasta made from a 20/20/60 blend of amaranth flour, quinoa flour, and whole meal buckwheat, respectively, rather than from durum wheat. They also studied the impact of predrying and/or high‐temperature drying on the quality of such pasta.…”
Section: Pseudocereal‐based Cereal End Productsmentioning
confidence: 99%
“…Protein solubility values of the pasta indicated that protein aggregates are only formed when drying above 100 °C. The authors speculate that the effect of predrying and high‐temperature drying on the formation of a firm and elastic protein network during the production of pasta supplemented with pseudocereals results from the high levels of accessible cysteine residues present in their proteins (D'Amico and others ). As illustrated in the section “Denaturation and aggregation behavior,” high‐temperature treatment provokes the denaturation of amaranth, buckwheat, and quinoa proteins and, as a consequence, triggers the formation of high MM aggregates stabilized by intermolecular SS‐bonds.…”
Section: Pseudocereal‐based Cereal End Productsmentioning
confidence: 99%