2007•Applied Biochemistry and MicrobiologyRequires access

Physicochemical properties of proteins from wheat grown under high-contrast climatic conditions

Valentina Vasil'yevna Kolpakova, Елена Н. Молчанова, Alexey Vasilev, L. V. Chumikina

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Abstract

Studies using electrophoresis, gel chromatography, viscometry, and calorimetry revealed an interrelation of several physicochemical properties of proteins of soft wheat grown under conditions of cool and wet weather with rheological characteristics of gluten and dough and bread quality. The ratio of gliadin and albumin-globulin polypeptides in flour with short-tearing gluten was much lower compared to that in flour with normal gluten. Proteins from flour with short-tearing gluten, including the water-soluble and salt-soluble fraction, had a loose spatial structure. Gluten fractions of this gluten (gliadin and glutenin) were characterized by a more compact and elongated structure compared to normal gluten. As distinct from normal gluten, the conformation of protein particles in short-tearing gluten depended little on hydrophobic interactions. The results suggest that the main components of grain determine the rheological properties of short-tearing gluten.

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What this paper is about

Studies using electrophoresis, gel chromatography, viscometry, and calorimetry revealed an interrelation of several physicochemical properties of proteins of soft wheat grown under conditions of cool and wet weather with rheological characteristics of gluten and dough and bread quality. The ratio of gliadin and albumin-globulin polypeptides in flour with short-tearing gluten was much lower compared to that in flour with normal gluten. Proteins from flour with short-tearing gluten, including the water-soluble and salt-soluble fraction, had a loose spatial structure. Gluten fractions of this gluten (gliadin and glutenin) were characterized by a more compact and elongated structure compared to normal gluten. As distinct from normal gluten, the conformation of protein particles in short-tearing gluten depended little on hydrophobic interactions. The results suggest that the main components of grain determine the rheological properties of short-tearing gluten.

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Available abstract

Studies using electrophoresis, gel chromatography, viscometry, and calorimetry revealed an interrelation of several physicochemical properties of proteins of soft wheat grown under conditions of cool and wet weather with rheological characteristics of gluten and dough and bread quality. The ratio of gliadin and albumin-globulin polypeptides in flour with short-tearing gluten was much lower compared to that in flour with normal gluten. Proteins from flour with short-tearing gluten, including the water-soluble and salt-soluble fraction, had a loose spatial structure. Gluten fractions of this gluten (gliadin and glutenin) were characterized by a more compact and elongated structure compared to normal gluten. As distinct from normal gluten, the conformation of protein particles in short-tearing gluten depended little on hydrophobic interactions. The results suggest that the main components of grain determine the rheological properties of short-tearing gluten.

Key concepts: Glutenin, Gluten, Gliadin, Chemistry, Rheology, Globulin, Tearing, Food science

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