Influence of semolina characteristics and pasta-making process on the physicochemical, structural, and sensorial properties of commercial durum wheat spaghetti
S. Carpentieri, Dominique Larrea-Wachtendorff, Giovanna Ferrari
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引用次数: 0
Abstract
Introduction: This study aimed to investigate the effects of semolina characteristics and pasta-making processing on the quality of durum wheat spaghetti (A, B, and C) using a reverse engineering approach.Methods: Proximate composition, color, granulometry, pasting and thermal properties were determined to characterize semolina, while pasting, thermal and cooking properties, microstructure and sensory profile were evaluated for spaghetti.Results and Discussion: The sensory profile of sample A, in terms of higher yellowness and hardness, lower stickiness, agreed with the higher transition temperatures (60.07–74.6 °C) and enthalpy of amylose-lipid complexes, degree of starch gelatinization, pasting viscosities and compression force, lower water absorption, cooking losses (4.78 g/100 g), and adhesiveness (0.39 N/mm). Moreover, the microstructural analysis showed a network with denser areas, and starch granules strongly embedded in the gluten matrix for sample A with respect to samples B and C. These results might be ascribed to the semolina characteristics. Sample A was richer in starch (71.4%), lipid (1.6%), and protein (14.0%), and the higher drying temperatures affected protein crosslinking, starch organization, cooking properties, and appearance of spaghetti. The approach used in this study could be suitable in gathering the different phenomena occurring in pasta production process which concur to give spaghetti its distinctive quality.
引言本研究旨在采用逆向工程方法研究粗粒小麦粉特性和面条制作工艺对硬质小麦意大利面(A、B 和 C)质量的影响:方法:测定粗粉的近似成分、色泽、颗粒度、糊化和热性能,评估意大利面的糊化、热和烹饪性能、微观结构和感官特征:样品 A 的感官特征是黄度和硬度较高,粘性较低,这与较高的转化温度(60.07-74.6 °C)和淀粉-脂质复合物焓、淀粉糊化度、糊化粘度和压缩力、较低的吸水性、蒸煮损失(4.78 克/100 克)和粘附性(0.39 牛/毫米)相一致。此外,微观结构分析表明,与 B 样品和 C 样品相比,A 样品的淀粉颗粒更密集,淀粉颗粒嵌入面筋基质中。样品 A 富含淀粉(71.4%)、脂质(1.6%)和蛋白质(14.0%),较高的干燥温度会影响蛋白质交联、淀粉组织、烹饪特性和意大利面的外观。本研究采用的方法适合于收集意大利面生产过程中出现的各种现象,这些现象共同赋予了意大利面独特的品质。