Abstract Pear pomace powder (PPP), xanthan gum (XG), and their combined effect on batter rheology, pasting properties, and the quality parameters of quinoa-based gluten-free cupcakes (GFC) were investigated. The water-retention capacities of flour blends, the batters’ rheological properties, and the flour blends’ pasting properties were analyzed and the quality characteristics of the GFCs were determined. The addition of XG to the formulation led to an increase in peak viscosity, final viscosity, and breakdown viscosity while PPP content caused a decrease. Opposite effects that XG and PPP have on pasting properties help to form a more stable structure. PPP and XG demonstrated escalating impacts on the flour blends’ water-retention capacities, density, and batter viscosity. All batters displayed pseudoplastic behavior, whereas Power-law model was found to be the most suitable model describing the batter's rheological characteristics. Increasing PPP and/or XG amounts led to larger elastic and viscous modulus. The PPP addition decreased the cake volumes and increased the crumb hardness. However, the XG addition to the blends caused the sample volume to increase and the hardness to decrease. The porosity of the samples decreased as the amount of PPP increased in the formulation. However, in the presence of XG, PPP demonstrated increased porosity.

Abstract In this study, extruded noodles incorporated with dried green bean, tomato, and okra seed powder was produced using an extruder at 80 °C and 100 °C barrel temperatures. Vegetable powder was blended with wheat flour at weight ratios of 0:100, 4:96, 8:92, and 12:88 to formulate composite flour. Quality characteristics, such as cooking properties, color, and textural properties together with antioxidant activities, total phenolic contents, sensory properties, and microstructures of the products were determined. In addition, the lycopene and β-carotene contents in noodles enriched with tomato powder were determined. The increase in the ratio of vegetable powder caused a decrease in the cooking time and water absorption capacity. The noodle products exhibited low cooking loss (less than 4%) and cooking time (less than 6 min). The L*, a*, and b*values of noodles varied from 53.76–78.30, 2.29–15.23, and 14.52–28.85, respectively. The β-carotene and lycopene contents increased with the increase of the tomato powder ratio. The antioxidant activity and the total phenolic content increased as the ratio of the vegetable powder used in all enriched noodle products increased. The noodles enriched with green bean and tomato powder gave the highest score of 7.40 in terms of the overall acceptance.

ABSTRACT Chicken meat in two different forms (chicken meat and chicken meat powder) were added into white flour and whole wheat blend baguette bread formulations for protein enrichment and finally developing new and healthy snacks. The chicken meat and powder levels were 10% for white flour baguette, and 15% for whole wheat blend. The dried baguette samples were packaged under 100% N2, and physical, chemical, microbiological and sensorial properties were evaluated during 3 months of storage. Protein content of chicken meat powder added samples were found statistically higher than chicken meat added samples. Hardness of the snacks was significantly affected from type of chicken meat, such as values were higher for chicken meat added samples than chicken meat powder added samples. Lipid oxidation of the snacks was determined by TBA analysis, and TBA value for whole wheat mixture snack with 15% of chicken meat was the highest among all during storage. The highest overall acceptance score was obtained from white flour snack with 10% chicken meat. There was no coliform bacteria detected during storage and the results of yeast-mold count and aerobic plate count of snacks remained between the quantitative ranges.