Pasta Cooking Research Articles

Polyphenolic characterization, nutritional and microbiological assessment of newly formulated semolina fresh pasta fortified with grape pomace

The application of an innovative patented technology on grape pomace allowed to obtain a food ingredient no matter the seasonality and with a great shelf-life thanks to its high polyphenolic content. Then, fresh pasta samples fortified with 5 and 10 g/100 g of this innovative ingredient were prepared and their polyphenolic content, nutritional and microbiological assessments were investigated. The two levels of fortification led to an increase of polyphenols content before and after pasta cooking, which resulted in an increased antibacterial activity. Only the fortification with 5 g/100 g of grape pomace powder determined a high level of Slowly Digestible Starch and a low predicted Glycaemic Index, highlighting a possible ‘limit effect’ for the fortification of semolina fresh pasta. Overall, results confirmed that the use of this concentration obtained with the employment of the new technology allowed the production of fresh pasta with better polyphenolic profile and nutritional value even after cooking.

Changes in the physical, chemical and sensory properties of pasta made by partially substituting wheat flour with black glutinous rice flour

Black glutinous rice flour (BGRF) had the potential to be used as a wheat substitute to increase the health-promoting nutritional value of pasta products. The purpose of this study was to investigate the possibility of using BGRF as an alternative to wheat flour in the production of pasta to improve its nutritional value. The research explored the physical, chemical, sensory properties, and consumer acceptance of pasta formulations with 0%, 20%, 40%, and 60% BGRF substitution. The findings revealed that pigmentation of BGRF contributed to increased phenolic compounds and antioxidant properties, which impacted physical and chemical properties of the pasta. The results indicated that a 40% substitution of BGRF was well-liked by consumers, while a 60% substitution led to decreased acceptance. The physical properties of uncooked pasta (UC-PAS) and cooked pasta (CK-PAS), such as moisture content and color values, were significantly influenced by the percentage of BGRF substitution. Specifically, the moisture content of UC-PAS decreased with higher BGRF substitution, resulting in changes in color values. These changes included an increase in redness, as well as a decrease in lightness and yellowness. Additionally, the pigmentation of BGRF contributed to increased phenolic compounds and antioxidant properties, which affected physical and chemical properties of the pasta. The pasta’s cooking quality, including cooking time (CKT), cooking loss (CKL), and cooking yield (CKY), also showed significant differences with varying percentages of BGRF substitution. Furthermore, the proximate composition indicated that the percentages of ash, protein, fat, and fiber increased as the proportion of BGRF increased, with pasta containing 60% BGRF demonstrating the highest values for these properties. All these findings provide evidence that BGRF substitution had a significant positive impact on the physical, chemical, and sensory properties of pasta. For example, the pasta had better antioxidant properties and was well-accepted by consumers. The potential for enhancing the nutritional profile of pasta products by substituting wheat flour with BGRF is noteworthy. Key words: black glutinous rice, wheat, rice flour, pasta, antioxidant, bioactive compounds

Durum wheat pasta cooking: A combined assessment of the relevant quality, energy and environmental indicators

The scientific literature currently available on the subject has documented pasta cooking to be the second most environmentally impacting phase in the pasta life cycle after durum-wheat (DW) grain production. Those two phases have, therefore, priority in selecting the improvements that can be made, with the consequential effect of improving the life-cycle environmental profile of pasta products. Under this perspective, the authors tested a previously created electrical cooker for dry pasta from an ancient DW variety cultivated in Sicily, performing a combined assessment of the most relevant quality, energy, and environmental issues. The experiments were carried out both on the short and the long shape of pasta, applying alternatively a 10 and 3 L/kg water-to-pasta ratio.The study attained the proposed goal of proving whether the aforementioned cooker effectively reduces the energy-environmental burdens associated with the cooking of the pasta at issue, without compromising its total quality properties.Induction cooking systems need, however, for a larger share of renewable energy power, so that they can become even more eco-efficient than they are now. This is expected to grow in the next future because of the ongoing national and world transition towards renewable and cleaner energy sources. Therefore, the use of eco-sustainable pasta cookers, such as the one investigated within this article, combined with the replacement of traditional energy sources with renewable ones, and the promotion of environmental education amongst stakeholders of the pasta sector can act as valid strategies for mitigating and improving the cooking environmental impacts.

Grapefruit albedo-incorporated pasta: effect on the phytochemical, functional, textural, cooking and sensorial properties of semolina pasta

Grapefruit albedo-incorporated pasta: effect on the phytochemical, functional, textural, cooking and sensorial properties of semolina pasta

Impact of Germination on the Edible Quality and Nutritional Properties of Brown Rice Noodles.

Brown rice noodles are increasingly favored by consumers for their health benefits; however, their development is hindered by their poor edible qualities. The effect of germination on the cooking, textural, organoleptic and nutritional qualities of brown rice pasta was investigated. In comparison to ungerminated brown rice noodles, germination resulted in a shorter cooking time, reduced cooking losses, and decreased hardness and adhesion of noodles as well as reduced bitter taste. These changes can be attributed to germination altering the basic composition of brown rice. Meanwhile, the contents of γ-aminobutyric acid, free phenolic acid, and bound phenolic acid increased by 53.43%, 21.71%, and 7.14%, respectively, while the content of resistant starch de-creased by 21.55%. Sprouting is a promising strategy for improving the edible quality and nutritional properties of brown rice noodles.

Utilizing Sweet Corn “Milk” Residue to Develop Fiber-Rich Pasta: Effects of Replacement Ratio and Transglutaminase Treatment on Pasta Quality

The rising demand for fiber-rich food products has fuelled the exploration of innovative approaches to enhance their dietary fiber content. Although adding dietary fiber-rich materials into pasta formula can increase the dietary fiber content, this approach counters several technological problems as the cooking and textural properties of the resulting pastas are usually negatively affected. This study is aimed at utilizing sweet corn “milk” residue (SCMR), a food by-product, and transglutaminase to develop fiber-rich pasta. Durum wheat semolina was replaced by SCMR powder at the ratio of 0 (control), 5, 10, 15, and 20% to make SCMR-fortified pasta. The chemical compositions and cooking and textural properties of the fortified pasta were then quantified. As the replacement ratio increased, the dietary fiber content, total phenolic content (TPC), and antioxidant properties of pasta were considerably improved while the cooking and textural attributes were negatively impacted. At 20% SCMR fortification, the dietary fiber content and TPC of the pasta were increased by 3.2 and 1.2 times, respectively, while the cooking loss increased by 73% as compared to those of the control pasta. Meanwhile, the chewiness, cohesiveness, tensile strength, and elongation rate at break of the 20% SCMR-fortified pasta were reduced by 19%, 26%, 21%, and 65%, respectively, compared to those of the control pasta. To improve the cooking properties and the textural properties of the fortified pasta, transglutaminase was added to the pasta dough with 20% SCMR. The effect of transglutaminase was enzyme-dose dependent. The cooking and textural qualities of pasta were improved as enzyme concentration increased 0 to 0.75 U/g protein and declined as the enzyme concentration increased from 0.75 to 1.25 g/U protein. At the optimal concentration of transglutaminase (0.75 U/g protein), the cooking loss reduced by 16% while the chewiness, cohesiveness, tensile strength, and elongation rate increased by 18%, 11%, 31%, and 32% compared to those without transglutaminase. Novelty Impact Statement. This study focuses on developing the dietary fiber-enriched pasta using sweet corn “milk” residue and transglutaminase enzyme. The results showed that replacing 20% durum wheat semolina with SCMR powder significantly enhanced the dietary fiber and total phenolic content of the pasta but negatively affect the cooking and textural properties of the pasta. Adding transglutaminase at 0.75 U/g protein to the SCMR-semolina blended dough successfully restored the adverse effects of SCMR on the cooking and textural properties. This study showed that dietary fiber-enriched pasta with improved cooking and textural properties can be prepared using the combination of SCMR and transglutaminase.

Possibilities of Using Phaseolus Vulgaris and Phaseolus Lunatus Beans in Pasta Production

In last decade, in scientific literature, various pulses dominate as raw material of new pasta development. The production of pulse pasta is complex technological process, generally based on extrusion technology. The aim of the study was to produce spaghetti-type pasta from Phaseolus vulgaris (variety unknown) and Phaseolus lunatus (variety Kontra). The recipes made with xanthan gum and corn starch as a binder, the optimal cooking time and water absorption capacity was determined. In the experiment, wheat semolina spaghetti was used as a control sample. Four types of spaghetti were prepared using a single-screw extruder, then dried in a rotary oven and stored until analysis. Pasta cooking properties have been determined. The obtained data were compared using t-test. There were significant differences between obtained spaghetti and control sample. The results confirm that beans can be used in pasta production.

Design and Implementation of Automatic Pasta Cooking Machine

Design and Implementation of Automatic Pasta Cooking Machine

Biofuel production from pasta cooking wastes using saccharomyces cerevisia

Biofuel production from pasta cooking wastes using saccharomyces cerevisia

Aggregating midpoint-indicator results from Environmental Product Declarations for comprehensive evaluations of products' profiles, through the Dominance-based Rough Set Approach: An application in the Durum-Wheat Pasta Sector

To-date there is an unsolved methodological problem for the type-III labelling scheme, namely the Environmental Product Declaration (EPD), that essentially derives from the midpoint approach used for the Life Cycle Assessment (LCA) which the EPD itself is based upon. As a matter of fact, in the current EPD system, it is impossible to perform univocal aggregated evaluations of the product's profile, due to the different equivalent unit-of-measures which the midpoint impacts are expressed with, and to the absence of a scientifically-based, objective scheme for aggregation and weighing.The authors wanted to undertake this challenge with the aim of enhancing the effectiveness and utility of EPDs to guide managers, consumers and other stakeholders in the promotion, distribution, and consumption of sustainable products, in the context of green public procurement. To achieve this goal for the case of durum-wheat pasta, the EPD was complemented by the authors with the Dominance-based Rough Set Approach (DRSA). In result, an aggregate preference model considering all impact categories was obtained, thereby leading to comprehensive comparisons of complete environmental profile of products. The model has the form of a set of minimal decision rules, that can be used by producers for understanding the environmental performance level of their pasta products, and subsequently making strategic decisions for its improvement.Seven of those rules were determined from DRSA application, that regarded grain production and milling, package manufacturing, and a comprehensive downstream phase that included the disposal of the packaging system, and the pasta cooking with water waste disposal. In addition to this, those rules primarily considered the following midpoint categories within the ensemble of those provided by the EPD system for pasta products: acidification, eutrophication, global warming, and mineral element depletion.All of them were certain rules: three of the “at least” type (two at least good, and one at least medium); and four of the “at most” type (one at most bad, and three at most medium).By referring the given PCR-based LCA results to the threshold values of performance on criteria present in the premise of these rules, producers can know in advance the quality class (bad, medium, or good) which their pasta products belong to.In case of a negative evaluation, they can try to improve the value of some crucial indicators before applying for obtaining the EPD, and so enhance the environmental profile of their products.The authors believe that their study advances knowledge and enriches the literature concerning the application of multiple criteria decision analysis (MCDA), wherein DRSA stands out as an outstanding example. This contribution is particularly significant in enhancing and valorising sustainability assessment tools and certification schemes.Under this perspective, the study documented that leveraging DRSA to supplement the EPD system, for the particular case of pasta products, can contribute directly and indirectly to achieving Sustainable Development Goals (SDGs) and, so, to advancing environmental sustainability within the food sector.

Quality characteristics of the shape preservation of cooked pasta with millet addition at different time intervals

The current study presents the indicators of shape preservation of cooked pasta by adding 7.7% millet in various time intervals. The experiments were conducted immediately after the pasta cooking process and after two hours. In the Eurasian Economic Union and the Republic of Kazakhstan, the quality indicators were produced by considering the established methodologies stated in the standardized papers. The interstate standard GOST 31964-2012, "Pasta products. Acceptance rules and methods of quality determination," was used to determine the shape preservation of cooked pasta. The study aimed to determine and compare cooked pasta's shape preservation indicators (consumer properties), considering a certain time interval. Pasta needs five minutes to cook. These days, though, pasta manufacturers specify the required cooking time – eight, nine, ten, or eleven minutes – on their packages. The study's findings indicate that the safety of pasta containing "7.7% millet after 2 (hours) from the moment of cooking" and "with the addition of 7.7% millet after cooking" is negligible by 1-2 N; however, data from 4-24 N show a more notable difference in a comparable scenario. The experiments were conducted at the Federal State Autonomous Scientific Institution "Scientific Research Institute of the Bakery Industry", Moscow, Russian Federation. The corresponding data was obtained according to the results of the conducted studies.

Peasant vs. Industrial durum wheat pasta: Impact of each processing step on protein solubility and digestibility

Some people with Non-Coeliac Gluten (or Wheat) Sensitivity (NCGS) declare that they can consume peasant pasta without the usual inconvenience they experience after eating industrial pasta. The main differences between peasant and industrial pasta lie in the varieties used (old vs. modern), and the production chain (grain milling, semolina hydration and mixing, extrusion or lamination, drying and packaging). Yet, the varieties, the material and the method used by the peasants and by the industrial sector to make pasta differ at each stage. The impact of each of these stages was analyzed on protein quantity and quality from semolina to cooked pasta. Grown in the same conditions, the old variety (cv. Bidi 17) used by farmers contained much more protein than the modern variety (cv. Anvergur) recommended by industry and its pasta was better-digested in-vitro. Focusing on cooked pasta, milling had a great impact on not easily soluble proteins (DTE-soluble proteins): pasta made from stone-milled grains (peasant method) had less DTE-soluble proteins than pasta made from roller-milled grains (industrial method) and a higher amount of in-vitro digested proteins. The mixing and extrusion step mainly affected the easily soluble proteins (SDS-soluble proteins). The amount of such proteins was greater for farmer cooked pasta (non-monitored extrusion) than for industrial ones (monitored extrusion). Concerning the drying step, the proportion of SDS-soluble proteins was higher for the pasta dried at low temperature (peasant method), compared to high temperature (industrial method). Thus, the observation that peasant cooked pasta would be more digestible than industrial pasta seems to be due mainly to variety (61%), to a lesser extent to grinding on a stone-mill (22%) and extrusion on non-monitored conditions (16%) and finally a little (1%) to drying at low temperature and therefore longer.

Effect of “shape” on technological properties and nutritional quality of chickpea-corn-rice gluten free pasta

Macroscopic and microscopic food structural characteristics play an important role in product's technological properties and nutritional attributes. The effects of macroscopic (pasta shape, PS) and microscopic (flour particles, FP) structural attributes were independently investigated in gluten-free (GF) chickpea-corn-rice short pasta (50% chickpea) considering cooking quality, physicochemical attributes, thermal properties, in vitro digestibility of starch (IVSD) and protein (IVPD). Different PS (rigatoni, fusilli, fusilli piccolo, caserecce, gnocchetti sardi) and different chickpea FP (conventional, precooked, fine, coarse) were considered. With regards to PS effect, rigatoni-shaped pasta differed significantly from other PS having the longest cooking time, a harder and less adhesive texture, the highest gelatinization enthalpy, the lowest IVPD, and higher resistant starch content. The chickpea FP modulated the flour pasting properties and slightly impacted both pasta cooking quality and nutritional characteristics regarding IVSD and IVPD. This work suggested that pasta structural attributes, especially PS, can modify pasta cooking quality, physicochemical, and nutritional characteristics and should, therefore, be considered in rational product design to provide food products with desired properties.

Effect of Temperature on Drying Kinetics and Quality of Partially Deoiled Chia Flour Wheat Pasta

After chia oil extraction, a by-product, partially-deoiled chia flour (PDCF) with a high nutritional value (high content of fiber, protein, and antioxidant properties) remains. The effect of drying temperature on the quality and drying kinetics of wheat pasta enriched with PDCF was evaluated. Wheat pasta was prepared with different proportions of PDCF (0, 5 and 10%, wheat based) and dried at 45, 55 and 65 °C for 24 hours. Experimental data were fitted to different empirical models. Drying kinetics, drying rate (DR), effective moisture diffusivity (Deff), pasta cooking parameters, microstructure, textural and color were analyzed. The Midilli model had the most suitable performance to describe pasta drying kinetics behaviour. Pasta enriched with PDCF required higher energy input for drying. High drying temperatures had a great impact on enriched pasta quality. Pasta was darker, opaque, irregular, and porous. Cooking time and cooking losses decreased. Hardness was not affected. The strength and microstructure properties of enriched pasta improved at 65 °C, while the non-enriched pasta properties improved at 55 °C.

Improvement effect of different protein powder on cooking characteristics of gluten‐free pasta and the establishment of quality evaluation based on principal component analysis

SummaryImproving the edible quality and nutrition of gluten‐free (GF) products is vital for patients to improve their coeliac disease (CD). This study explored the effect of the addition of soybean protein isolate (SPI), ovalbumin (OVA), and whey protein (WP) on the cooking characteristics of rice‐maize‐potato (RMP) GF pasta and made a comprehensive evaluation of the quality of GF pasta. The addition of SPI at higher concentrations would seriously increase the cooking loss of GF pasta. In contrast, the addition of OVA and WP could improve the cooking stability of GF pasta. The amount of OVA and WP powder in GF flour was positively correlated with gelatinization and gel stability, and negatively correlated with cooking loss. Moreover, the addition of OVA to GF flour improved the chewiness, hardness, elasticity and tensile properties of GF pasta based on texture profile analysis. Furthermore, 13 GF pasta with different additions of protein powder were studied based on principal component analysis to evaluate the comprehensive quality of GF pasta. The consistent results of GF pasta cooking characteristics and their ranking in comprehensive quality evaluation verified the reliability of this method. This study provides a reasonable instruction for quality improvement of GF pasta and a theoretical basis for the comprehensive quality evaluation of GF pasta, which could facilitate the development of foods with high cooking characteristics and nutrition suitable for patients with CD.

Diverging fates of cadmium and glyphosate during pasta cooking

Durum wheat cultivars with varying abilities to accumulate cadmium were grown and treated in the field with a glyphosate-containing herbicide at different stages of maturity to produce grain with higher and lower concentrations of cadmium (0.066–0.214 mg/kg) and glyphosate (0.474–0.874 mg/kg). The grain was milled, and fractions were analysed for cadmium and glyphosate. The highest concentrations for both cadmium and glyphosate were associated with bran and shorts, although the percentage of total cadmium mass in bran (23–25%) was less than glyphosate (38%). The preparation of dried pasta from semolina and flour milling fractions reduced concentrations by a factor of 1.8 for glyphosate and 1.4 for cadmium. Dried pasta was cooked and analysed along with the cooking water for cadmium and glyphosate at seven-time points from 0 to 15 min. Concentrations of glyphosate in cooked pasta decreased significantly with cooking time; no decrease was observed for cadmium concentrations. Analysis of cooking water demonstrated that glyphosate migrated from pasta to the cooking water. After 15 min of cooking, approximately 73% of the total glyphosate mass had transferred from pasta to cooking water. Over the same time period, only 5% of the total cadmium mass had transferred from pasta to cooking water.

Changes Induced by Heat Moisture Treatment in Wheat Flour and Pasta Rheological, Physical and Starch Digestibility Properties.

Wheat is one of the main crops that is cultivated and consumed in the world. Since durum wheat is less abundant and more expensive than other types, pasta producers can use common wheat by applying various techniques to achieve the desired quality. A heat moisture treatment was applied to common wheat flour, and the effects on dough rheology and texture, and pasta cooking quality, color, texture, and resistant starch content were evaluated. The results revealed that heat moisture treatment temperature and moisture content induced a proportional increase in visco-elastic moduli, dough firmness, pasta cooking solids loss, and luminosity, as they were higher compared to the control. The breaking force of uncooked pasta decreased when the flour moisture content increased, while the opposite trend was observed for resistant starch content. The highest resistant starch values were obtained for the samples treated at the lowest temperature (60 °C). Significant correlations (p < 0.05) were obtained between some of the textural and physical characteristics analyzed. The studied samples can be grouped in three clusters characterized by different properties. Heat moisture treatment is a convenient physical modification of starch and flours that can be employed in the pasta industry. These results underline the opportunity to enhance common pasta processing and final product functionality by using a green and non-toxic technique to develop new functional products.

Pasta cooking influence on in vitro bioaccessibility of type B trichothecenes, acrylamide and hydroxymethylfurfural

The study evaluated the effect of cooking time on the levels of type B trichothecenes (TCTB), acrylamide (AA) and hydroxymethylfurfural (HMF) in semolina pasta and their bioaccessibilities in order to propose strategies to reduce the daily exposure of these natural and processing contaminants. Three brands of commercial pasta were submitted to different cooking times (7, 10 and 13 min). Subsequently, the in vitro bioaccessibility trials, permeation across the intestinal membrane and estimation of daily exposure were carried out. The lowest cooking time (7 min) resulted in high reductions of TCTB (88%) and AA + HMF (76.7%) contents found on the raw pasta. The concentrations of deoxynivalenol (DON) and AA were higher after the digestion (bioaccessibilities >100%) than after the pasta cooking. About 25.6% of DON and 100% of AA found in the small intestine digestible fraction were able to permeate the intestinal membrane. The risk of exposure was below the recommended safe limits since the estimated daily exposure values were 0.22 µg/kg per body weight/day for DON and 0.26 µg/kg per body weight/day for AA. Therefore, cooking pasta for 7 min at a pasta:water ratio of 1:10 (w/v) mitigates the contaminants and promotes the greater formation of resistant starch.

Influence of Conservation Agriculture on Durum Wheat Grain, Dough Texture Profile and Pasta Quality in a Mediterranean Region

There is a growing interest in the Mediterranean regions to switch to conservation agriculture (CA) to address climate change and soil deterioration issues. The novelty of this study lies in the quality of the supply chain, from the raw material (durum wheat grain) to the ready-to-sell product (spaghetti), under long-term CA, and using two varieties over two years of study. This study aims to investigate the impact of two soil management systems (SM) (CA after 10/11 (since 2009–2010) years switching vs. conventional tillage (CT)) on grain quality, dough texture profile, and pasta quality of two Tunisian durum wheat varieties (Karim and Monastir) in a 2-year-long experiment (2019 and 2020). The results showed that the SM had a significant impact on the grain quality in both years in terms of protein content and wet gluten, which were, respectively, lower under CA (11.92% vs. 11.15% for protein content) and (18.75% vs. 17.68% for wet gluten) in the wet year. These parameters increased in the dry year but they were higher under CA (15.70% vs. 14.42 ± 0.94% for protein content) and (26.00% vs. 23.20% for wet gluten). These results have, in turn, affected the dough quality (springiness, chewiness, and cohesiveness) and pasta cooking time and decreased the pasta cooking loss and water absorption index. In terms of the variety (V) factor, “Karim” variety in the dry year had a higher protein content and better dough quality than “Monastir” variety, and it reduced the pasta cooking time. In addition, the pasta yellow index (b*) from grains grown under CA was always higher than those in the CT system (23.99 vs. 19.72% and 25.24 vs. 22.19% in 2019 and 2020, respectively). The interaction between SM and V was significant in both years only for the dough hardness and pasta b* parameters. In conclusion, long-term CA may be a crucial solution in the dry season to promote food quality and achieve sustainable agriculture goals.

Use of different ratios of by‐product from mung bean dry‐dehulling in pasta making: nutritional quality, textural and cooking attributes, overall acceptability and in‐vitro antioxidant release from the pasta

SummaryThe production of dehulled mung bean seeds generates a by‐product which includes husk particles and finely broken endosperm. In this study, the mung bean by‐product flour (MBBF) was used as an antioxidant dietary fibre ingredient for pasta formulation. Increase in MBBF ratio in the pasta recipe from 0% to 25% enhanced total dietary fibre and total phenolic of the product by 4.2 and 4.5 times, respectively; in addition, the cooking loss of pasta increased while its optimal cooking time and swelling index were reduced. The pasta samples supplemented with MFFB had increased hardness but decreased cohesiveness, tensile strength, and elongation rate. The pasta samples incorporated with 10–20% MFFB were accepted by consumers and could be considered as a high‐fibre food product since their total dietary fibre content was varied from 7.5 to 13.5 g/100 g. The pasta cooking decreased its chlorophyll content but improved the phenolic level. At 20% MFFB level, the 2,2‐diphenyl‐1‐picrylhydrazyl radical scavenging activity and ferric‐reducing antioxidant power of the product released at the in‐vitro intestinal step were 2.2 and 6.8 times, respectively, higher than those of the undigested cooked pasta. MBBF is a potential antioxidant dietary fibre ingredient to produce healthy pasta and the use of this by‐product would contribute to sustainable development of circular economy in the near future.