Wheat Noodles Research Articles

The Effect of Fermentable, Oligosaccharides, Disaccharides, Monosaccharides, and Polyols (FODMAP) Meals on Transient Lower Esophageal Relaxations (TLESR) in Gastroesophageal Reflux Disease (GERD) Patients with Overlapping Irritable Bowel Syndrome (IBS).

A randomized crossover study in eight patients (6 F, age 57 ± 13) with overlapping GERD-IBS (non-constipation) was conducted to evaluate the effects of rice noodle vs. wheat noodle meals for breakfast and lunch on postprandial TLESR, intestinal gas production, and GERD/GI symptoms. Results: Wheat ingestion was significantly associated with more frequent TLESR after lunch than rice (5.0 ± 0.7 vs. 1.9 ± 0.3 times/2 h, p = 0.01). After lunch, wheat ingestion was significantly associated with higher H2 and CH4 levels compared to rice ingestion (p < 0.05), while H2 and CH4 levels before lunch were similar (p > 0.05). The area under curve of H2 concentration until 2 h after lunch significantly correlated with the TLESR number (r = 0.69, p = 0.04). Postprandial regurgitation (2.9 ± 1.2 vs. 0.4 ± 0.2), bloating (7.0 ± 0.4 vs. 3.1 ± 0.9), satiety (7.7 ± 0.4 vs. 3.5 ± 0.9), and belching (3.8 ± 1.2 vs. 1.1 ± 0.6) symptom scores were significantly greater after wheat compared to rice noodle ingestion (p < 0.05). Conclusion: Wheat noodle meals, part of a high FODMAP diet, induced a higher frequency of TLESRs, a higher GERD, and higher upper-GI symptom scores than rice noodle meals, part of a low FODMAP diet, in patients with overlapping IBS-GERD. These effects were associated with more intestinal gas production. Thus, a low FODMAP diet may relieve GERD symptoms in GERD patients with overlapping IBS.

Effects of Lactobacillus plantarum and Saccharomyces cerevisiae co-fermentation on the structure and flavor of wheat noodles.

Although traditional fermented noodles possess high eating quality, it is difficult to realize large-scale industrialization as a result of the complexity of spontaneous fermentation. In present study, commercial Lactobacillus plantarum and Saccharomyces cerevisiae were applied in the preparation of fermented noodles. The changes in the structural characteristics and aroma components of noodles after fermentation were investigated via scanning electron microscopy (SEM), Fourier transform infrared spectroscopy (FTIR), low-field magenetic resonance imaging, electronic nose, and simultaneous distillation and extraction/gas chromatography-mass spectrometry (GC-MS) analysis. SEM images revealed that co-fermentation of the L. plantarum and S. cerevisiae for 10-40 min enhanced the continuity of the gluten network and promoted the formation of pores. FTIR spectra analysis showed that the co-fermentation increased significantly (P <0.05) the proportion of α-helices of noodles gluten protein, enhancing the orderliness of the molecular structure of protein. After fermentation for 10-40 min, the signal density of hydrogen protons increased from the surface to the core, indicating that the water in the noodles migrated inward during a short fermentation process. The results of multivariate statistical analysis demonstrated that the main aroma differences between unfermented and fermented noodles were mainly in hydrocarbons, aromatic compounds and inorganic sulfides. GC-MS analysis indicated that the main volatile compounds detected were 2, 4-di-tert-butylphenol, bis (2-ethylhexyl) adipate, butyl acetate, dibutyl phthalate, dioctyl terephthalate, bis (2-ethylhexyl) phthalate, pentanol and 2-pentylfuran, etc. CONCLUSION: Co-fermentation with L. plantarum and S. cerevisiae improved the structure of gluten network and imparted more desirable volatile components to wheat noodles. © 2022 Society of Chemical Industry.

The development and application of nanocomposites with pH-sensitive “gates” to control the release of active agents: Extending the shelf-life of fresh wheat noodles

Controlled release of antimicrobial agents is an efficient and promising technology for food preservation. Halloysite nanotubes (HNTs) are a novel material that act as carriers of active agents, while also providing a pathway for sustained release. By using coatings that responded to their environment, we were able to obtain controlled release such that the desired amounts of active agents were delivered to the packaged food at the desired time. In this study, we loaded cinnamaldehyde into HNTs lumen, and used opposite charged polyelectrolytes to cap the ends of the HNTs to control the release of cinnamaldehyde. Fourier transform infrared spectroscopy (FTIR), Brunauer, Emmett, Teller's test (BET) thermogravimetric analysis (TGA), scanning electron microscopy (SEM), transmission electron microscope (TEM), cumulative release rate, and fumigant antibacterial activity were conducted to evaluate the performance of the encapsulated samples. Tube-like morphology of the HNTs, and the location of cinnamaldehyde and polyelectrolytes were identified. The results showed that the stimuli-responsive layer formed by polyelectrolytes exhibited different release rate at different pH values. At higher pH, the polyelectrolytes layer restrained transportation of active molecules, while at lower pH, the coating assisted the release of cinnamaldehyde. Additionally, results of antimicrobial test in vitro illustrated significant fumigant antimicrobial activity of cinnamaldehyde/polyelectrolytes functionalized HNTs. To further learn the preservative effect of samples in food packaging, we conducted a pilot study of packed fresh wheat noodles with the designed nanocomposites, and tested total plate count, pH, color change and environmental-SEM of noodles. Results indicated that the nanocomposites with controlled pH-responsive cinnamaldehyde release is a promising packaging technology for extending the shelf-life of fresh wheat noodles.

Addition of 1, 4-α-glucan branching enzyme during the preparation of raw dough reduces the retrogradation and increases the slowly digestible fraction of starch in cooked noodles

Consumers significantly prefer wheat noodles that offer both an acceptable texture and health benefits. To this end, a cold-active 1,4-α-glucan branching enzyme from Bifidobacterium longum (BlBE) was expressed in the generally recognized as safe (GRAS) host cell Bacillus subtilis and then used at 120, 240 or 480 U/g flour in the preparation of raw dough. The storage modulus and loss modulus of the BlBE-modified dough decreased, but the pseudo-plasticity increased. The cooked noodles' hardness, gumminess and chewiness decreased by 12.1%–45.8%, 9.7%–40.4% and 16.0%–42.4%, respectively, but both resilience and cohesiveness increased by 4.0%–14.8% and 1.8%–9.0%, respectively. Pearson analysis revealed a correlation between the noodles' textural parameters and the doughs' power law equation parameters. BlBE-modified noodles exhibited significantly (P < 0.05) lower differential scanning calorimetry retrogradation enthalpies during storage at 4 °C for 7 days and released significantly lower levels of glucose during incubation with mammalian α-glucosidase at 37 °C for 10 min–360 min. BlBE at 480 U/g flour increased the slowly digestible portion by 12.6%. BlBE decreased the molecular weight, x-ray diffraction crystallinity, and fourier transform infrared spectroscopy ratio of band's heights at 1045 cm−1 and 1022 cm−1 of starch but increased the amylopectin content and ratio of short- to long-branch chains. These structural changes in starch partially explained the reduced retrogradation and enhanced slowly digestible starch fraction in the noodles.

Effect of modified soy protein isolate on dough rheological properties and noodle qualities

Soy protein isolate, soy protein hydrolysate (SPH), and texturized soy protein (TSP) were used to fortify flour nutrition, and the rheological properties of dough and qualities of noodles were determined. Soy proteins increased the peak viscosity of flour paste. Dough fortified with TSP also exhibited more solid-like behavior with the highest storage modulus, while dough fortified with SPH showed the lowest storage modulus. Soy proteins increased the cooking loss of noodles. The protein loss of SPH-W noodles was up to 32.0%, much higher than wheat noodles, 13.3%, while the protein loss of TSP-W noodles was only 14.3%. Three types of soy proteins weakened the gluten network on different levels. The larger protein molecules in TSP linked with glutenin and formed the higher molecular polymers, counterbalancing the weakening effects deriving from the interfering with the glutenin–glutenin linkages. Therefore, TSP is more suitable to utilize in noodles. Practical applications Wheat flour noodles are widely consumed in most countries, so the protein quality in noodles is critical to consumer health. The essential amino acid, lysine, is relatively deficient in wheat proteins. Soy protein is rich in lysine and could be used to fortify the nutrition of flour products. However, some negative effects of soy protein on the qualities of flour products have been observed. Therefore, we modified Soy protein isolate (SPI), hoping to increase the interaction between soy protein and wheat protein, and reduce the negative impacts of soy protein on qualities of noodles. Results showed texturized soy protein exhibited fewer negative effects on noodle qualities than SPI and soy protein hydrolysate. The results presented in this study provided us with some useful information about how to select soy proteins to fortify noodle nutrition.

Technological and nutritional properties of instant noodles enriched with chickpea or lentil flour

ObjectiveTo increase the nutritional value of instant noodles, enriched wheat flour with selected legume flours, chickpea or yellow lentil, at substitution ratios of 15%, 20%, and 25%. MethodsThe technological and nutritional properties of the obtained instant noodles were studied in terms of proximate analysis, energy, cooking quality, amino acids content, rheological properties, and sensory evaluation. ResultsEnrichment of durum wheat flour with lentil or chickpea flour improved the resulting instant noodles in terms of protein, crude fat, ash, and crude fiber contents, and contributed in reducing carbohydrates and energy obtained. Lysin, tryptophan, and threonine contents in durum wheat noodles were found to be 2.31, 1.09, and 3.15 g/100 g protein, respectively, which increased to 3.32, 1.34, and 3.45 g/100 g protein, respectively, with 25% replacement of chickpea flour. Greater increases were obtained with 25% replacement with lentil flour as the concentration of lysin, tryptophan, and threonine reached 3.34, 1.27, and 3.61 g/100 g protein, respectively. As the replacement ratio increased, the total essential amino acids increased from 36.96 % to 39.01% with 25% replacement of chickpea flour and 38.59 % with 25% replacement of lentil flour. Water absorption increased significantly from 59.71% to 69.01% with increasing proportion of chickpea or lentil flours in dough mixtures. The elevation in arrival time, dough development time, and stability time among the flour blends with 15% to 25% chickpea or lentil flours ranged from 1.7 to 2.1 min, 4.8 to 5.9 min, and 2.8 to 4.8 min, respectively. Sensory evaluation showed that the panelists significantly (p < 0.05) preferred replacing wheat flour with chickpea flour than lentil flour. ConclusionPresent study concluded that durum wheat flour can be replaced with 25% chickpea flour or 20% lentil flour to improve the nutritional value without negatively affecting rheological properties, cooking characteristics, or sensory qualities.

Bran characteristics impact the whole wheat noodle quality

In this study, whole wheat flour (WWF) was prepared by blending one commercial noodle flour with ten different bran samples from white and red winter wheat varieties. The whole wheat dough properties and noodle qualities were investigated. In general, brans from red wheat varieties exhibited higher total phenolic contents than those from white wheat varieties. Mixolab analysis revealed significant relationships between bran ash, starch, and insoluble dietary fiber (IDF) contents and the mixing and pasting properties of WWF dough. Concerning the noodle quality, bran protein content showed a positive correlation with tensile strength (P < 0.01), elongation distance, springiness, and resilience of cooked noodles. Also, bran IDF content was positively related to the hardness of cooked whole-wheat noodles. These results suggest that bran with higher protein content and lower IDF content is more desirable for the production of whole wheat noodles.

Effect of Hypsizygus marmoreus powder on cooking characteristics, color and texture of wheat noodles

Hypsizygus marmoreus is a kind of edible fungus with high nutritional value. This investigation evaluated the influence of Hypsizygus marmoreus powder on the quality characteristics of noodles. The cooking time, cooked breaking ratio, cooking loss rate, color difference value, texture and sensory of noodles were measured. The addition of 4% to 20% mass fraction of mushroom powder had no significant effect on the cooking time and hardness of the noodles. The cooked breaking ratio of noodles increased from 0% to 13.27%, the cooking loss rate increased from 3.47% to 10.73%, the color difference value increased from 18.23 to 23.58, and the chewing hardness increased from 4569.66 g to 5888.68 g, with the mass fraction of mushroom powder increased from 0% to 20%. The sensory of noodles with 4% mushroom powder is the best. This study provides a certain theoretical basis for the further processing of Hypsizygus marmoreus.

Scientific evaluation of the taste of “udon dashi soup” (soup for thick wheat noodles) served in the restaurant chain

Scientific evaluation of the taste of “udon dashi soup” (soup for thick wheat noodles) served in the restaurant chain

The Effect of Rice vs. Wheat Ingestion on Postprandial Gastroesophageal Reflux (GER) Symptoms in Patients with Overlapping GERD-Irritable Bowel Syndrome (IBS).

A randomized crossover study in twenty-one patients (18F, age 50 ± 13 years) with overlapping GERD-IBS was conducted to evaluate the effects of rice noodles (low FODMAPs) vs. wheat noodles (high FODMAPs) on typical GER symptoms, and the correlation between GERD symptoms and intestinal gas production. Results: Heartburn and regurgitation scores were highest in most patients (19/21) during the first 15 min after meals. At 15 min after lunch, wheat was significantly associated with more regurgitation and heartburn than rice. Also, at 15 min after breakfast, wheat aggravated more regurgitation than rice. Wheat ingestion was significantly associated with higher H2 and CH4 levels after lunch compared to rice, whereas gas levels before lunch were similar (p > 0.05). The area under the curve of H2 and CH4 concentration 15 min after a lunch of wheat moderately correlated with the regurgitation severity at 15-min (r = 0.56, p < 0.05). Conclusion: Wheat induced more GERD symptoms than rice in patients with overlapping GERD-IBS. This effect, immediately developed after lunch, was associated with more intestinal gas production. Thus, a low FODMAPs diet may relieve postprandial GERD symptoms in GERD patients with overlapping IBS. Wheat inducing more regurgitation than rice after breakfast suggests other mechanism(s) besides gut fermentation.

Development of ultrafast PCR for rapid detection of buckwheat allergen DNA (fag e 1) in processed foods

Buckwheat allergy cases are increasingly reported worldwide, coinciding with the increasing consumption of buckwheat due to its high nutritional content. To detect the presence of buckwheat contaminants in food, we designed a buckwheat allergen-specific primer targeting Fag e 1 for use in an ultrafast PCR assay. This method amplified only common and Tartary buckwheat, and showed no cross-reactivity against 22 other plant samples. The limit of detection is 10 copies of plasmid DNA and 0.001% of buckwheat in wheat noodles, similar to that obtained from real-time PCR. In addition, this ultrafast PCR assay successfully detected buckwheat in processed foods within 25 min. The practical application of this method is similar to that of real-time PCR or ELISA. Thus, the ultrafast PCR assay we developed could be utilized as a highly specific and sensitive method for buckwheat detection in processed foods. • Ultrafast PCR for was developed to detect buckwheat allergen Fag e 1. • Buckwheat-specific primer sets amplified both common and Tartary buckwheat. • The limit of detection of this assay was 0.001% buckwheat in wheat. • Practical application in processed foods is similar to that of real-time PCR or ELISA. • This assay takes only 25 min to identify buckwheat in processed products.

Effects of Four Enzymes on Rheology of Dough and Texture of Noodles of Red Bean Wheat

To improve the texture of red bean wheat noodles, 30 g red bean powder and 70 g wheat flour were mixed and added with 1 U Lipase, 4 U Glucose oxidase, 3 U transglutaminase and 3 U xylanase, respectively. The rheological properties of dough and texture properties of noodles were determined. The results showed that the addition of lipase, glucose oxidase and transglutaminase, increased the hardness of red bean wheat noodles, and the increase amplitude was 3588, 4183 and 6190 g, respectively. The chewiness increased by 1311, 1527 and 2673, respectively. The addition of xylanase decreased the hardness of red bean wheat noodles by 97.67 g, and the chewiness by 134.48 g. In summary, lipase, glucose oxidase and transglutaminase could improve the texture and quality of red bean wheat noodles. Among them, transglutaminase had the most remarkable effect on improving the texture quality of red bean wheat noodles.

Production of cracker biscuits using high-protein Australian Noodle Wheat (ANW)

Australian Noodle Wheat (ANW) is soft-grained wheat primarily grown to suit the production of Japanese udon noodles. ANW with grain protein content above 11.5% (11% m.b.) is classed as ANW2 and traded at a discounted price due to no specific end-use. This study hypothesizes that off-graded ANW2 is suitable to produce cracker biscuits. Evaluation of ANW with 9.7–15.0% protein content shows that those above 11.5% make crackers with higher stack height and lower checking rates. ANW extensibility (r = 0.5, p < 0.05) and development time (r = 0.7, p < 0.01) correlate positively with stack height. The raw dough weight correlates negatively with checking (r = −0.8, p < 0.001), but positively with glutenin (r = 0.5, p < 0.05), α/β-gliadins (r = 0.6, p < 0.05), maximum resistance (r = 0.6, p < 0.05) and development time (r = 0.6, p < 0.01). The α/β-gliadins, maximum resistance and development time correlate negatively (r = 0.5, p < 0.05) with checking. The cracker qualities are not related to glutenin to gliadin ratio, proportions of ω- and γ-gliadins and unextractable polymeric protein. ANW with high protein content contributes to the high extensibility with adequate dough strength required to achieve good cracker stack height while favorably lowering checking rates. ANW2 containing 12–13.0% protein content is ideal for cracker making. This study shows the advantage of applying downgraded ANW in crackers; this may increase its value and benefit the farming industry and biscuit manufacturers.

Effect of processing on the solubility and molecular size of oat β-glucan and consequences for starch digestibility of oat-fortified noodles

White wheat salted noodles containing oats have a slower digestion rate those without oats, with potential health benefits. Oat β-glucan may play an important role in this. Effects of sheeting and shearing during noodle-making and subsequent cooking on β-glucan concentration, solubility, molecular size and starch digestibility were investigated. The levels of β-glucan were reduced by 16% after cooking, due to the loss of β-glucan into the cooking water. Both the noodle-making process and cooking increased the solubility of β-glucan but did not change its average molecular size. Digestion profiles show that β-glucan in wholemeal oat flour did not change starch digestion rates compared with isolated starch, but reduced the starch digestion rate of oat-fortified wheat noodles compared to the control (wheat noodles). Confocal laser scanning microscopy suggests that interaction between β-glucan and protein contributes to the starch-protein matrix and changes noodle microstructure, and thus alters their digestibility.

Buckwheat noodles: processing and quality enhancement.

In recent years, buckwheat noodles have gained increased importance because of their functional properties. These qualities are attributed to the abundance of bioactive compounds (e.g., rutin, quercetin) and nutraceuticals (e.g., B vitamins, unsaturated fatty acids). Buckwheat noodle consumption has been shown to be associated with improved metabolic health. Buckwheat flour exhibits properties similar to those of common cereal flours in food processing, but devoid of gluten. However, the maintenance of good textural properties and high sensory acceptability are key challenges in the development of gluten-free products, and these limitations prevented widespread application of buckwheat in the food industry. Nevertheless, continuous technological developments related to raw materials processing, noodle processing, and noodle quality enhancement have contributed to the growing popularity and acceptability of buckwheat noodles in recent times. These improvements could render buckwheat noodles a healthy gluten-free alternative to wheat noodles.

Inhibition Effect of Extract of Psychotria viridiflora Stem on α-Amylase and α-Glucosidase and Its Application in Lowering the Digestibility of Noodles.

A collection of tropical medicinal plants from East Malaysia's rainforests are used by indigenous tribes for their curative properties. Despite their purported healing properties, these forest plant species are largely unexplored and hence remain virtually unknown to the outside world. In this study, antidiabetic properties of Psychotria viridiflora, a plant used to treat diabetes by a local community in Sarawak, Malaysia were investigated. Ethyl acetate (EA) extract of P. viridiflora stem was found to exhibit high starch hydrolase inhibition activity with an IC50 value of 15.4 ± 2.1 μg/ml against porcine α-amylase and an IC50 value of 32.4 ± 3.7 μg/ml against rat intestinal α-glucosidase. A complex mixture of A-type oligomeric proanthocyanidins containing (epi)fisetinidol, (epi)afzelechin, (epi)guibourtinidol, and (epi)catechin were found. These compounds may be responsible for the starch hydrolase inhibition activity. Ethyl acetate (EA) extract of P. viridiflora stem was incorporated into wheat and rice flour to reformulate noodles with slow digestibility and was assessed under in vitro simulated gastrointestinal conditions. A dose-dependent effect on digestibility was observed for both noodles upon incorporation of 1-6% (w/w) of EA extract, with noodles containing 6% (w/w) extract exhibiting the greatest reduction in digestibility. As compared to rice noodles containing 6% extract (31.16% inhibition), wheat noodles with the same extract concentration had a smaller decline in digestibility (27.25% inhibition) after 180 min. Overall, our findings highlight the potential of P. viridiflora in the prevention of postprandial hyperglycaemia.

Interpreting the correlation between repeated sheeting process and wheat noodle qualities: From water molecules movement perspective

Water, composed by hydrogen and oxygen elements, plays a prominent role in noodle production, especially in the sheeting process. To reveal the influence mechanism of water molecules movement on noodle qualities, several chemical interactions, gluten properties of the noodles sheeted by 1, 3 and 5 times were investigated in this study. The results of LF-NMR analysis showed that increased sheeting times confined the hydrogen protons mobility, and adjusted the composition proportion of hydrogen protons. These proton redistributions were captured by MRI and were correlated with the strongest hydrogen bonds and the most S–S content at 3 times of sheeting. Meanwhile, the stability and cohesiveness of the gluten network were enhanced, as reflected by increased β-sheets, larger polymeric proteins and decreased end-points rate, which determined the cooking and texture properties changes. Overall, during the sheeting process, water molecules could participate in gluten network formation for regulating the noodle qualities through a series of chemical interactions.

Effects of konjac glucomannan on the long-term retrogradation and shelf life of boiled wheat noodles.

Starch retrogradation and moisture migration of boiled wheat noodles (BWNs) result in quality deterioration and short shelf life. The objective of this research was to investigate whether konjac glucomannan (KGM) could improve the quality of BWNs and further establish the shelf-life prediction model. The moisture distribution, recrystallization, and thermal properties of BWNs during refrigerated or ambient temperature storage were determined. Low-field nuclear magnetic resonance data showed that KGM addition induced left-shifts of T21 and T22 values, indicating that KGM limited the mobility of bound and immobile water among noodle matrices. X-ray diffraction spectra revealed that KGM did not change the crystal patterns of BWNs but could inhibit the starch recrystallization after refrigerated storage. The Tp and ΔH values of retrograded samples notably (P < 0.05) decreased with the increase of KGM addition, suggesting the hinderance of starch retrogradation behavior by KGM. The shelf life of BWNs was predicted by accelerated storage test combined with the Arrhenius equation. The present data displayed that the predicted shelf life of vacuum-packed and sterilized BWNs with 10g kg-1 KGM at 25 °C was 733 days, 2.4-fold that of the control group. BWNs with KGM addition could inhibit starch retrogradation and improve the storage stability, consequently promoting noodle quality. © 2021 Society of Chemical Industry.

Effect of Superheated Steam Treatment on the Lipid Stability of Dried Whole Wheat Noodles during Storage.

Dried whole wheat noodles (DWWN) are a kind of nutritious convenience food with broad market prospects. However, due to the presence of high content of unsaturated fatty acids (UFAs) and lipid degrading enzymes, the shelf life and edible quality of DWWN are easily affected. This study explored the effect of superheated steam treatment (SST-155 °C-10 s, SST-170 °C-10 s, SST-190 °C-5 s) on the lipid stability of DWWN. The lipase, lipoxygenase and peroxidase of the DWWN treated with superheated steam were completely passivated during storage. After 12 weeks of storage, the fatty acid value of DWWN increased by 35.1, 17.9, 15.9, 24.6 mg NaOH/100 g in the groups of control, SST-155 °C-10 s, SST-170 °C-10 s, SST-190 °C-5 s, respectively; whereas the content of UFAs decreased by 13.5%, 6.8%, 5.4%, and 2.7%, respectively. The content of 2-pentylfuran in the SST-155 °C-10 s, SST-170 °C-10 s, SST-190 °C-5 s group was 0.7, 0.6, and 0.4-fold than that of the control group, respectively. In addition, the total tocopherol and total volatile compounds of the SST-190 °C-5 s group were 2.4 and 0.7-fold than that of the control group, respectively. Therefore, SST should be a new technology that can improve the lipid stability of DWWN.

Effects of ultrasound‐assisted resting on the qualities of whole wheat dough sheets and noodles

SummaryThe effects of resting under ultrasonic treatment on the properties of whole wheat dough sheets and noodles were investigated. Compared with the control group, the resting time to reach the maximum breaking force and extensibility of whole wheat dough sheets treated with ultrasound was shortened by 20 min. The proportion of strongly bound water (T21) decreased, while the proportion of weakly bound water (T22) increased during resting, and the ultrasonic treatment could accelerate this moisture redistribution in the dough. The extent of the increase in gluten macropolymer and the decrease in –SH content of ultrasound‐treated wheat dough was higher than that of the control one during the initial 5–15 min resting, which could be related to the improvement of whole wheat dough extensibility. Whole wheat noodles showed a better breaking distance for 10 min of ultrasonic‐assisted resting. Ultrasonic treatment could be used to reduce the resting time of whole wheat dough sheets and improve the texture properties of noodles.