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Summary: Our study focuses on the gelling properties of pea protein (PP), which are comparatively weaker than those of other plant proteins, thereby limiting its application. However, we found that the addition of κ‐carrageenan (κ‐CAR) significantly (P < 0.05) increased PP gels' hardness and water‐holding capacity irrespective of gel formation temperature (80 or 95 °C). Rheological and microstructural analysis confirmed a synergistic effect between PP and κ‐CAR, with higher synergy values observed in hydrogels formulated at 95 °C. Molecular force studies revealed that non‐covalent interactions were dominant, with disulphide bonds contributing only to the structure of gels formed at 95 °C. These promising findings not only enhance our understanding of the PP and κ‐CAR gel formation mechanism but also hold practical implications, potentially leading to improved gelling properties of PP and expanding its applications in the food industry. [ABSTRACT FROM AUTHOR]

This study investigated the synergistic effects of three protein concentrates from legumes (pea, lentil, and lima bean) as emulsifiers and stabilizers of oil-in-water (O/W) emulsions using a simplex-centroid mixture design. The aim was to check whether proteins combined in different proportions have better emulsifying properties than isolated proteins. During this study, each protein concentrate was characterized by different evaluated parameters: emulsifying activity, emulsion stability, accelerated stability test, thermal coagulation time, stability to coalescence, and others. After statistical analysis mixture optimization, it was found that the best formulation for stabilizing O/W emulsion under the tested conditions (2% total protein; 3% sunflower oil) was the protein blend containing 21.21% pea, 32.78% lentil, and 46.01% fava bean. This blend exhibited better emulsification properties compared to the individual proteins. [ABSTRACT FROM AUTHOR]

As older adults tend to reduce their intake of animal-source proteins, plant-source proteins may offer valuable resources for better protein intake. The aim of this study was to assess whether the pea proteins can be used to achieve blood amino acid levels that stimulate muscle protein synthesis. We measured variations in plasma amino acid concentrations in young and older adults given pea (NUTRALYS® S85 Plus) or whey proteins either alone or in a standardized meal. The effect of amino acid concentrations on protein synthesis in C2C12 myotubes was determined. In terms of results, plasma amino acid concentrations reflected the difference between the amino acid contents of whey and pea proteins. Blood leucine showed a greater increase of 91 to 130% with whey protein compared to pea protein, while the opposite was observed for arginine (A greater increase of 147 to 210% with pea compared to whey). Culture media prepared with plasmas from the human study induced age-dependent but not protein-type-dependent changes in myotube protein synthesis. In conclusion, pea and whey proteins have the same qualities in terms of their properties to maintain muscle protein synthesis. Pea proteins can be recommended for older people who do not consume enough animal-source proteins. [ABSTRACT FROM AUTHOR]

Copyright of Shipin Kexue/ Food Science is the property of Food Science Editorial Department and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

The objective of this research was to explore the viability of pea protein as a substitute for gelatin in the complex coacervation process, with a specific focus on understanding the impact of incorporating an emulsifier into this process. The study involved the preparation of samples with varying polymer mixing ratios (1:1, 1:2, and 2:1) and emulsifier content. As core substances, black pepper and juniper essential oils were utilized, dissolved beforehand in grape seed oil or soybean oil, to minimize the loss of volatile compounds. In total, 24 distinct samples were created, subjected to freeze‐drying to produce powder, and then assessed for their physicochemical properties. Results revealed the significant impact of emulsifier addition on microcapsule parameters. Powders lacking emulsifiers exhibited higher water solubility (57.10%–81.41%) compared to those with emulsifiers (24.64%–40.13%). Moreover, the emulsifier significantly decreased thermal stability (e.g., without emulsifier, Ton = 137.21°C; with emulsifier, Ton = 41.55°C) and adversely impacted encapsulation efficiency (highest efficiency achieved: 67%; with emulsifier: 21%). [ABSTRACT FROM AUTHOR]

Plant-based proteins show poor functional properties and when a balanced source of amino acids is required, it cannot be provided only by a single source of plant-based protein. This study aims to enhance the functional and digestibility properties of hemp seed meal (HSM) protein by hydrolyzation (HPH) through ultrasonication and enzymatic treatment. The blending of HPH with pea protein isolate (PPI) was conducted to improve the amino acid profile. During ultrasonication, the protein content was significantly affected (p < 0.05) by ultrasonication time and solid-to-solvent ratio but not by the amplitude. Degree of hydrolysis was significantly (p < 0.05) affected by all three variables. Optimal hydrolysate was prepared by ultrasonication at 80% amplitude for 10 min and solid-to-solvent ratio of 1:30, with a protein content of 64.57% and a degree of hydrolysis (DH) of 6.25%. Under these conditions, papain treated HPH exhibited an increase in protein concentration (84.2%) and DH (17.3%). The blend of HPH and PPI in the ratio of 1:1 showed improved protein content (85.5%) with significant (p < 0.05) increase in solubility (72.8% at pH 7). This blend showed a good emulsifying activity index (33.4 m2/g) emulsifying stability (35.3 min), oil holding capacity (2 g/g), water holding capacity (1.8 g/g), foaming capacity (195.8%), and foaming stability (85.2%). This blend also displayed a balanced amino acid profile, with methionine and lysine contents of 1.63 mg/g and 5.88 mg/g, respectively. The blend of PPI:HPH (1:1) showed integration of HPH into the PPI matrix, due water bridging between protein particle as observed by scanning electron microscopy (SEM). The amide I at 1627.6 cm−1 in HSM shifted to 1633.7 cm−1 in HPH and amid II at 1518.7 cm−1 in HSM shifted to 1535.3 cm−1 in HPH indicating a change in secondary structure of HSM due to ultrasonication and enzymatic hydrolysis. In Vitro protein digestibility of 1:1 blend was also higher compared to other samples. The blend of HPH and PPI blend have good potential for creating nutritionally enhanced and functionally superior plant-based food products. [ABSTRACT FROM AUTHOR]

The rheological characteristics of pea protein (PP100%) and alginate (AG100%) as pure and mixed gels with different levels of pea protein (AP90:10, AP80:20, and AP70:30) were investigated via large-amplitude oscillatory shear (LAOS) and Fourier transform infrared (FTIR). Small-angle oscillatory shear (SAOS) was carried out for the samples, and a slight frequency dependence of the storage modulus (G′) and the loss modulus (G″) was observed for the pastes and gels, indicating the formation of a weak network, which is crucial for understanding the gel's mechanical stability under small levels of deformation. Elastic and viscous Lissajous curves from the LAOS measurement at different levels of strain (1 to 1000%) elucidated that the mixed gels formed a strong network, which showed breakdown at high deformation (>100% strain). The synergistic strengthening of the network of the mixture was noticeable in the Fourier transform and Chevyshev harmonic analyses. This analysis indicated that the nonlinearity of e3/e1 and v3/v1 started at higher levels of strain for the mixed gels. The FTIR spectra revealed that there was no strong interconnection by crosslinking between pea protein and sodium alginate, indicating that the synergistic effect mainly came from electrostatic interactions. These findings suggest that combining alginate with pea protein can enhance the mechanical properties of gels, making them suitable for various food applications. [ABSTRACT FROM AUTHOR]

Copyright of Science & Technology of Cereals, Oils & Foods is the property of Science & Technology of Cereals, Oils & Foods Editorial Office and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

The aim of this study was to prepare and characterize stable non−covalent ternary complexes based on pea protein (PP, 0.5%), hyaluronic acid (HA, 0.125%), and chlorogenic acid (CA, 0~0.03%). The ternary complexes were comprehensively evaluated for physicochemical attributes, stability, emulsifying capacities, antioxidant properties, and antimicrobial efficacy. PP-HA binary complexes were first prepared at pH 7, and then CA was bound to the binary complexes, as verified by fluorescence quenching. Molecular docking elucidated that PP interacted with HA and CA through hydrogen bonding, hydrophobic and electrostatic interactions. The particle size of ternary complexes initially decreased, then increased with CA concentration, peaking at 0.025%. Ternary complexes demonstrated good stability against UV light and thermal treatment. Emulsifying activity of complexes initially decreased and then increased, with a turning point of 0.025%, while emulsion stability continued to increase. Complexes exhibited potent scavenging ability against free radicals and iron ions, intensifying with higher CA concentrations. Ternary complexes effectively inhibited Staphylococcus aureus and Escherichia coli, with inhibition up to 0.025%, then decreasing with CA concentration. Our study indicated that the prepared ternary complexes at pH 7 were stable and possessed good functionality, including emulsifying properties, antioxidant activity, and antibacterial properties under certain concentrations of CA. These findings may provide valuable insights for the targeted design and application of protein-polysaccharide-polyphenol complexes in beverages and dairy products. [ABSTRACT FROM AUTHOR]

Copyright of Shipin Kexue/ Food Science is the property of Food Science Editorial Department and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

Copyright of China Condiment is the property of China Condiment and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

Animal-sourced whey protein (WPr) is the most popular protein supplement among consumers and has been shown to improve muscle mass and strength. However, due to allergies, dietary restrictions/personal choices, and growing demand, alternative protein sources are warranted. Sedentary adults were randomized to pea protein (PPr) or WPr in combination with a weekly resistance training program for 84 days. Changes in whole-body muscle strength (WBMS) including handgrip, lower body, and upper body strength, body composition, and product perception were assessed. The safety outcomes included adverse events, vital signs, clinical chemistry, and hematology. There were no significant differences in the change in WBMS, muscle mass, or product perception and likability scores between the PPr and WPr groups. The participants supplemented with PPr had a 16.1% improvement in WBMS following 84 days of supplementation (p = 0.01), while those taking WPr had an improvement of 11.1% (p = 0.06). Both study products were safe and well-tolerated in the enrolled population. Eighty-four days of PPr supplementation resulted in improvements in strength and muscle mass comparable to WPr when combined with a resistance training program in a population of healthy sedentary adults. PPr may be considered as a viable alternative to animal-sourced WPr without sacrificing muscular gains and product enjoyment. [ABSTRACT FROM AUTHOR]

The perception of fat-related sensory attributes in food emulsions during oral processing mainly depends on the complex interactions between the emulsion droplets and the oral soft surface as well as saliva. A range of surface behaviors including adhesion, wetting, and spreading of emulsion droplets on the tongue surface influence the frictional and lubricative properties of emulsions. In this study, the effect of oil droplet size, applied normal load, and saliva addition on the tribological properties of an oil-in-water (O/W) emulsion prepared using microfluidized pea protein isolate (PPI) as an emulsifier. The results showed that with increasing applied normal load (0.5-2.0 N), the friction coefficient of the emulsion decreased obviously. With the decrease in droplet size, the number of droplets available for entrainment increased, resulting in a decrease in friction coefficient (10%-30%) and a decrease in boundary regime range of 15%-20% and thus enabling lubrication at lower entrainment speeds. During simulated oral processing, addition of saliva induced the flocculation of droplets, increasing droplet size, preventing droplets from being entrained into the oral surface, and ultimately resulting in a higher friction coefficient for the emulsion. This study can provide technical support for regulating the oral texture sensory properties of pea protein-based emulsion and the development of plant-based products.

In order to construct a suitable pea protein-based 3D printable meat analog system, this study explored the effects and mechanism of the addition of pea dietary fiber, gluten, gellan gum and glutamine transaminase on the 3D printing performance and product quality of mixture systems using one-factor-at-a-time and orthogonal array design methods. The results showed that the 3D printing performance, texture characteristics and product characteristics significantly changed depending on the concentration of each ingredient. Using the orthogonal array method, the optimal formulation that provided the best 3D printing performance was determined as 0.45%, 5:1, 0.4% and 1.2 U/g for pea dietary fiber concentration, ratio of pea protein to gluten, gellan gum concentration and glutamine transglutaminase dosage, respectively. After the optimization, the printing accuracy improved by 27.80%. The hardness of the printed sample after cooking was 3 612.13 g, and the chewiness was 1 540.27 g·mm. In addition, the texture characteristics were better than those of the unoptimized sample. The results of infrared spectroscopy and intermolecular force showed that the addition of the components significantly enhanced the hydrogen bond, disulfide bond and hydrophobic interaction in the system. Compared with three commercially available artificial meat samples, the optimized sample exhibited significant advantages in texture characteristics, cooking loss and water-holding capacity, which were related to the structure formed by 3D printing and the interaction among the components. This study provides theoretical guidance and a basis for the application of pea protein in 3D printed plant-based meat.

The present research employed sodium alginate (SA) and pea protein isolate (PPI) as primary materials to explore the impact of pre-gelation time on the rheological properties, 3D printability, and swallowing properties of SA-PPI composite gel. Additionally, in vitro release capabilities of 3D printed products carrying curcumin (Cur) were studied. The results illustrated that adjusting the pre-gelation time could enhance the rheological properties, 3D printability, swallowing ability, encapsulation efficiency, and slow-release capabilities of the composite gel. Specifically, the SA-PPI composite gel (SA-PPI22) with pre-gelled for 22 min, displayed the optimal viscosity and recovery, which facilitated extrusion and shape retention during the 3D printing process. Moreover, SA-PPI22 exhibited a smooth surface quality in its 3D printed structures, along with exceptional self-supporting ability and swallowing performance meeting grade 5 fine filling food standards. Furthermore, SA-PPI22 delayed its release rate in vitro. This study could contribute to the advancement of hydrogel applications in the field of 3D printing and offer the theoretical groundwork for the development of SA-PPI composite gels in dysphagia-friendly food products.

In recent years, the demand for foods without animal proteins has increased, both for health and ethical reasons. Replacing animal protein in foods can result in unappealing textures, hindering consumer acceptance. In this context, interfacial properties also play a crucial role in food systems like foam or emulsions. Therefore, the interfacial rheological behavior at the air–water interface of pea protein isolate (PPI) has been investigated to understand how affects food foam production. The PPI has been studied without modification and also through enzymatic treatment with transglutaminase (TG) to understand the interfacial properties of the modified proteins. Data obtained by static measurements have shown a surface activity of PPI comparable with other vegetable proteins, while the treatment with TG does not significantly alter the surface tension value and the interfacial adsorption rate. Differences have been found in the rearrangement rate, which decreases with TG, suggesting a possible crosslinking of the pea proteins. The PPI modified with TG, studied in dynamic conditions both in dilation and shear kinematics, are less elastic than PPI that is untreated but with a higher consistency, which may lead to poor foam stability. The lower complex interfacial modulus obtained under shear conditions also suggests a low long-time stability.

With the increasing awareness of healthy diet and environmental protection, plant-based meat products have been rapidly developed at home and abroad. The objective of this study was to examine how the ratio of pea tissue protein to gluten, along with the additions of sweet potato starch, rapeseed oil, and red yeast red, affected the sensory scores and chewiness of plant-based meat. On the basis of single factor experiments, the plant-based formula was optimized using Box Behnken response surface methodology and texture analysis, and the optimal formula was tested for physicochemical indicators and in vitro digestion tests. The results showed that the ratio of pea tissue protein to gluten was 7:3 (g/g), along with 6% sweet potato starch, 10% rapeseed oil, and 0.03% safflower red, resulted in plant-based meat with favorable sensory scores (88.31) and chewability (3.131). The protein content of the plant-based meat obtained from the optimal formula was 15.70%, the fat content was 2.33%, and the moisture content was 57.79%. According to texture analysis, there were significant differences in hardness, adhesiveness, and chewiness between plant meat and pork loin, beef, and chicken, in addition to elasticity. The results of in vitro digestion analysis showed that the protein digestibility of plant meat was 80.83%, while that of beef was 87.50%. The difference between the two was small, indicating that plant meat had good digestion ability. The plant meat made from pea tissue protein provides reference materials for further development, application, and other related industries.

This paper investigates the functional and technological properties of proteins in the composition of dairy ice cream. The object of the research was the technology of ice cream with plant-based proteins. The problem to be solved was the improvement of physicalchemical and rheological characteristics of mixtures and ice cream with a low fat content by using moisture-binding structuring proteins of plant origin. It was established that pea protein concentrate has the highest foaming properties. Oat protein concentrate shows a moderate ability to form and stabilize foams, while soy protein isolate does not reveal this function at all. The presence of plant-based proteins in all ice cream mixtures increases their nominal viscosity, but the highest thixotropy is observed for the concentrate of pea (56.5–61.0 %) and oat (54.8–57.2 %) proteins. They form food systems with a pronounced coagulation structure, which are capable of self-repair of bonds during the maturation of mixtures for 8 hours. Soy protein isolate reduces the thixotropic ability of ice cream mixtures, which limits the expediency of its use. The defined physical-chemical indicators of ice cream make it possible to justify the rational content of proteins in the composition of ice cream, which is 1–2 % for pea protein concentrate and 1 % for oat protein concentrate. Data on the rheological behavior of ice cream mixtures do not always coincide with previously established patterns, which is due to the difference in chemical composition between the studied food systems, as well as methods of their preparation and use. The results of this work could be used in the technology of lowfat ice cream, as well as in compositions for new types of ice cream enriched with protein. [ABSTRACT FROM AUTHOR]

In response to the growing demand for texture-modified foods that are safe to swallow and appealing to the elderly with dysphagia, this study aimed to create a dysphagia diet by 3D printing using pea protein incorporated with various gums (xanthan gum (XG), locust bean gum (LBG), and konjac gum (KG)) at concentrations of 0.3%, 0.5%, and 0.7% (w/w). Various aspects, including rheological properties, moisture distribution, texture properties, 3D printing, and sensory properties, were investigated for samples with different formulations. The results showed that the yield stress and viscosity decreased in samples containing XG, while they increased in samples containing LBG and KG. The addition of XG reduced hardness and adhesiveness, whereas KG incorporation had the opposite effect. Notably, samples with 0.5% XG exhibited optimal 3D printing behavior. The potential of these samples as dysphagia diets was tested through International Dysphagia Diet Standardization Initiative (IDDSI) tests and sensory evaluation. The findings indicated that the inclusion of XG enhanced swallowing ease and oral comfort while reducing oral adhesion sensation, whereas KG had the opposite effect. The ink samples containing 0.5% XG demonstrated desirable 3D printing character and chewing/swallowing property and could be regarded as level 4-pureed/extremely thick dysphagia diets within the IDDSI framework. This study gives valuable ideas into the 3D-printed dysphagia diet development. [ABSTRACT FROM AUTHOR]

In recent years, the demand for foods without animal proteins has increased, both for health and ethical reasons. Replacing animal protein in foods can result in unappealing textures, hindering consumer acceptance. In this context, interfacial properties also play a crucial role in food systems like foam or emulsions. Therefore, the interfacial rheological behavior at the air–water interface of pea protein isolate (PPI) has been investigated to understand how affects food foam production. The PPI has been studied without modification and also through enzymatic treatment with transglutaminase (TG) to understand the interfacial properties of the modified proteins. Data obtained by static measurements have shown a surface activity of PPI comparable with other vegetable proteins, while the treatment with TG does not significantly alter the surface tension value and the interfacial adsorption rate. Differences have been found in the rearrangement rate, which decreases with TG, suggesting a possible crosslinking of the pea proteins. The PPI modified with TG, studied in dynamic conditions both in dilation and shear kinematics, are less elastic than PPI that is untreated but with a higher consistency, which may lead to poor foam stability. The lower complex interfacial modulus obtained under shear conditions also suggests a low long-time stability. [ABSTRACT FROM AUTHOR]

In this paper, pea protein (PPI) with sodium alginate (SA) and phosphate complex (CP) was used as raw material to improve the quality of pea protein simulated meat products. The quality of the organised pea protein was evaluated by examining the rehydration, oil retention, nitrogen solubility index, textural properties, colour difference, sensory and microstructure of the organised product. The results showed that the addition of 0.1% SA increased the rehydration of the organised product by 44.15%, and the extrudates with 0.3% SA achieved the maximum NSI (5.10), degree of organisation (1.793) and sensory score (7.85). The denaturation of the protein in the extruder barrel and the exposure of the hydrophobic groups while the molecular chains unfolded enhanced the interaction between the protein and the oil causing a 19.39% increase in the oil-holding properties. The addition of 0.3% CP resulted in a maximum of 1.806 organisational degree of the protein product, which was observed by scanning electron microscopy to have a more pronounced fibrous structure. Thus, appropriate levels of sodium alginate (0.3%) and phosphate complex (0.3%) improved the quality characteristics of the organised pea protein product. [ABSTRACT FROM AUTHOR]

Unsaturated fat replacement should be used to reduce the use of saturated fat and trans fatty acids in the diet. In this study, pea protein micro-gels (PPMs) with different structures were prepared by microparticulation at pH 4.0–7.0 and named as PPM (pH 4.0), PPM (pH 4.5), PPM (pH 5.0), PPM (pH 5.5), PPM (pH 6.0), PPM (pH 6.5), and PPM (pH 7.0). Pea protein was used as a control to evaluate the structure and interfacial properties of PPMs by particle size distribution, Fourier transform infrared spectroscopy (FTIR), free sulfhydryl group content, and emulsifying property. PPM (pH 7.0) was suitable for application in O/W emulsion stabilization because of its proper particle size, more flexible structure, high emulsifying activity index (EAI) and emulsifying stability index (ESI). The Pickering emulsion stabilized by PPM (pH 7.0) had a uniform oil droplet distribution and similar rheological properties to cream, so it can be used as a saturated fat replacement in the manufacture of ice cream. Saturated fat was partially replaced at different levels of 0%, 20%, 40%, 60%, 80%, and 100%, which were respectively named as PR0, PR20, PR40, PR60, PR80, and PR100. The rheological properties, physicochemical indexes, and sensory properties of low-saturated fat ice cream show that PPM (pH 7.0)-stabilized emulsion can be used to substitute 60% cream to manufacture low-saturated fat ice cream that has high structural stability and similar melting properties, overrun, and sensory properties to PR0. The article shows that it is feasible to prepare low-saturated fat ice cream with PPM (pH 7.0)-stabilized Pickering emulsion, which can not only maintain the fatty acid profile of the corn oil used, but also possess a solid-like structure. Its application is of positive significance for the development of nutritious and healthy foods and the reduction of chronic disease incidence. [ABSTRACT FROM AUTHOR]

Plant proteins have the advantages of low cost and high yield, but they are still not comparable to animal proteins in processing due to factors such as gelation and solubility. How to enhance the processing performance of plant proteins by simple and green modification means has become a hot research topic nowadays. Based on the above problems, we studied the effect of gel induction on its properties. In this study, a pea protein–zein complex was prepared by the pH cycle method, and the effects of different induced gel methods on the gel properties of the complex protein were studied. The conclusions are as follows: All three gel induction methods can make the complex protein form a gel system, among which the gel strength of heat treatment and the TG enzyme-inducted group is the highest (372.84 g). Through the observation of the gel microstructure, the gel double network structure disappears and the structure becomes denser, which leads to a stronger water-binding state of the gel sample in the collaborative treatment group. In the simulated digestion experiment, heat treatment and enzyme-induced samples showed the best slow-release effect. This study provides a new method for the preparation of multi-vegetable protein gels and lays a theoretical foundation for their application in food processing. [ABSTRACT FROM AUTHOR]

In white wine production, for some grape varieties, it is beneficial to technologically reduce the concentration of the polyphenols to make the final wine less bitter and astringent. Normally, the removal of excessive polyphenols is addressed by fining the wine with polyvinylpolypyrrolidone (PVPP), a synthetic polymer, or animal proteins, which bind the tannins. However, the nowadays trend is to replace the products of animal or synthetic origin with vegetal or inorganic ones. In this paper innovative technologies based on treatments with pea protein, alone and in combinations with other vegetal or inorganic products, were tested. Also, as another innovation, the treatments were performed directly on the must, to remove some of the polyphenols before they can be oxidized. Six variants of Tamâioasa romaneasca, treated with pea proteins and combinations of agents, were compared with a non-treated variant and with the classical treatment with PVPP. The resulting wines were evaluated by professional tasters based on a complex sensory evaluation sheet and sensory profiles were determined for all variants. Multivariate statistics analysis was also applied to determine the most promising alternative treatments acceptable for the wine consumers. [ABSTRACT FROM AUTHOR]

Copyright of Food Research & Development is the property of Food Research & Development Editorial Department and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

This study focuses on developing a water-in-oil-in-water (W1/O/W2) double emulsion system using high-intensity ultrasound (HIU)-treated pea protein isolate (HIU-PPI) and pectin to encapsulate Lactobacillus plantarum (L. plantarum). The effects of ultrasound treatment on pea protein isolate (PPI) characteristics such as solubility, particle size, emulsification, surface hydrophobicity, and surface free sulfhydryl group were examined, determining optimal HIU processing conditions was 400 W for 10 min. The developed W1/O/W2 double emulsion system based on HIU-PPI demonstrated effective encapsulation and protection of L. plantarum, especially at the HIU-PPI concentration of 4 %, achieving an encapsulation efficiency of 52.65 %. Incorporating both HIU-PPI and pectin as emulsifiers increased the particle size and significantly enhanced the emulsion’s viscosity. The highest bacterial encapsulation efficiency of the emulsion, 59.94 %, was attained at a HIU to pectin concentration ratio of 3:1. These emulsions effectively encapsulate and protect L. plantarum, with the concentration of HIU-PPI being a critical factor in enhancing probiotic survival under simulated gastrointestinal digestion. However, the concurrent utilization of pectin and HIU-PPI as emulsifiers did not provide a notable advantage compared to the exclusive use of HIU-PPI in enhancing probiotic viability during in vitro simulated digestion. This research offers valuable perspectives for the food industry on harnessing environmentally friendly, plant-based proteins as emulsifiers in probiotic delivery systems. It underscores the potential of HIU-modified pea protein and pectin in developing functional food products that promote the health benefits of probiotics.

In order to satisfy the demand of consumers for a diversified intake of high quality protein, a fermented plant-based milk substitute product was developed from pea protein. The relationship between the addition of pea protein powder, pea starch and white sugar and the organoleptic quality of the product was analysed in an orthogonal test to determine the optimum amount of pea protein powder, pea starch and white sugar. The results showed that the best fermentation effect was achieved at 4 h and 10% inoculum of fermenting agent. The main physical properties of the product were as follows: Brightness (L*) 74.74±0.02, hardness 124.45±0.30 g, viscosity 233.11±7.27 g·s, water holding capacity 92.13%. The product was a non-Newtonian fluid and elastic, the surface microstructure was denser, more porous and smaller compared to traditional yoghurt. Therefore, this study provides technical support for the development of new plant-based yoghurt and further broadening the application and production of plant-based yogurt.

Plant-based protein food products are considered healthier, more nutritious, and substantially ‘greener’ than meat-based dietary offerings. For reasons such as these plant protein sources including peas/legumes, soy and algae are experiencing unprecedented market popularity. Amidst the multitude of alternative protein-based foods on offer, peas are the most promising plant-protein source as they contain all the essential amino acids and have a well-balanced nutritional profile in terms of fat and fibre. However, understanding the extent of the market feasibility of the respective pea protein supply chains (SCs), based on practical expertise, is of utmost importance for policymakers and industrialists alike to evaluate the growth potential of peas as a protein source. To this end, a survey was conducted among pea SC stakeholders to create an understanding of the level of market feasibility of pea protein-based products. A SWOT analysis consolidated the different views and resulted in the identification of specific strengths, weaknesses, opportunities, and threats within the industry. By focusing on understanding the challenges and prospects within pea-protein product SCs, this research provides a springboard for further research investigations into related plant protein-based products. The resulting blueprint of recommended initiatives can help inform the further development of pea protein SCs.

This research aimed to explore binding interactions between pea protein isolate (PPI) and selected strawberry flavorings including vanillin, γ-decalactone, furaneol, and (Z)-3-hexen-1-ol within an aqueous system. The results showed that binding affinities of PPI with all various functional group of flavor compounds decreased as temperature increased from 5 °C to 25 °C. Notably, at 25 °C, γ-decalactone displayed the highest binding affinity, followed by vanillin, (Z)-3-hexen-1-ol, and furaneol. Lowest binding was observed for furaneol, explained by its greater lipophilicity (lower partition coefficient values or LogP value) and molecular structure in each functional group in the flavor compounds. Thermodynamically, the interaction between PPI and each selected flavor compound was spontaneous, with evidence suggesting primary forces being hydrophobic interactions or hydrogen bonding/van der Waals forces. Computational molecular docking further confirmed these interaction types. This research provides insights into the interactions between PPI and strawberry flavorings, aiding in the selection of optimal flavor compound proportion for protein-rich products.

[Display omitted] Plant protein ingredients from similar sources can vary in functionality not only because of compositional differences, but also because of differences in their structure depending on their processing history. It is essential to understand these distinctions to develop novel food emulsion using plant proteins. It is hypothesized that differing interfacial properties can be attributed to their structures, aggregation, and colloidal states. The adsorption behavior of a commercial protein isolate, homogenized or non-homogenized, was compared to a mildly extracted isolate to evaluate the effect of aggregation state and structural differences. After characterization of the particle size and protein composition, the interfacial properties were compared. Atomic force microscopy provided evidence of interfaces packed with protein oligomers regardless of the treatment. Differences in adsorption kinetics and interfacial shear rheology depending on oil polarity suggested different interfacial structures. A polydisperse mixture of protein oligomers resulted in increased rearrangements and protein-protein interactions at the interface. Homogenization of commercial proteins resulted in a lower interfacial tension and less elastic interfaces compared to those of native proteins due to the presence of larger aggregates. This study highlights how the interfacial properties can be related to the protein aggregation state resulting from differences in processing history. [ABSTRACT FROM AUTHOR]

OBJECTIVE: Psoriasis is a chronic, inflammatory skin disease, requiring local and systemic drugs according to disease severity. This study aims to investigate the efficacy and safety of a topical treatment containing xyloglucan, pea proteins and Opuntia ficus-indica extracts (XPO) compared to calcipotriol 50mcg/betamethasone 0.5mg ointment (CB). METHODS: Forty-two patients diagnosed with mild-to-moderate plaque psoriasis were assigned 1:1 to XPO treatment or CB for 28 days. Disease status was assessed at baseline (V1), monitored every two weeks (V2, V3), and at follow-up (V4). Disease severity was assessed by PASI (Psoriasis Area and Severity Index), PGA (Physician's Global Assessment), and VAS (Visual Analog Scale for itching). Photos were taken before and after XPO treatment. Treatment efficacy was determined by comparing psoriasis severity at baseline to V3. Tolerability was assessed by monitoring the occurrence of adverse events. RESULTS: Both groups showed a statistically significant difference in PASI score from V1 to V2 (p=0.001, XPO; p=0.008, CB) and to V3 (p=0.001, XPO; p=0.004, CB). XPO achieved a PASI 50 score of 24 percent at V2 and 52 percent at V3 compared to CB (0% at V2 and 19% at V3). At V3, PGA was significantly reduced in both groups (p=0.003, XPO; p=0.001 CB). Both treatments significantly reduced itching at V2 (p=0.001, XPO; p=0.003, CB) and V3 (p=0.001, XPO; p=0.0005, CB). CONCLUSION: XPO showed similar efficacy to CB, significantly reducing disease severity, erythema, itching, induration, and scaling with an excellent tolerability profile. [ABSTRACT FROM AUTHOR]

Gastroesophageal reflux disease (GERD) is the most common foregut disease, affecting about 20% of the adult population. Esophageal epithelial barrier plays a fundamental role in the pathophysiology of GERD; however, pharmacological therapies mainly aim to reduce the acidity of the gastroesophageal environment rather than to protect esophageal tissue integrity. This study aims to evaluate the efficacy of an oral solution containing xyloglucan and pea proteins (XP) in reestablishing gastroesophageal tissue integrity and biochemical markers. To induce GERD, C57BL/6 mice were alternatively overfed and fasted for 56 days and then treated with XP, sodium alginate, omeprazole, or omeprazole+XP twice daily for 7 days. Gastric pain and inflammatory markers were evaluated after 3 and 7 days of treatment. After sacrifice, the esophagi and stomachs were surgically removed for macroscopic and histological examination. Gastric pain was significantly reduced at days 3 and 7 by XP, omeprazole, and omeprazole+XP, while alginates were ineffective at day 3. XP was able to diminish gastric macroscopic damage and demonstrated the same efficacy as omeprazole in reducing esophageal damage. XP significantly reduced histological damage, with an efficacy comparable to that of omeprazole, but superior to alginates. Inflammatory markers were significantly reduced by XP, with superior efficacy compared with alginates at day 7. Interestingly, XP was also able to significantly increase gastric pH. This study demonstrated that XP restored gastric homeostasis, improved esophageal integrity, and decreased inflammation and pain with a similar efficacy to omeprazole and greater than alginates. [ABSTRACT FROM AUTHOR]

Pea protein is widely used as an alternative protein source in plant-based products. In the current study, we fermented pea protein to reduce off-flavor compounds, such as hexanal, and to produce a suitable fermentate for further processing. Laboratory fermentations using 5% (w/v) pea protein suspension were carried out using four selected lactic acid bacteria (LAB) strains, investigating their growth and acidification capabilities in pea protein. Rapid acidification of pea protein was achieved with Lactococcus lactis subsp. lactis strain LTH 7123. Next, this strain was co-inoculated together with either the yeasts Kluyveromyces lactis LTH 7165, Yarrowia lipolytica LTH 6056, or Kluyveromyces marxianus LTH 6039. Fermentation products of the mixed starter cultures and of the single strains were further analyzed by gas chromatography coupled with mass spectrometry to quantify selected volatile flavor compounds. Fermentation with L. lactis LTH 7123 led to an increase in compounds associated with the "beany" off-flavors of peas, including hexanal. However, significant reduction in those compounds was achieved after fermentation with Y. lipolytica LTH 6056 with or without L. lactis LTH 7123. Thus, fermentation using co-cultures of LAB and yeasts strains could prove to be a valuable method for enhancing quality attributes of pea protein-based products. [ABSTRACT FROM AUTHOR]

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Three modifications (pH shift, ultrasound, combined pH shift and ultrasound) induced alterations in pure whey protein isolate (WPI), pea protein isolate (PPI), and mixed whey and pea protein (WPI-PPI) were investigated. The processing effect was related to the protein type and technique used. Solubility of WPI remained unchanged by various treatments. Particle size was enlarged by pH shift while reduced by ultrasound and combined approach. All methods exposed more surface hydrophobic groups on WPI, while pH shift and joint processing was detrimental to its emulsifying activity. The PPI and mixture exhibited similar responses toward the modifications. Solubility of PPI and the blend enhanced in the sequence of pH shift and ultrasound > ultrasound > pH shift. Individual approach expanded while co-handling diminished the particle diameter. Treatments also caused more disclosure of hydrophobic regions in PPI and WPI-PPI and emulsifying activity was ameliorated in the order of pH shift and ultrasound > ultrasound > pH shift. [Display omitted] [ABSTRACT FROM AUTHOR]

Summary: This study aimed to assess the physical properties of pea‐based texturised vegetable proteins (TVPs) and TVP function as a meat extender (20%–40% w/w) in beef burgers. TVPs were produced with varying protein blend formulas (PBFs) (70%, 76%, 82% protein on a dry basis), extrusion screw speeds (350–450 r.p.m.) and feed moisture contents (FMCs) (38% and 42%, db). Increasing PBF raised TVP hydration time and integrity index, while FMC and screw speed had no discernable trend on these properties. A select group of TVPs were applied as extenders in beef burgers which were tested for their cooking properties and textural quality. Higher FMC lowered total cooking loss (TCL) for some burgers but overall did not impact burger cooking properties or texture. Increasing the extension level reduced TCL and change in burger diameter (CBD). TVPs produced at the lowest PBF and higher FMC studied had the greatest potential in meat extender applications, as they decreased TCL and CBD while maintaining comparable texture to burgers without TVP addition. These lower protein TVPs with enhanced cooking quality can be economically advantageous for the vegetarian and flexitarian applications of plant‐based extenders. [ABSTRACT FROM AUTHOR]

Reducing meat consumption reduces carbon emissions and other environmental harms. Unfortunately, commercial plant-based meat substitutes have not seen widespread adoption. In order to enable more flexible processing methods, this paper analyzes the characteristics of commercially available spirulina, soy, pea, and brown rice protein isolates to provide data for nonmeat protein processing that can lead to cost reductions. The thermal and rheological properties, as well as viscosity, density, and particle size distribution, were analyzed for further study into alternative protein-based food processing. The differential scanning calorimetry analysis produced dry amorphous-shaped curves and paste curves with a more distinct endothermic peak. The extracted linear temperature ranges for processing within food production were 70–90 °C for spirulina, 87–116 °C for soy protein, 67–77 °C for pea protein, and 87–97 °C for brown rice protein. The viscosity analysis determined that each protein material was shear-thinning and that viscosity increased with decreased water concentration, with rice being an exception to the latter trend. The obtained viscosity range for spirulina was 15,100–78,000 cP, 3200–80,000 cP for soy protein, 1400–32,700 cP for pea protein, and 600–3500 cP for brown rice protein. The results indicate that extrusion is a viable method for the further processing of protein isolates, as this technique has a large temperature operating range and variable screw speed. The data provided here can be used to make single or multi-component protein substitutes. [ABSTRACT FROM AUTHOR]

Peas (Pisum sativum L.) have a potential commercial value because of their high protein content, non-GMO status, low allergenicity. This study examined changes in the digestion and absorption properties of enzyme-modified and fermented pea protein (EFPP) produced through enzymatic treatment of pea protein and fermentation with lactic acid bacteria. EFPP was digested 22.50% more than isolated pea protein (IPP) during the first 15 min in vitro digestion model. Based on the Caco-2 cell monolayer model, EFPP showed 38.40% higher bioavailability than IPP. Gel Permeation Chromatography showed that the average molecular weight of EFPP was 98.79% lower than that of IPP. The secondary structure of protein was analyzed by Fourier transform infrared spectrometry and it showed a 53.92% reduction in β-sheet of EFPP than IPP. These results indicate that enzyme treatment and fermentation of pea protein reduced the molecular weight, modified the secondary structure, and improved digestibility and bioavailability. [ABSTRACT FROM AUTHOR]

In this study, pea protein-high methoxyl pectin (PP-HMP) composite particles was prepared by ultrasound, and investigated the effect of ultrasound on the physico-chemical properties of PP-HMP composite particles. Meanwhile, the structure properties of PP-HMP-US were characterized by fourier transform infrared spectroscopy (FTIR), fluorescence spectroscopy, and transmission electron microscopy (TEM). The results showed that higher emulsifying activity and stabil¬ity of pea protein-high methoxyl pectin by ultrasound (PP-HMP-US) were observed at 10min, 5.43 W/cm3 and 15 Compared with PP-HMP, the turbidity of PP-HMP-US was decreased. Particle size, and PDI of PP-HMP-US was re¬duced from 1 453.26 nm and 0.34 to 541.44 nm and 0.27, respectively. According to FTIR and fluorescence spectroscopy results, HMP could significantly increased the relative content of f3-turn and "-helix from 13.67% and 19.89% to 33.85% and 26.61%, respectively. The addition of HMP inhibited the aggregation of PP, and formed a tighter tertiary conformation. Proper ultrasound treatment of PP could make its /3-sheet unfold to form "-helix, and enhance the interac¬tion of PP and HMPG Meanwhile, the exposure of tryptophan residues of PP decreased after ultrasound treatmentG In ad¬dition, TEM results showed that ultrasound enhanced HMP embedded in PP spherical structure to obtain PP-HMP-US composite particles with more regular and ordered structureG The results provided a theoretical basis for the utilization of pea protein in food processing. [ABSTRACT FROM AUTHOR]

Copyright of Science & Technology of Food Industry is the property of Science & Technology of Food Industry Editorial Office and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

Copyright of Food Research & Development is the property of Food Research & Development Editorial Department and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)

Currently, the food industry is interested in using plant-based ingredients because they can improve the nutritional and technological properties of products while also providing health benefits. The application of these ingredients in food formulations is dependent on their techno-functional properties, so determining them is critical. Pea seeds (Pisum sativum L.) are a good source of nutrients such as starch, protein, and fiber, which could also be used as functional food ingredients. It has been reported that differences in nutritional content and functional properties of pea seeds are caused by environmental conditions, cultivation methods, and processing. In Mexico, in the Mixteca Alta region of Oaxaca, creole peas are cultivated using rainfed agriculture, and the seeds are harvested when the plant is completely dry. There are currently no studies that evaluate the composition and properties of the main components of pea seeds grown under the environmental conditions of this region. The objective of this work was to determine the proximal composition and techno-functional properties of flour (PF), starch (PS), and protein (PPI) isolated from dry creole seeds cultivated in the Mixteca Alta region of Oaxaca. Results were compared using ANOVA and Tukey’s test (p ≤ 0.05). Significant differences (p ≤ 0.05) were found in the proximal composition and the color of PF, PS, and PPI. The extracted starch contains 19.6 ± 1.3 % amylose. The granules were ellipsoidal in shape and measured 57.2 ± 11.0 mm in diameter. The FTIR spectra showed structural differences between the samples. Functional properties such as water absorption capacity, foam formation, and emulsifying capacity were significantly higher in PPI than in PF and PS (p ≤ 0.05). The results demonstrate that pea seeds grown in the Mixteca Alta region of Oaxaca can be an unconventional source of functional ingredients for the food industry. [ABSTRACT FROM AUTHOR]

Background: Functional Abdominal Bloating and Distension (FABD) is a multifaceted condition related in part to trapped gas, with changes in the intestinal barrier and small intestinal bacterial overgrowth (SIBO), which lead to gas production. Currently, there are no treatments targeting the etiology of FABD. Methods: This double-blind, multicenter, randomized study evaluated the safety and efficacy of a product containing xyloglucan and pea proteins (XG + PP) compared with simethicone, both administered orally (three times daily) for 20 consecutive days. Eighty-eight patients with FABD were randomly assigned to the two groups in a 1:1 ratio. Primary outcome was safety; secondary outcomes were (i) efficacy in alleviating the symptoms of FABD and (ii) efficacy in reducing SIBO, as assessed by hydrogen breath test (HBT). Results: No Adverse Events or Serious Unexpected Adverse Reactions were reported during the study. XG + PP showed a faster onset of action and a significant reduction in bloating and abdominal pain compared with simethicone. At Day 20, XG + PP drastically reduced abdominal girth when compared with simethicone, with an average reduction of 4.7 cm versus 1.8 cm. At Day 20, the XG + PP arm showed a significant reduction in HBT compared to baseline. Conclusions: This study supports the evidence that FABD patients may benefit from a XG + PP-based treatment that acts on etiology and not just the symptoms. [ABSTRACT FROM AUTHOR]

In recent years, interest in functional foods and meat analogues has increased. This study investigated the effect of the type of vegetable fat and ingredients with antioxidant activity on the properties of a meat analogue based on textured pea protein. The possibility of using acai oil (AO), canola oil (CO) and olive oil (OO); propolis extract (P); buckwheat honey (H); and jalapeno pepper extract (JE) was investigated. The texture, colour and selected chemical parameters of plant-based burgers were analysed. Results showed that burgers from control group had the lowest hardness, while burgers with honey had the highest. The highest MUFA content was found in samples with olive oil. Samples with honey were characterised by the highest content of polyphenols, flavonoids and antioxidant capacity. The highest overall acceptability was observed in burgers from the JE-CO group. Therefore, it is possible to use selected ingredients with antioxidant activity in the recipe for a plant-based burger with high product acceptability. [ABSTRACT FROM AUTHOR]

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Replacing conventional plastics with other products obtained from biobased and biodegradable raw materials is an increasingly studied solution. In this line, the development of protein-based bioplastics is a promising alternative. However, for some applications, such as packaging it would be necessary to improve their properties by including an additional stage to crosslink the protein chains during the production of bioplastics. Therefore, pea protein-based bioplastics crosslinked with genipin, a natural non-toxic chemical crosslinking agent, are evaluated in this study. The bioplastics are obtained via injection moulding and genipin, is included in the initial formulation. Specifically, the concentration of genipin and the effects on the protein blends with genipin over days are evaluated. The evolution of the reaction is followed by the colour change of the blend, together with thermal analyses and infrared spectroscopy. Results showed the evolution of the crosslinking in the blends resulted in conformational changes that resulted in the modification of the initial yellowish colour to a blueish system. Respect their bioplastics, more deformable systems with a lower water absorption capability are obtained by using genipin as crosslinking agent. [ABSTRACT FROM AUTHOR]

The growing emphasis on dietary health has facilitated the development of plant-based foods. Plant proteins have excellent functional attributes and healthenhancing effects and are also environmentally conscientious and animalfriendly protein sources on a global scale. The addition of plant proteins (including soy protein, pea protein, zein, nut protein, and gluten protein) to diverse cheese varieties and cheese analogs holds the promise of manufacturing symbiotic products that not only have reduced fat content but also exhibit improved protein diversity and overall quality. In this review, we summarized the utilization and importance of various plant proteins in the production of hybrid cheeses and cheese analogs. Meanwhile, classification and processing methods related to these cheese products were reviewed. Furthermore, the impact of different plant proteins on the microstructure, textural properties, physicochemical attributes, rheological behavior, functional aspects, microbiological aspects, and sensory characteristics of both hybrid cheeses and cheese analogswere discussed and compared. Our study explores the potential for the development of cheeses made from full/semi-plant protein ingredients with greater sustainability and health benefits. Additionally, it further emphasizes the substantial chances for scholars and developers to investigate the optimal processing methods and applications of plant proteins in cheeses, thereby improving the market penetration of plant protein hybrid cheeses and cheese analogs. [ABSTRACT FROM AUTHOR]

Pectin, as a gelling agent enhancer, is capable of augmenting the strength of plant protein gels; however, their direct blending often results in insignificant crosslinking efficiency. The application of ultrasonication has been found to effectively promote crosslinking interactions between pectin and plant proteins. This study primarily probes into the physicochemical impacts on the pea protein system instigated by ultrasonicated apple pectin (AP), citrus pectin (CP), and high methoxyl pectin (HM) variances. It has been revealed that the incorporation of pectin, subsequent to ultrasonication, ameliorates the textural and rheological traits of the pea protein matrix. Nevertheless, the introduction of high methoxyl pectin excessively enhances these identical properties, rendering it unsuitable for use in food development and three-dimensional (3D) printing technologies. Under an ultrasound power setting of 390 W, the citrus pectin variant outperforms other variants with its superior hardness, elasticity, and viscoelasticity, thereby significantly bolstering the self-supporting capability and malleability of the pea protein system for potential utilization in 3D printing applications. In conclusion, the ultrasonically treated pectin-pea protein amalgam optimizes the physicochemical attributes of the pea protein system, contributing to the stability enhancement of 3D printed products.

This study investigated the synergistic effects of three protein concentrates from legumes (pea, lentil, and lima bean) as emulsifiers and stabilizers of oil-in-water (O/W) emulsions using a simplex-centroid mixture design. The aim was to check whether proteins combined in different proportions have better emulsifying properties than isolated proteins. During this study, each protein concentrate was characterized by different evaluated parameters: emulsifying activity, emulsion stability, accelerated stability test, thermal coagulation time, stability to coalescence, and others. After statistical analysis mixture optimization, it was found that the best formulation for stabilizing O/W emulsion under the tested conditions (2% total protein; 3% sunflower oil) was the protein blend containing 21.21% pea, 32.78% lentil, and 46.01% fava bean. This blend exhibited better emulsification properties compared to the individual proteins.

As older adults tend to reduce their intake of animal-source proteins, plant-source proteins may offer valuable resources for better protein intake. The aim of this study was to assess whether the pea proteins can be used to achieve blood amino acid levels that stimulate muscle protein synthesis. We measured variations in plasma amino acid concentrations in young and older adults given pea (NUTRALYS® S85 Plus) or whey proteins either alone or in a standardized meal. The effect of amino acid concentrations on protein synthesis in C2C12 myotubes was determined. In terms of results, plasma amino acid concentrations reflected the difference between the amino acid contents of whey and pea proteins. Blood leucine showed a greater increase of 91 to 130% with whey protein compared to pea protein, while the opposite was observed for arginine (A greater increase of 147 to 210% with pea compared to whey). Culture media prepared with plasmas from the human study induced age-dependent but not protein-type-dependent changes in myotube protein synthesis. In conclusion, pea and whey proteins have the same qualities in terms of their properties to maintain muscle protein synthesis. Pea proteins can be recommended for older people who do not consume enough animal-source proteins.