Use Of Whey Research Articles

Upcycling Milk Industry Byproducts into Tenebrio molitor Larvae: Investigation on Fat, Protein, and Sugar Composition

Edible insects represent a growing sector of the food industry and have a low carbon footprint. Noteworthy, insects can upcycle different leftovers and byproducts into high-quality nutrients. Herein, the larvae of the edible insect Tenebrio molitor (TML) were fed using local milk industry byproducts. Mozzarella whey and whey permeate obtained in cheese production were used to formulate three alternative diets. Both byproducts are rich in sugars, in particular the disaccharide lactose and the monosaccharides glucose and galactose. Two of the three diets did not interfere with biometric data and vitality, while the use of whey permeate alone significantly reduced development. At the end of the trial, the proximate composition of TML was strongly affected, with an increased protein content of up to +7% and a favorable fat composition. The analysis of secondary metabolites revealed the accumulation of different compounds, in particular monounsaturated fatty acids (MUFAs), amino acids, and the disaccharide trehalose, essential for the correct larval development and pupation. In conclusion, the present study demonstrates that milk industry byproducts can be upcycled as feed for TML, maintaining an optimal nutrient composition and favorably increasing the protein content.

Harnessing the Potential of Whey in the Creation of Innovative Food Products: Contributions to the Circular Economy

Food waste and by-products are intricately linked to sustainable food production, as reducing waste can play a significant role in achieving a more sustainable and efficient food system. Sustainable utilization and recovery of by-products can significantly contribute by creating strategies that can lead to cost savings and increased efficiency across the food supply chain. Worldwide, more than 40% of whey from cheese production is discarded, resulting in the loss of valuable nutrients and potentially polluting the environment. Effective use of whey reduces environmental impact and enhances manufacturing sustainability. Thus, a circular approach to food waste management in the dairy industry supports sustainability goals and creates opportunities for innovation. Whey contains most of the soluble components of milk, including a large number of serum proteins and all the essential amino acids, making it suitable for producing beverages with high nutritional value. This study aims to produce whey-based beverages with different additions to obtain dairy products with high nutritional value. Three different ingredients, sea buckthorn, ginger, and cinnamon, were chosen for their numerous health benefits to the consumer. Six samples were prepared utilizing both unmodified and deproteinized whey in a 75% proportion, with the addition of 25% sea buckthorn juice, 0.75% ginger juice, and 0.2% cinnamon powder. The resultant samples were packaged in 200 mL bottles and maintained at a controlled temperature of 6 °C to ensure optimal preservation. Given the paramount importance of consumer acceptability in novel beverage development, a comprehensive evaluation was conducted to assess the sensory properties of the formulated beverages. In addition, physico-chemical properties and their evolution over 14 days of storage were examined. The sample containing whey, sea buckthorn juice, ginger juice, and cinnamon powder received the highest marks from the tasters. The values of the physico-chemical parameters varied depending on the type of whey used and the storage period. Thus, a pH of approximately 5 and an acidity between 30 and 80 °T were recorded. The average lactose content was 4%, the average protein content was 2.5%, and the total soluble solids content was 11.5 °Brix. The beverages developed in this study represent viable alternatives for diversifying food production through sustainable, environmentally friendly technological variants. By applying circular economy principles, these products contribute to reducing food waste in the dairy industry.

INVESTIGATION OF USAGE OPPORTUNITIES OF DIFFERENT PROPORTIONS OF WHEY AND CHIA SEED FLOUR IN BUTTERMILK

In this study, it was aimed to obtain a functional beverage with high nutritional value by using whey and chia seed flour in the production of buttermilk. In addition to its high nutritional value, while preventing whey from causing environmental pollution as a waste material, it is aimed to obtain a new dietary product with chia seed flour containing 34-40g fiber per 100g, antioxidant, omega-3 fatty acid and rich protein content. Experimental buttermilk samples were prepared by adding whey (PAS) and chia seed flour at different rates. K (control group), K2 (%1 Chia seed meal), K3 (%0,5 Chia seed meal), Group 1 (25% Whey + %1 Chia seed meal), Group 2 (25% Whey + %0,5 Chia seed meal), 3. Group (50% Whey + %1 Chia seed meal), 4.Experimental groups prepared as a group (50% Whey + %0,5 Chia seed flour) were kept at +4 ̊C and their physical, chemical and sensory properties were examined on the 1st, 3rd, 5th, 7th and 14th days. In the experimental buttermilk samples we researched, the use of whey and chia seed flour was found to have a significant effect on psychrophilic bacteria count (log cfu/ml), coliform group bacteria (log cfu/ml), yeast-mold count (log cfu/ml), lactobacil spp. (log cfu/ml) and lactococ spp. (log cfu/ml), pH, acidity (lactic acid), water-soluble dry matter (%), serum separation (%), color values (L*, a*, b*) and sensory properties (p

A Mayonnaises with improved protein content and natural food preservatives

The aim was to prepare mayonnaises with natural preservatives and improved protein content to verify their structural and nutritional properties. Three formulations were developed (70% fat + variation in protein), F1 (powdered whey) did not reach the structural standards of commercial mayonnaise; F2 (skimmed milk) reached standards equivalent to commercialized products; F3 (powdered whey + skimmed milk) presented light mayonnaise pattern; F0 (Control). Protein content was higher than market products (more than 1.0 %). The evaluation of 30 days showed variations: AW (0.934-0.941); extrusion values F1 (1.035 N ±0.026 – 0.566 N ±0.024), F2(4.255 N ±0.160 – 3.218 N ±0.060), F3 (3.198 N ±0.086 – 1.700 N ±0.044). The preservatives favored the color ∆E: F1 (11.31 ±0.04), F2 (2.65 ±0.14), F3 (1.65 ± 0.22). DPPH analysis showed the difference of products with added natural preservatives and whey in relation to the F0; F3 formulation was favored. Thixotropy appeared in all samples. The exothermic peak occurred F1 (6˚C - 7˚C), F2 (5˚C - 7˚C) and F3 (3˚C - 4˚C), indicating faster crystallization of the F3 (lipid-protein bond). The use of whey and powdered milk as emulsifying agent for mayonnaise emulsions, garlic and mustard, increased shelf life and protein content were demonstrated.

Use of whey through anaerobic codigestion for biomethane production

The whey generated by cheese production is the main by-product generated by the dairy industry, which causes considerable impact on the environment if it is not treated properly. This potential contaminant is mainly due to its high content of organic matter. In recent years, numerous studies have been carried out with the objective of using whey more efficiently, using innovative technological methods for the treatment of wastewater such as the anaerobic digestion method, and thereby being able to obtain derived products such as biogas or biofuels, which generate less environmental impact and develop economic activities. The objective of this study is to collect studies on the use of whey to obtain biogas through the anaerobic digestion technique. The review allowed us to know the wide application of the anaerobic digestion method for the production of biogas from whey and other agri-food substrates, demonstrating the high efficiency of the method in association with biological media in semi-continuous and discontinuous conditions. Likewise, it was also possible to know that the anaerobic co-digestion method is a promising alternative for small and medium-sized industries that could replace fossil fuels with biogas and that in turn contribute to environmental conservation by avoiding pollution and environmental problems due to the effect of the poor serum management.

A comparison of free amino nitrogen and yeast-assimilable nitrogen measurement methods for use in alcoholic fermentation of whey

The continued efficient use of whey as a fermentable substrate to produce alcoholic beverages will benefit from improving the measurement of key components relevant to the fermentability of whey. One component of fermentation that is not well studied in whey is the concentration of fermentable nitrogen, either as free amino nitrogen (FAN) or yeast-assimilable nitrogen (YAN). Fermentable nitrogen in media is essential for yeast cells to replicate. Insufficient concentrations of FAN or YAN to support the growing yeast population can result in sluggish or "stuck" fermentations. We evaluated 3 common methods of fermentable nitrogen determination and compared them for use in whey fermentation systems, based on ninhydrin, nitrogen by o-phthalaldehyde (NOPA), and formaldehyde pH (Sørensen titration) values. Each measurement method was evaluated independently using standard addition curves and compared for overall accuracy using paired t-tests (α = 0.05). Although the formaldehyde pH method showed high precision, it did not measure nitrogen accurately, as it overestimated YAN in whey by up to 6 times relative to other tests. The ninhydrin and NOPA methods both showed accuracy for fermentable nitrogen determination in whey based on analysis of standardized nitrogen sources. We concluded that either the ninhydrin FAN or NOPA YAN method may be used to determine the fermentable nitrogen content in whey. This is expected to improve the ability of producers to use whey as a fermentation medium.

Substantiation, directions and results of using whey processed products in ice cream production

The deficiency of protein is an important global problem. Whey, as a by-product of the production of cheese and cottage cheese, can be an additional source of protein. The feasibility of using whey for food purposes due to its composition and biological value is substantiated in the review. Besides, the usage of whey for food purposes reduces threat of environmen‑tal pollution existing when disposing it into the sewer. The aim of the article was to collect, analyze and summarize data on the use of whey and products of its processing in the technology of ice cream and whipped frozen desserts. The analysis of the data of the International Dairy Federation (IDF) on the global volumes of milk whey production as well as the amount of high-value protein, to which they are equivalent, is given. The modern world experience in processing technologies of whey and the product assortment made with its usage has been analyzed. Attention is concentrated on the characteristics and properties of whey processed products (concentrates, isolates, milk hydrolysates, first of all, whey proteins) and micellar casein. The research experience in studying the possibility of their use in the production of ice cream and other foods is assessed and summarized. The influence of these products on the technological, structural-mechanical, microstructural and organoleptic characteristics of ice cream and on its biological value is considered. The presence of positive and negative experience in the usage of dairy proteins, including whey proteins, on the consumer characteristics of frozen food is noted. The necessity of more detailed study of results of using each particular source of milk protein in relation to different types of ice cream and whipped frozen desserts is substantiated.

Use of whey for a sustainable production of postbiotics with potential bioactive metabolites

Postbiotics have gained attention due to their health benefits and potential bioactive metabolites.

Применение творожной СЫВОРОТКИ В ТЕХНОЛОГИИ КОЛБАСНО-СОСИСОЧНЫХ ИЗДЕЛИЙ с рыбной составляющей как направление рационального использования вторичного пищевого сырья

In this paper, we discuss the use of whey in food technologies. We discuss the feasibility of production by enterprises from Kamchatka Territory of products using whey as a secondary raw material and benign fish food waste from fillet. Introduction of these components into food compositions in the production of sausage products will provide the opportunity to implement the principle of rational use of biological resources and will expand the range of products that are in demand by consumers. Data from a study of methods for introducing curd whey into the minced meat mixture for the preparation of sausage products are presented. It has been shown that achieving high consumer (organoleptic) properties of the finished product is ensured by introducing whey into minced meat in the form of a suspension. The dependence of the taste and aroma properties and consistency of products on the amount of curd whey introduced into the recipe composition is characterized.

Customised Microporous Carbon 3D Structures with Good Mechanical Properties and High Nitrogen Content Obtained from Whey Powders

Novel customised carbon monoliths with a high specific surface area were synthesised by carbonisation plus activation of dehydrated whey powders, a biomass byproduct of the dairy industry. The whey powders were casted directly by pouring them into a desired mould. After a pseudo-sintering process promoted by the self-reaction of the whey components (mostly lactose and whey proteins) at moderate temperatures (ca. 250 °C), 3D porous carbons were obtained. The process did not require any binder or external overpressure to prepare the 3D porous carbons. Upon thermal activation with CO2 or chemical activation with H3PO4 and KOH, the shape of the monolithic structure was preserved after the development of a microporous network (SBET up to 2400 m2/g). Both thermal and chemical activation had little effect on the macroporosity of the monoliths. Activation of these 3D carbons had to be performed with care to avoid heterogeneous skin/core activation and/or overactivation. Highly porous monoliths (SBET of 980 m2/g; open porosity of 70%) with outstanding compressive strength (10 MPa) could be obtained by thermal activation (CO2) of whey monoliths at 850 °C for 1.5 h. Additionally, the use of whey as a precursor provided the carbon monolith with a relatively high nitrogen content (ca. 3 wt.%).

Whey block freeze concentration aiming a functional fermented lactic beverage with the addition of probiotic and guabiroba pulp (Campomanesia xanthocarpa O. Berg), a native Brazilian fruit

The scientific importance involved in this study was the use of whey, a co-product of the cheese industry, and its performance during the freeze concentration process. Moreover, the best-concentrated whey from the freeze concentration process, about the total solids, proteins, and mineral contents, was used to prepare two functional fermented lactic beverages. Therefore, whey was subjected to the freeze concentration in blocks with gravitational thawing. Process performance indicated better yields and efficiency for the second stage of freeze concentration. Concentrated whey 2 was used to prepare two fermented lactic beverages added with probiotics: one without adding guabiroba pulp (control) and a beverage incorporated with 10% guabiroba pulp. Containing guabiroba pulp was not enough to modify the total solids, proteins, and mineral contents. However, it decreased pH values, changed the color to an orange hue, and decreased luminosity. The fermented lactic beverage added with probiotic and 10% guabiroba pulp showed 1.61× more phenolic compounds and an increase of 164% for each evaluated carotenoid content compared with the control beverage.

Development of Sheepskin Processing Technology Using Whey

Abstract In this study, the possibility of using whey as a preservative and aldazan as an antiseptic was studied in order to reduce the consumption of sodium chloride, enhance the effect of preservation, and reduce the duration of sheepskin processing during preservation. The whey-salt method proposed for preserving raw sheepskin allows to reduce the consumption of sodium chloride through the use of whey in preservative compositions by up to 50%, the duration of the process of processing skins in comparison with the traditional method by 1.5-2 times (traditional method - 80 hours, proposed - 54-56 hours), the preservation process from 8 to 4 hours, the drying process from 72 to 48-50 hours, the cost of the preservation process, as well as the water consumption and pollution of wastewater from enterprises.

A Literature Database Review of the Competitive Factors That Influence the Production and Use of Whey in the Brazilian Dairy Industry.

The consumption of milk and derivatives is part of the diet of a large part of the population. The substantial demand for dairy products has prompted the industry to expand its product range by incorporating whey, a previously disregarded by-product, as a significant ingredient. Consequently, the application of whey within the dairy sector has escalated, fostering novel food trends driven by market, nutritional, technical, environmental, and economic considerations. In this context, the primary objective of this research was to identify, categorise, and analyse the competitive factors influencing the production and use of whey within the dairy products industry and to correlate these factors with Brazil's economic, food, and nutritional landscape. A comprehensive literature review encompassing 41 articles and scientific documents sourced from PubMed, Scopus, and SciELO databases and supplementary research was undertaken to pinpoint these factors. A total of seventeen competitive factors that exert influence over the production and use of whey within the dairy industry were identified. These seventeen factors were systematically classified and modelled into a hierarchical decision tree structure. A meticulous analysis of these factors revealed a spectrum of strengths, weaknesses, opportunities, and threats associated with this sector, considering the Brazilian nutritional, food, and economic context. This research will help elaborate healthy strategies for developing new products with whey in the composition and maintaining the nutritional quality for the consumer. In addition, the research can help companies manage their operations, which can be directed towards improving their performance in the factors discussed in this research, with reflections and impacts on competitiveness in nutritional, environmental, economic, technological, and organisational dimensions.

KEÇİ BOYNUZU TOZU İÇEREN SÜT ESASLI TATLI FORMÜLASYONLARINDA PEYNİRALTI SUYU KULLANIMININ ARAŞTIRILMASI

The objective of this study is to develop a dairy dessert produced with whey at different ratios and carob powder (5%). Five dessert samples prepared by different milk: whey (v/v) ratios were as follows: 100:0, 75:25, 50:50, 25:75 and 0:100. Dessert samples were analyzed in terms of some physiochemical, color, textural and sensory properties on the 1st, 7th and 14th days of storage. It was determined that the use of whey significantly affected the titratable acidity, water holding capacity, color parameters (L*, b* and ΔE values) and textural qualities of the milk dessert samples produced by adding carob powder. Significant differences were also observed in terms of sensory characteristics. As a result of the evaluations, the C sample, which was produced at 50% milk and 50% whey ratios, received the highest scores by the panelists compared to the other samples and became the most liked sample. According to the results obtained, it was determined that the use of whey in milk-based dessert formulations produced with the addition of carob powder contributed positively to the product in terms of sensory and physical properties.

Development of the technological process of preserving sheepskins with a new salting composition

The article presents the results of studies of the whey-salt method of preserving sheepskin raw materials. The peculiarity of this method is that the use of table salt in the preservative composition is reduced due to the use of whey; the duration of the skin processing process is reduced by 1.5-2.0 times compared to the traditional method, the canning process is reduced from 8 to 4 hours, the drying process is reduced from 72 to 48-50 hours. The use of this method of processing sheepskins makes it possible to reduce the cost of the canning process, reduce the pollution of wastewater from enterprises, and improve the quality of hides.

Thermo-kinetic analysis of pyrolysis of thermally pre-treated sewage sludge from the food industry

Due to the specific characteristics of sewage sludge from the food industry, including its high fat content, its treatment is quite complex. Therefore, in this study, the effect of the pre-treatment processes torrefaction (T) and hydrothermal carbonization (HTC) on the pyrolysis of industrial sewage sludge (SS) from the vegetable oil industry was investigated by thermogravimetric analysis. Kinetic and thermodynamic analysis was performed using the Kissinger-Akahira-Sunose (KAS), Flynn-Wall-Ozawa (FWO), and Friedman (FRI) iso-conversional kinetic models. In addition, the influence of water replacement by whey in the hydrothermal carbonization process was investigated on the subsequent pyrolysis kinetics.The activation energy (Eα) values for pyrolysis of industrial sewage sludge ranged from 49 to 372 kJ/mol. Pre-treatment (torrefaction, hydrothermal carbonization) of sewage sludge increases the activation energy significantly: the Eα values for torrefied (T-SS) and hydrothermally treated (HTC-SS) samples ranged from 177 to 689 kJ/mol and from 161 to 486 kJ/mol, respectively. The variations in activation energy and the generally lower activation energies for the HTC-SSW sample (158–445 kJ/mol) indicate that the use of whey in the HTC process affects the hydrochar properties and subsequent pyrolysis kinetics significantly. According to the results, the pre-treatment of the samples is reflected in better thermochemical properties and stability of the treated samples, as well as in the thermodynamic parameters of pyrolysis, since the pre-treated samples (especially the torrefied sample, T-SS) exhibited higher entropies and enthalpies and lower Gibbs free energies.

Soy-Dairy Protein Blend or Whey Protein Isolate Ingestion Induces Similar Postexercise Muscle Mechanistic Target of Rapamycin Complex 1 Signaling and Protein Synthesis Responses in Older Men

Background: Previous work demonstrated that a soy-dairy protein blend (PB) prolongs hyperaminoacidemia and muscle protein synthesis in young adults after resistance exercise.Objective: We investigated the effect of PB in older adults. We hypothesized that PB would prolong hyperaminoacidemia, enhancing mechanistic target of rapamycin complex 1 (mTORC1) signaling and muscle protein anabolism compared with a whey protein isolate (WPI).Methods: This double-blind, randomized controlled trial studied men 55–75 y of age. Subjects consumed 30 g protein from WPI or PB (25% soy, 25% whey, and 50% casein) 1 h after leg extension exercise (8 sets of 10 repetitions at 70% one-repetition maximum). Blood and muscle amino acid concentrations and basal and postexercise muscle protein turnover were measured by using stable isotopic methods. Muscle mTORC1 signaling was assessed by immunoblotting.Results: Both groups increased amino acid concentrations (P < 0.05) and mTORC1 signaling after protein ingestion (P < 0.05). Postexercise fractional synthesis rate (FSR; P ≥ 0.05), fractional breakdown rate (FBR; P ≥ 0.05), and net balance (P = 0.08) did not differ between groups. WPI increased FSR by 67% (mean ± SEM: rest: 0.05% ± 0.01%; postexercise: 0.09% ± 0.01%; P < 0.05), decreased FBR by 46% (rest: 0.17% ± 0.01%; postexercise: 0.09% ± 0.03%; P < 0.05), and made net balance less negative (P < 0.05). PB ingestion did not increase FSR (rest: 0.07% ± 0.03%; postexercise: 0.09% ± 0.01%; P ≥ 0.05), tended to decrease FBR by 42% (rest: 0.25% ± 0.08%; postexercise: 0.15% ± 0.08%; P = 0.08), and made net balance less negative (P < 0.05). Within-group percentage of change differences were not different between groups for FSR, FBR, or net balance (P ≥ 0.05).Conclusions: WPI and PB ingestion after exercise in older men induced similar responses in hyperaminoacidemia, mTORC1 signaling, muscle protein synthesis, and breakdown. These data add new evidence for the use of whey or soy-dairy PBs as targeted nutritional interventions to counteract sarcopenia. This trial was registered at clinicaltrials.gov as NCT01847261.

Possibilities of Using Whey Wastes in Agriculture: Case of Turkey

Liquid wastes are generated during production in the milk and cheese industries. During cheese production, whey emerges as a liquid product. Researchers define waste as raw material instead of waste alone. Hence, there is no doubt that the use and management of waste will gain greater importance in the upcoming years. This study discusses the use of whey, which is food waste, in agriculture and the benefits derived from it in terms of energy value. Our research was based on the current literature and the amount of whey that emerged in the dairy industry. For this purpose, the existing literature was evaluated to determine how much waste was produced from whey. The total amount of whey waste in Turkey for 2021 was determined. Afterwards, the amount of potential energy was determined in evaluating these wastes. Turkey’s total amount of potential energy obtained from whey waste was calculated as 570.11 × 106 MJ, with 158.36 × 106 kWh as potential electrical energy. Moreover, it was calculated that a total of 158.36 × 106 kWh of electrical energy would meet the electrical energy of 688,548 families of four people for a month. It is also stated that this potential energy will be used in the field of equivalent electrical energy content and agriculture. It is a fact that cheese wastewater, rich in nutrients and organic matter, can be used in agriculture. Whey is used as animal feed in agricultural fertilization activities and the livestock sector. It has also been understood from the literature that it can also be used in biogas production. However, it should not be forgotten that whey released into rivers, water sources, or sewers threatens the environment due to its high protein content. Therefore, by increasing the number of similar studies on the subject, a wide range of wastes, such as whey, can be utilized in the most accurate manner. As a result, environmental protection, conservation of water resources, and energy conservation can be ensured by properly benefiting from whey waste. Considering that the world population will increase in the future, it is a fact that we will need a cleaner environment and more energy. It was concluded that greater importance should be given to waste management practices for a cleaner environment and energy saving.

Fermentation profile and nutritional value of millet grain silages rehydrated with whey and/or molasses

This study aimed to evaluate the fermentation profile and nutritional value of millet grain silages rehydrated with whey and/or molasses. The experiment was conducted in a completely randomized design with four treatments and six replications, with a control treatment (water rehydration), whey rehydration, water rehydration plus molasses (2.5%), and whey plus molasses (2.5%). Lower values of dry matter content (DM = 66.37; 1.55%) were found for the control silage, but within the recommended range. The contents of crude protein, neutral detergent fiber, acid detergent fiber, lignin and hemicellulose were not influenced by the use of additives. There was no difference (p&gt;0.05) for aerobic stability and ammonia-N (6.04%) between treatments. For pH, lower values were observed for silages with molasses. There was a higher concentration (p &lt;0.05) of lactic acid in silages with whey, and a higher concentration of butyric acid in silages added exclusively with molasses. The use of whey improved dry matter recovery compared to control silages. Higher dry matter degradability was observed with 8% rate of passage in silages added with molasses and/or whey in relation to the control.

Kinetic parameters of microbial thermal death in goat cheese whey and growth of surviving microorganisms under refrigeration

AbstractWhey is a byproduct of cheese production and, in smallholdings, is usually destined for animal feed or improperly disposed. To create alternatives for whey use, microbiological stabilization is the first step. Therefore, this study evaluated the kinetic parameters of the native microbiota thermal death (62–85°C) in goat cheese whey (GCW) and the growth of survivors after thermal processing performed at three different time–temperatures. The results showed that the come‐up time inactivated 1.0–1.8 log CFU/ml (≤71°C), 3.8 log CFU/ml (75°C), and more than 8 log CFU/ml (≥80°C). The inactivation data at 62, 65, 68, 71, and 75°C were fitted to the Bigelow model, from which D values of 65.7, 31.0, 11.7, 5.4, and 1.2 min, respectively, were determined. Using a first‐order equation, the z value was calculated as 7.5°C (R2 = 0.99). Processes time–temperatures were selected to achieve 2.5 (71°C/20 min), 0.5 (75°C/5 min), and &lt;0.1 log CFU/ml (80°C/1 min) survivors. During the shelf life, microbiological growth was observed in all samples, reaching total bacterial counts (TBC) and psychrotrophic bacteria (TPC) &gt;3 log CFU/ml between 14 and 28 days, with a predominance of non‐acidifying psychrotrophic bacteria. From the results, the time–temperature of 75°C/5 min was established as the best option for GCW processing, ensuring counts &lt;2 log CFU/ml for up to 21 days.Practical ApplicationsThis study showed that the time–temperatures 71°C/20 min, 75°C/5 min, or 80°C/1 min, applied in a batch pasteurization process, were able to inactivate more than 5 log CFU/ml of the native microbiota of goat cheese whey. However, the shelf life of the product at 7°C was limited to 21 days due to the growth of the surviving population, even for samples that reached &lt;0.1 log CFU/ml immediately after heating. Therefore, if extended shelf life is needed, additional barriers to microbial growth should be used. These data can be readily applied by artisanal goat cheese producers as a way to stabilize whey for later use, either in the development of whey beverages or for the use of whey as an ingredient in products.