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Cream cheese analogue is a soft cheese with a slightly sweet and pleasantly tangy taste. It is prepared using the substitutes of dairy fats and proteins partially or completely. Cream cheese analogue ingredients are purchased carefully keeping in mind the required specifications. For the above-mentioned research, different samples of cream cheese (T0, T1, T2 and T3) were manufactured with standardized fat and protein and the moisture was maintained at 50–55% during these trials. All ingredients were added in a large container for mixing and cooking treatment for 1–2 min at 75 °C and homogenized for 5–6 min with the help of a hand mixture until completely homogenous sample was obtained. Samples were then transferred in to another container and allowed them to attain temperature between 20 and 25 °C. After that, samples were incubated with the addition of mesophilic culture until desired pH (4.6–4.7) was achieved. Later samples were heated at 50–55 °C for 2–3 min and then placed in a muslin cloth and left overnight for whey drainage. Physicochemical, microbial analysis were performed while sensory evaluation was performed using different parameters and scales. Sample prepared using 75% dairy cream and 25% cocoa butter substitute fat (T1) showed good results. T1 had better consistency which was considered desirable characteristics of cream cheese. This research proved the cost effective as cream cheese prepared with plant-based fat which made its production possible at industrial level. Cream cheese which was made from dairy fat (75%) and cocoa butter substitute fat (25%) had more springiness, smoothness, gumminess, more pleasant taste, color, flavor and aroma than other samples. This dairy product can be used in future in Pakistan. [ABSTRACT FROM AUTHOR]

Cream cheese is a type of fresh cheese with a thin consistency with great potential for adding probiotics. However, artificial thickeners have been used in its production, decreasing consumer satisfaction. This study suggests natural mucilage, specifically from the Cactaceae Opuntia ficus-indica, as a replacement for artificial thickeners due to its thick gelatinous properties. This study evaluated different cream cheese formulations by adding varying concentrations of Opuntia ficus-indica mucilage and the probiotic Lactobacillus acidophilus (L. acidophilus). Four formulations were created: formulation C (control, without mucilage), F1 (containing 1 mL/kg mucilage), F2 (2 mL/kg), and F3 (3 mL/kg mucilage). The physicochemical characteristics (pH, 4.90–5.57; 0.15–0.20% acidity; 1.78–2.42% protein; 29.98–30.88% fat; 38.27–41.63% moisture; and 1.25–1.63% ash) and microbiological analysis met the quality standards required by Brazilian legislation, and the cream cheese showed probiotic potential, with L. acidophilus counts above 108 CFU/mL within four weeks of storage. Regarding sensory evaluation, the texture received one of the highest scores (7.89), followed by aroma (7.11). Therefore, the Cactaceae mucilage has proven to be a viable alternative to replace artificial thickeners in cream cheese, making it an excellent option for probiotic supplementation. [ABSTRACT FROM AUTHOR]

Abstract Cream cheese analogue is a soft cheese with a slightly sweet and pleasantly tangy taste. It is prepared using the substitutes of dairy fats and proteins partially or completely. Cream cheese analogue ingredients are purchased carefully keeping in mind the required specifications. For the above-mentioned research, different samples of cream cheese (T0, T1, T2 and T3) were manufactured with standardized fat and protein and the moisture was maintained at 50–55% during these trials. All ingredients were added in a large container for mixing and cooking treatment for 1–2 min at 75 °C and homogenized for 5–6 min with the help of a hand mixture until completely homogenous sample was obtained. Samples were then transferred in to another container and allowed them to attain temperature between 20 and 25 °C. After that, samples were incubated with the addition of mesophilic culture until desired pH (4.6–4.7) was achieved. Later samples were heated at 50–55 °C for 2–3 min and then placed in a muslin cloth and left overnight for whey drainage. Physicochemical, microbial analysis were performed while sensory evaluation was performed using different parameters and scales. Sample prepared using 75% dairy cream and 25% cocoa butter substitute fat (T1) showed good results. T1 had better consistency which was considered desirable characteristics of cream cheese. This research proved the cost effective as cream cheese prepared with plant-based fat which made its production possible at industrial level. Cream cheese which was made from dairy fat (75%) and cocoa butter substitute fat (25%) had more springiness, smoothness, gumminess, more pleasant taste, color, flavor and aroma than other samples. This dairy product can be used in future in Pakistan.

Summary: We report on the role of ethylenediaminetetraacetic acid (EDTA) in addition to the structural and material properties of acid milk gels formed via addition of glucono‐delta‐lactone (GDL) and these properties of corresponding analogue cream cheeses prepared from these gels. Increasing addition of EDTA to cheese milks prior to acidulation reduced the concentration of insoluble calcium in the milks. Acid gelation of milks, as measured by small deformation rheology, showed a decreased rate of gelation and lower relative elastic modulus of gels with increasing EDTA concentration. The sequestration of colloidal calcium phosphate from the casein micelle by the addition of EDTA led to the lower gelation rate and elastic modulus. The lower extent of ionic binding is considered the causative mechanism for formation of weaker gel structures. Cream cheeses prepared using acid gels with GDL acidulant were compositionally unaffected by EDTA concentration. However, variations in G′ observed in the acid gels containing increasing levels of EDTA correlated with large deformation material property changes in cream cheese analogues. In addition, the increasing inclusion of EDTA in cheese milks translated to reduced water‐holding capacity of the cream cheeses prepared from those milks. These results provide insights on the specific role of milk calcium on the structure, material and physical properties of acid milk gels and corresponding cream cheese analogues. [ABSTRACT FROM AUTHOR]

With growing consumer demand for plant‐based products that mimic the eating experience of animal‐based products, there is a need for improvement in instrumental measurements of sensory texture. This study aimed to characterize textural differences between dairy and non‐dairy cheeses, and to investigate whether Large Amplitude Oscillatory Shear (LAOS) rheometry could discriminate sensory texture better than Texture profile analysis. Commercial dairy and non‐dairy cheddar, mozzarella, and cream cheese were selected to provide a wide range of textures. Sensory evaluation used the check‐all‐that‐apply methodology with 73 consumers. Texture profile analysis force‐distance data were analyzed empirically, and also converted to stress and strain (see https://shiny.csiro.au/texture%5fdash). The major textural differences between dairy and non‐dairy cheddar were related to structural cohesion, according to both instrumental measures (dairy cheddar had 1.5‐fold higher failure stress and 2.2‐fold higher failure strain) and sensory measurements (dairy cheddar was more chewy and less crumbly). In contrast, cream cheeses showed similar textural properties using sensory testing but significant instrumental differences (non‐dairy cream cheese had 5.7‐fold higher modulus of deformability, 4.7‐fold higher failure stress). For mozzarella, there were large differences in both sensory attributes (chewy, crumbly, jelly‐like, stretchy) and instrumental parameters (13.6‐fold difference in modulus, 2.7‐fold difference in failure stress). LAOS rheometry gave insights into the mechanisms by which samples absorbed or dissipated mechanical energy at nonlinear strains. The LAOS parameter G3′/G1′$$ {G}_3^{\prime }/{G}_1^{\prime } $$ correlated well with sensory attributes creamy, fatty/oily, and moist, indicating the potential of this technique to measure structural phenomena linked to sensory attributes that resonate with consumers. [ABSTRACT FROM AUTHOR]

Dairy product alternatives have increased in recent years as a result of medical prescriptions or personal preferences. The main purpose of the present study was to optimize vegan‐based cream cheese formulation added with citrus fiber considering the textural and physicochemical properties of the samples. The physicochemical (pH value, water activity, and color), texture, microstructure, and sensory properties of manufactured vegan‐based cream cheese were characterized and compared to those of a commercial one. Three optimized products were produced, according to the textural properties. The addition of citrus fiber did not affect the pH and water activity values of the cheese samples significantly. Although citrus fiber had an effect on the color values of the samples, a significant difference in the sensory scores was not recorded by the panelists. The sample having 1.21% citrus fiber (A) showed a hardness value similar to that of control sample and it received high sensory appreciation. The sample added with 1.41% citrus fiber (B) was scored high by the panelists, with no significant difference compared to commercial cream cheese, even though it showed high hardness. According to the results of the current research, vegan‐based cream cheese can be produced as a promising food as a new alternative to milk and dairy products. [ABSTRACT FROM AUTHOR]

This is the first study that investigates the effect of kefir with an emphasis on the production of short-chain fatty acids (SCFAs) during the fermentation process in food products. The products developed and characterized were an artisanal cream cheese without cream and one with added cream, and for the analysis of the fatty acid profile, both cream cheeses were compared with commercial cream cheese. The artisanal cream cheese had a high amount of lactic acid bacteria characterizing the product formed by Lactobacilli and a low concentration of lactose due to the fermentation process. Compared to commercial cream cheese, our products without and with added cream had a higher concentration of short-chain fatty acids (SCFAs), especially butyric acid, which is important for the health of the gastrointestinal tract, omega 3, and oleic fatty acid, which has been associated with the prevention and control of some diseases. Overall, the artisanal cream cheese cream with fermented cream with kefir grains is a functional product with an innovative character compared to current products on the market and was well accepted by the younger public. This new product comes as an option for those who need to change their eating habits and maintain a healthy lifestyle. [ABSTRACT FROM AUTHOR]

An advantage of masticators is the calibration and possible standardization of intra- and inter-individual mastication variability. However, mastication of soft, sticky and melting products, such as processed cream cheeses, is challenging to reproduce with a masticator. The objectives of this work were, for the cheese studied: (1) to compare child and adult mastication and (2) to find in vitro parameters which best reproduce their in vivo chewing. Five parameters influencing mastication (mouth volume, quantity consumed, saliva volume, mastication time and number of tongue–palate compressions) were measured in 30 children (5–12 years old) and 30 adults (18–65 years old) and compared between the two populations. They were then transposed to a masticator (Oniris device patent). The initial cheese, a homogeneous white paste, was surface-colored to investigate its in-mouth destructuring. In vivo boli were collected at three chewing stages (33, 66 and 99% of mastication time) and in vitro boli were obtained by varying the number of tongue–palate compressions and the rotation speed. In vivo and in vitro boli were compared by both image and texture analysis. Child masticatory parameters were proportionally smaller than those of adults. The in vivo child boli were less homogeneous and harder than adult ones. Comparison of in vivo and in vitro bolus color and texture enabled the successful determination of two in vitro settings that closely represented the mastication of the two populations studied. [ABSTRACT FROM AUTHOR]

Cream cheese is a soft cheese that does not go through a ripening process and is widely used in various kinds of food preparations. Goat's milk is an alternative milk for cream cheese production. The addition of antioxidant extract from liang tea potentially produces functional cream cheese. This research aimed to obtain the concentration of added antioxidant liang tea extract in the formulation that produces the best characteristics of goat's milk cream cheese. This research used a Randomized Block Design method with one factor: the concentration of liang tea extract as an antioxidant. The treatment consisted of 5 levels of liang tea concentrations, 0%, 1.5%, 2%, 2.5%, and 3%, with five repetitions. The research showed that adding various concentrations of liang tea antioxidant extract produced a water content of 61.06%-62.09% and a fat content of 12.68%-14.46%. The resulting color characteristics with the L* value range from 60.83-76.43 (decreasing brightness), the* value range from -6.69-6.71 (reddish), and the b* value range from 4.47-23 .88 (yellowish). Antioxidant activity is expressed by percent inhibition of 1,1-diphenyl-2-picrylhydrazil (DPPH), ranging from 36.00%-79.56%. The antioxidant activity of goat's milk cream cheese increases if the addition of liang tea extract is high. Based on the effectiveness index, the best goat's milk cream cheese is produced by adding a 3% concentration of liang tea. The cream cheese has a water content of 62.19%, a fat content of 14.46%, color (L* = 60.83, a* = 6.71, b* = 23.88), and antioxidant activity of 79.56%.

Reliance on animal foods must be reduced to improve planetary and human well-being. This research studied plant-based cheese alternatives (PBCA) relative to dairy cheese in a consumer taste test with 157 consumers in New Zealand. A case study approach used cream cheese (commercially available) as the focal product category (2 PBCA, 2 dairy) and implemented a multi-response paradigm (hedonic, sensory, emotional, conceptual, situational). "Beyond liking" insights were established, including drivers of liking (sensory, non-sensory) and sensory drivers of non-sensory product associations. Two consumer segments were identified, of which the largest (n = 111) liked PBCA and dairy samples equally (6.5–6.7 of 9). In this PBCA Likers cluster, the key sensory drivers of liking were 'creamy/smooth mouthfeel', 'dissolves quickly in mouth', and 'sweet', while a significant penalty was associated with 'mild/bland flavour'. The non-sensory data contributed additional consumer insights, including the four samples being perceived as differently appropriate for 9 of 12 use situations, with PBCA being regarded as less appropriate. In the limited confines of this case on cream cheese, the findings show that PBCA need not be inferior to their dairy counterparts despite a general narrative to the contrary. Of note, the results were obtained among participants who were open to eating a more PB diet but were not vegetarian or vegan. [ABSTRACT FROM AUTHOR]

The primary treatment for individuals with phenylketonuria (PKU) is a lifetime diet with low phenylalanine (Phe) to achieve neurological health. The objective of this study was to make a highly nutritious and palatable low‐Phe cream cheese analogue based on the partial replacement of fresh goat cream cheese with two levels of glycomacropeptide (GMP; 7 or 10%), GUM (0.6 or 0.8), nondairy creamer (0.5 or 2%) and whey protein concentrate (WPC; 0 or 2%). The chemical composition, texture, viscosity, protein digestibility and sensory attributes of the resulting cheeses were evaluated. Incorporation of the GMP at different levels significantly changed the chemical properties of the cheese. With increased levels of GMP and GUM, viscosity and firmness significantly increased as the protein–protein and protein–gum interaction produced stronger gels in comparison with the systems containing nondairy creamer and WPC due to their inactive filler, whereas adhesiveness decreased. Sensory characteristics of cheese indicated that formula made with high concentration of variables seems to be superior for PKU patients, which contained 12.44 mg Phe per gram of protein, and 82.4% protein digestibility after 6 h of enzymatic hydrolysis. According to the results, the method used in this study can be employed in achieving cream cheese analogue with reduced Phe content, appropriate for PKU patients. [ABSTRACT FROM AUTHOR]

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The study aimed to evaluate Ammoides pusilla‘s potential as a preservative for cream cheese, specifically exploring the antimicrobial activity of its essential oil (EO) and its impact on cheese quality during storage. EO demonstrated potent antibacterial effects, particularly against L. monocytogenes, while Bacillus cereus exhibited resistance. Cheese samples enriched with A. pusilla EO and plant powder displayed improved physicochemical parameters, featuring reduced acidity rates across all enriched samples and superior water retention capacity in plant powder-enriched samples compared to the control. The incorporation of A. pusilla impacted cheese color, revealing a diminished rate of the yellowish component increase and the lightness component decrease during storage. A. pusilla, particularly through plant powder, enhances antioxidant activity in cheese. The yeast and mold growth models predicted an extended shelf life for A. pusilla-fortified cheeses ranging from 4 to 7 days. Sensory evaluations indicated consumer preference for low-rate EO and plant powder-enriched samples. [ABSTRACT FROM AUTHOR]

This study aimed to use natural herbal gums, as fat replacers, for preparing a low‐fat synbiotic cream cheese; for this purpose, the effects of Lepidium perfoliatum seed gum (LPSG) (1% w/w) and flaxseed gum (FG) (1% w/w) on physicochemical, rheological, organoleptic, and microstructural properties of low‐fat cream cheese containing B. adolescentis and L. rhamnosus were analyzed over a 45‐day storage period. The results indicated that adding LPSG and FG had no significant effects on acidity and pH (p >.05). The results also showed that full‐fat (FF) cheese samples had the highest textural (hardness (1.099–0.88), cohesiveness (0.72–0.67), springiness (1.95–1.64), adhesiveness (1.01–0.69), and spreadability (1.53–1.17)), viscosity and sensory scores (color (4.22–4.18), odor (4.13–4.09), taste (4.19–3.89), texture (4.08–3.81), and overall acceptability (4.01–3.72)) during 45‐day storage. Based on the probiotic count test, only the treated samples with LPSG + FG had a probiotic count in the standard range (6.23 cfu/g) at the end of the storage time. The outcomes of the present study indicated that the incorporation of LPSG and FG into the formulation of low‐fat synbiotic cream cheese could be an effective strategy to overcome the problems associated with fat reduction. [ABSTRACT FROM AUTHOR]

This is the first study that investigates the effect of kefir with an emphasis on the production of short-chain fatty acids (SCFAs) during the fermentation process in food products. The products developed and characterized were an artisanal cream cheese without cream and one with added cream, and for the analysis of the fatty acid profile, both cream cheeses were compared with commercial cream cheese. The artisanal cream cheese had a high amount of lactic acid bacteria characterizing the product formed by Lactobacilli and a low concentration of lactose due to the fermentation process. Compared to commercial cream cheese, our products without and with added cream had a higher concentration of short-chain fatty acids (SCFAs), especially butyric acid, which is important for the health of the gastrointestinal tract, omega 3, and oleic fatty acid, which has been associated with the prevention and control of some diseases. Overall, the artisanal cream cheese cream with fermented cream with kefir grains is a functional product with an innovative character compared to current products on the market and was well accepted by the younger public. This new product comes as an option for those who need to change their eating habits and maintain a healthy lifestyle.

The aroma types of cream cheese affect its commercial value and consumer acceptability. However, the types of volatile substances and sensory characteristics of cream cheese at different fermentation stages are still unclear. Therefore, in this study, headspace solid-phase microextraction gas chromatography-mass spectrometry (HS-SPME-GC-MS) and headspace gas chromatography-ion mobility spectrometry (HS-GC-IMS) were used to analyze the volatile substances in cream cheese fermentation. Orthogonal partial least squares discriminant analysis (OPLS-DA), odor activity value (OAV), relative odor activity value (ROAV) and variable projection importance (VIP) were used to identify the characteristic flavor substances in cream cheese fermentation. Finally, the relationship between key flavor substances and sensory characteristics was determined by partial least squares (PLS) analysis. A total of 34 and 36 volatile organic compounds were identified by HS-SPME-GC-MS and HS-GC-MS, respectively, and 14 characteristic flavor substances were found, based on VIP, ROAV and OAV models. Combined with sensory analysis and flavor substance changes, it was found that the cream cheese fermented for 15 d had the best flavor and taste. This study reveals the characteristics and contribution of volatile substances in cream cheese at different fermentation stages, which provides new insights into improving flavor and quality control.

Background: Some consumers with celiac disease use personal, point-of-use gluten detection devices to test food. False-positive results may occur due to sampling, matrix effects, and sensor issues. Objective: The purpose of the present study was to determine if the positive gluten results some users were obtaining when testing cream cheese and materials of similar consistency were false positives and, if so, what might be causing them to occur. Methods: Cream cheese, soft cheese, and yogurt were tested for gluten using the Ridascreen Gliadin R7001 sandwich R5 ELISA and the Ridascreen Gliadin R7021 competitive R5 ELISA. Two test portions were taken, extracted, and tested from each homogenized material. Materials were also analyzed for gluten using a NIMA sensor, a personal, point-of-use gluten detection device. Multiple test portion weights were tested beginning at 0.13 to 0.17 g (the ideal weight of the test portion according to the NIMA sensor development team). Results: Using the sandwich R5 ELISA and the competitive R5 ELISA, all materials tested below the lower LOD for gluten. Using a NIMA sensor, as the weight of the test portion tested increased, sensor results went fromno gluten found, to gluten found, to no test result. Conclusion: The gluten found results using the NIMA sensor are likely false positives that appear to correspond with the weight and volume of the material tested, as well as the viscosity. There is also an apparent disconnect between the gluten found result reported by the sensor and an interpretation of the lateral flow device (LFD) strip result when assessed by eye which should also be taken into account. Ideally, NIMA sensor users should be advised on the weight amount of material to analyze and test portions should be weighed before being used with the NIMA sensor. However, this is not a practical solution when testing in many environments, including restaurants. Highlights: Slight variations in weight and volume of test materials can result in false positive results when testing dairy matrixes for gluten using the Nima sensor. [ABSTRACT FROM AUTHOR]

Controlling flavor perception by analyzing volatile and taste compounds is a key challenge for food industries, as flavor is the result of a complex mix of components. Machine-learning methodologies are already used to predict odor perception, but they are used to a lesser extent to predict aroma perception. The objectives of this work were, for the processed cream cheese models studied, to (1) analyze the impact of the composition and process on the sensory perception and VOC release and (2) predict "fresh cream" aroma perception from the VOC characteristics. Sixteen processed cream cheese models were produced according to a three-factor experimental design: the texturing agent type (κ-carrageenan, agar-agar) and level and the heating time. A R-A-T-A test on 59 consumers was carried out to describe the sensory perception of the cheese models. VOC release from the cheese model boli during swallowing was investigated with an in vitro masticator (Oniris device patent), followed by HS-SPME-GC-(ToF)MS analysis. Regression trees and random forests were used to predict "fresh cream" aroma perception, i.e., one of the main drivers of liking of processed cheeses, from the VOC release during swallowing. Agar-agar cheese models were perceived as having a "milk" odor and favored the release of a greater number of VOCs; κ-carrageenan samples were perceived as having a "granular" and "brittle" texture and a "salty" and "sour" taste and displayed a VOC retention capacity. Heating induced firmer cheese models and promoted Maillard VOCs responsible for "cooked" and "chemical" aroma perceptions. Octa-3,5-dien-2-one and octane-2,3-dione were the two main VOCs that contributed positively to the "fresh cream" aroma perception. Thus, regression trees and random forests are powerful statistical tools to provide a first insight into predicting the aroma of cheese models based on VOC characteristics. [ABSTRACT FROM AUTHOR]

The present study carried out in the Metropolitan Area of Bucaramanga is an attempt to identify traditional cheeses existing in the market. For this purpose a total of 370 consumer surveys were applied. The results indicate that, from the point of view of consumers, the following cheeses are seen as traditional: the cheeses: leaf, double cream, peasant, Chitagá, curd, goat cheese, mozzarella, cream, "costeño", pear, salty, "onzagueño" and "paisa". In general, texture and flavor are the two main attributes that stand out from traditional cheeses. Also, based on the main descriptor of the cheese that each consumer considers as traditional, these products can be organized into three groups. One segment is made up of cheeses with a product traditionality link of regional origin. Another segment would be made up of more industrialized cheeses, but which are considered traditional. Finally, the "costeño" cheese, through its salty attribute, is the most differentiated on the market. [ABSTRACT FROM AUTHOR]

This study aims to produce fat‐reduced cream cheese using the different levels (0.25%–0.5%) of basil seed and xanthan gum by a RSM method. The basil seed, xanthan gum, and fat levels did not significantly influence the cream cheese's pH and acidity. With the fat reduction, textural properties were lost; for example, hardness, gumminess, and adhesiveness increased, and cohesiveness decreased. In addition, low‐fat cream cheese's sensory score (taste, mouthfeel, and overall acceptance score) was lower. However, adding basil seed and xanthan gum could improve water holding capacity (WHC), hardness, gumminess, cohesiveness, adhesiveness and scores of mouthfeel, and overall acceptance. Basil seed gum had a better impact than xanthan on fat‐reduced cream cheese properties among the two gums. In general, results showed that adding 0.5% basil and 0.5% xanthan into cream cheese could manufacture a product with a reduced‐fat level (19.04%). At the same time, its physicochemical, sensory, and textural attributes were similar to cream cheese with high fat (24%). In addition, the price of the obtained product was lower. [ABSTRACT FROM AUTHOR]

Objective: This study aimed to determine the optimal conditions for ultra-high pressure (HHP) cream cheese. Methods: The influence of non-thermal processing pressure on the texture, flavor and shelf life of homemade cream cheese were explored. By using the texture profile analysis (TPA), solid-phase microextraction-gas chromatography-mass spectrometry (SPME-GC-MS), and colony counting method, the texture, flavor substances, and microorganisms of cheese were identified and evaluated. Results: After HHP treatment, the hardness, adhesiveness, and resilience of cream cheese decreased. The springiness of cheese reached the highest at 300 MPa, significantly increasing by 14.0% (P＜0.05). When the pressure is more than or equal to 400 MPa, the content and species of volatile substances in cheese are significantly reduced. Principal component analysis showed that 200 and 300 MPa treated cheese and unpressurized cheese were both in the first principal component area. After HHP treatment of artificially dyed cream cheese, the number of bacterial colonies decreased significantly (P＜0.05), and the greater the treatment pressure, the better the bactericidal effect. When the HHP treatment pressure is greater than or equal to 300 MPa, the shelf life of cheese was effectively extended from 7 days to 21 days. Conclusion: The cream cheese treated by HHP has a good texture and original flavor while effectively extending the shelf life.

The addition of ultrafiltered (UF) milk retentate is known to impact milk properties during mozzarella and cheddar cheese production, but the effect during cream cheese production is less well understood. Little is known about the impact of UF retentate on the intermediate stages of manufacture, such as protein assembly and the formation of hydrated acid gel structures. Here, milk prepared for cream cheese manufacture using a concentration factor of 2.5 or 5 had a similar particle size distribution to unconcentrated cheese milk after homogenization but increased viscosity and a slower rate of acidification, which could be altered by increasing starter culture concentration. The acid gels formed contained more protein and fat, resulting in a higher storage modulus, firmness, and viscosity. A denser microstructure was observed in acid gels formed with UF retentate addition, and quantitative two- or three-dimensional analysis of confocal images found a greater volume percentage of protein and fat, decreased porosity, and increased coalescence of fat. The mobility of water, as assessed by proton nuclear magnetic resonance, was reduced in the dense UF gel networks. Water movement was partially obstructed, although diffusion was possible between interconnected serum pores. These insights improve our understanding of acid gel formation. They can be used by manufacturers to further optimize the early and intermediate stages of cream cheese production when using concentrated milk to reduce acid whey production and lay the foundation for larger pilot scale studies of intermediate and final cream cheese structure. [ABSTRACT FROM AUTHOR]

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Cream cheese, a popular condiment, is widely used in people's daily diet and in dessert making. To ensure high-quality cream cheese production, the pH value is generally used as the indicator to determine the end point of cream cheese fermentation. The inoculation time and time-dependent concentrations of biomass, lactose, lactic acid are all crucial for pH prediction. However, the inoculation time could vary for industrial applications with multiple fermenters. Moreover, the inoculation time impact on fermentation has not been investigated. This paper aims to build a cream cheese fermentation model predicting pH. The model includes a semi-batch kinetic model and an artificial neural network (ANN) model. The outcome of the model will help the cream cheese industries understand the inoculation time impact on fermentation time and organise better fermenter scheduling. [ABSTRACT FROM AUTHOR]

The Normande breed originated from cattle brought to Normandy by Viking conquerors in the 9th and 10th centuries. For more than a thousand years, these cattle have become a dual-purpose breed to meet the milk and meat needs of the people of northwestern France. Normande cows have been exported around the world. The average height of bulls is about 152 cm and cows about 140 cm. The average body weight of male animals is about 1100 kg, and females about 700 kg. Normande cattle are an enduring French breed selected for the production of high-fat, high-protein milk, sought after for high-quality production of butter, cream and cheese and for their attractive meat properties. The Normande carry the Kappa Casein gene. The Normande breed is the only dairy breed sold as 'first class' meat. The carcass weight for young bulls is 355 kg with a meat yield of 55%, for castrates - 391 kg with a 55% yield, and for slaughtered cows the carcass weight is 340 kg with a meat yield of 53%. [ABSTRACT FROM AUTHOR]