Abstract: Dairy products are produced by subjecting a starting dairy material to nanofiltration to remove monovalent ions to produce an ion-depleted dairy permeate; passing the ion-depleted dairy permeate through an ion exchange column and subsequently with a sodium-containing eluting solution to produce sodium phosphate and sodium citrate derived from the starting material; concentrating the sodium phosphate and sodium citrate; and combining the concentrated sodium phosphate and sodium citrate with dairy components. The dairy product contains an amount of the concentrated sodium phosphate and sodium citrate sufficient to cause fat in the dairy product to be emulsified and protein in the dairy product to be hydrated. In addition or alternatively, a dairy by-product stream may be subjected to ion exchange to remove calcium therefrom; concentrated, and combined with dairy materials naturally containing phosphate and citrate in order to adjust the citrate+phosphate-to-calcium ratio to reach an emulsified dairy product.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: Dairy products are produced by subjecting a starting dairy material to nanofiltration to remove monovalent ions to produce an ion-depleted dairy permeate; passing the ion-depleted dairy permeate through an ion exchange column and subsequently with a sodium-containing eluting solution to produce sodium phosphate and sodium citrate derived from the starting material; concentrating the sodium phosphate and sodium citrate; and combining the concentrated sodium phosphate and sodium citrate with dairy components. The dairy product contains an amount of the concentrated sodium phosphate and sodium citrate sufficient to cause fat in the dairy product to be emulsified and protein in the dairy product to be hydrated. In addition or alternatively, a dairy by-product stream may be subjected to ion exchange to remove calcium therefrom; concentrated, and combined with dairy materials naturally containing phosphate and citrate in order to adjust the citrate+phosphate-to-calcium ratio to reach an emulsified dairy product.

Abstract: Dairy products are produced by subjecting a starting dairy material to nanofiltration to remove monovalent ions to produce an ion-depleted dairy permeate; passing the ion-depleted dairy permeate through an ion exchange column and subsequently with a sodium-containing eluting solution to produce sodium phosphate and sodium citrate derived from the starting material; concentrating the sodium phosphate and sodium citrate; and combining the concentrated sodium phosphate and sodium citrate with dairy components. The dairy product contains an amount of the concentrated sodium phosphate and sodium citrate sufficient to cause fat in the dairy product to be emulsified and protein in the dairy product to be hydrated. In addition or alternatively, a dairy by-product stream may be subjected to ion exchange to remove calcium therefrom; concentrated, and combined with dairy materials naturally containing phosphate and citrate in order to adjust the citrate+phosphate-to-calcium ratio to reach an emulsified dairy product.

Abstract: Food products and systems and methods for their production involve subjecting pasteurized milk to a concentration process thereby forming liquid concentrated milk, then fermenting the liquid concentrated milk to form a fermented concentrated milk product. The fermented concentrated milk product is combined with a liquid emulsifying agent, thereby forming a food product. The food product is formed without the fermented concentrated milk product and the food product reaching a temperature of 145° F.

Abstract: Food products and systems and methods for their production involve subjecting pasteurized milk to a concentration process thereby forming liquid concentrated milk, then fermenting the liquid concentrated milk to form a fermented concentrated milk product. The fermented concentrated milk product is combined with a liquid emulsifying agent, thereby forming a food product. The food product is formed without the fermented concentrated milk product and the food product reaching a temperature of 145° F.

Abstract: A method of preparing a less sodium food product involves forming a reaction mixture of one or more of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate and combining a food ingredient with the emulsifying salt mixture. A reduced sodium process cheese product is formed of a sol to gel conversion fat stabilized via a hydrated protein matrix by a combination of potassium caseinate and sodium caseinate in which the caseinates are derived from an emulsifying salt mixture of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate, which, prior to reaction, accounts for at least about 2.5 and up to about 8.32 percent by weight of a total weight of the process cheese product. The emulsifying salt mixture formed of the reaction mixture remains in solution at ambient conditions for at least two weeks prior to incorporation with a food ingredient.

Abstract: Food products and systems and methods for their production involve subjecting pasteurized milk to a concentration process thereby forming liquid concentrated milk, then fermenting the liquid concentrated milk to form a fermented concentrated milk product. The fermented concentrated milk product is combined with a liquid emulsifying agent, thereby forming a food product. The food product is formed without the fermented concentrated milk product and the food product reaching a temperature of 145° F.

Abstract: Dairy products are produced by subjecting a starting dairy material to nanofiltration to remove monovalent ions to produce an ion-depleted dairy permeate; passing the ion-depleted dairy permeate through an ion exchange column and subsequently with a sodium-containing eluting solution to produce sodium phosphate and sodium citrate derived from the starting material; concentrating the sodium phosphate and sodium citrate; and combining the concentrated sodium phosphate and sodium citrate with dairy components. The dairy product contains an amount of the concentrated sodium phosphate and sodium citrate sufficient to cause fat in the dairy product to be emulsified and protein in the dairy product to be hydrated. In addition or alternatively, a dairy by-product stream may be subjected to ion exchange to remove calcium therefrom; concentrated, and combined with dairy materials naturally containing phosphate and citrate in order to adjust the citrate+phosphate-to-calcium ratio to reach an emulsified dairy product.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: A method of preparing a less sodium food product involves forming a reaction mixture of one or more of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate and combining a food ingredient with the emulsifying salt mixture. A reduced sodium process cheese product is formed of a sol to gel conversion fat stabilized via a hydrated protein matrix by a combination of potassium caseinate and sodium caseinate in which the caseinates are derived from an emulsifying salt mixture of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate, which, prior to reaction, accounts for at least about 2.5 and up to about 8.32 percent by weight of a total weight of the process cheese product. The emulsifying salt mixture formed of the reaction mixture remains in solution at ambient conditions for at least two weeks prior to incorporation with a food ingredient.

Abstract: A method of preparing a less sodium food product involves forming a reaction mixture of one or more of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate and combining a food ingredient with the emulsifying salt mixture. A reduced sodium process cheese product is formed of a sol to gel conversion fat stabilized via a hydrated protein matrix by a combination of potassium caseinate and sodium caseinate in which the caseinates are derived from an emulsifying salt mixture of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate, which, prior to reaction, accounts for at least about 2.5 and up to about 8.32 percent by weight of a total weight of the process cheese product. The emulsifying salt mixture formed of the reaction mixture remains in solution at ambient conditions for at least two weeks prior to incorporation with a food ingredient.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: A method of preparing a less sodium food product involves forming a reaction mixture of one or more of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate and combining a food ingredient with the emulsifying salt mixture. A reduced sodium process cheese product is formed of a sol to gel conversion fat stabilized via a hydrated protein matrix by a combination of potassium caseinate and sodium caseinate in which the caseinates are derived from an emulsifying salt mixture of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate, which, prior to reaction, accounts for at least about 2.5 and up to about 8.32 percent by weight of a total weight of the process cheese product. The emulsifying salt mixture formed of the reaction mixture remains in solution at ambient conditions for at least two weeks prior to incorporation with a food ingredient.

Abstract: A method of preparing a less sodium food product involves forming a reaction mixture of one or more of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate and combining a food ingredient with the emulsifying salt mixture. A reduced sodium process cheese product is formed of a sol to gel conversion fat stabilized via a hydrated protein matrix by a combination of potassium caseinate and sodium caseinate in which the caseinates are derived from an emulsifying salt mixture of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate, which, prior to reaction, accounts for at least about 2.5 and up to about 8.32 percent by weight of a total weight of the process cheese product. The emulsifying salt mixture formed of the reaction mixture remains in solution at ambient conditions for at least two weeks prior to incorporation with a food ingredient.

Abstract: Food products and systems and methods for their production involve microfiltration (“MF”) of fluid skim to form a MF retentate, combining the MF retentate with cream and subjecting the combination to ultrafiltration (“UF”) to form a UF retentate. Prior to UF, the composition is formed of non-acidified components. Following UF, the UF retentate is acidified and forms a food product including a high solids content. The solids content may be further increased using evaporation. The resulting cheese or cheese base contains a lower whey protein ratio in a fat:casein:whey protein ratio compared to systems and methods that do not employ MF.

Abstract: A method of preparing a less sodium food product involves forming a reaction mixture of one or more of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate and combining a food ingredient with the emulsifying salt mixture. A reduced sodium process cheese product is formed of a sol to gel conversion fat stabilized via a hydrated protein matrix by a combination of potassium caseinate and sodium caseinate in which the caseinates are derived from an emulsifying salt mixture of liquid sodium potassium hydrogen phosphate and liquid sodium dipotassium phosphate, which, prior to reaction, accounts for at least about 2.5 and up to about 8.32 percent by weight of a total weight of the process cheese product. The emulsifying salt mixture formed of the reaction mixture remains in solution at ambient conditions for at least two weeks prior to incorporation with a food ingredient.