Animal-free cheesemaking leveraging mycelium fermentation and microbial bio-design techniques facilitate production of plant-based cheese that exhibits enhanced flavor and texture. In one embodiment, the plant-based cheese is mozzarella, and a manufacturing method begins by fermenting a first mixture of soaked cashews and aquafaba liquid to produce cultured cashews. The cultured cashews are then blended into a second mixture together with additional aquafaba liquid, water, and a pea protein derived from mycelium fermentation. A preferred pea protein is shiitake-fermented pea protein. The second mixture is agitated through several mixing cycles while being progressively heated to produce a liquid blend, which blend is then extruded into the cheese composition. A filling and pack out operation is then applied to the cheese composition to produce the finished product, typically in the form of a mozzarella chub.

A method for producing a cream cheese-like, in particular vegan food product, in particular having a solidity in a value range between 0.2 N and 7.0 N measured at 10° C., and a corresponding food product, wherein the in particular cream cheese-like food product has a particle size distribution in a non-macerated state, with a particle size distribution, measured in distilled water, with an average particle diameter x50,3<100 μm, preferably between 10 and 40 μm, and with at least one peak, in particular a global maximum, at a particle diameter x3>10 μm, and in that, in a partially macerated state obtained by mixing one part by weight of the food product with 9 parts by weight of an SDS-EDTA solution (0.25% SDS, 0.25% EDTA), the food product has a particle size distribution with at least one additional peak at a particle diameter x3<10 μm in relation to the non-macerated state.

A method for producing a cream cheese-like, in particular vegan food product, in particular having a solidity in a value range between 0.2 N and 7.0 N measured at 10° C., and a corresponding food product, wherein the in particular cream cheese-like food product has a particle size distribution in a non-macerated state, with a particle size distribution, measured in distilled water, with an average particle diameter x50,3<100 μm, preferably between 10 and 40 μm, and with at least one peak, in particular a global maximum, at a particle diameter x3>10 μm, and in that, in a partially macerated state obtained by mixing one part by weight of the food product with 9 parts by weight of an SDS-EDTA solution (0.25% SDS, 0.25% EDTA), the food product has a particle size distribution with at least one additional peak at a particle diameter x3<10 μm in relation to the non-macerated state.

A method for producing a shaped food product, wherein the method comprises preparing a food matrix by mixing a carrier compound with an ion-dependent gelling compound and with a temperature-dependent gelling compound. The food matrix is provided with a temperature that is above a gelling temperature of the temperature-dependent gelling compound and of shaping the food matrix by means of a shaper, wherein the shaper provides to bring the food matrix into a desired shape of the food product as a shaped food matrix and wherein the food matrix has during the shaping a temperature that is above the gelling temperature of the temperature-dependent gelling compound. The shaped food matrix is brought into contact with a pre-shaping solution, wherein the pre-shaping solution provides gelling of the ion-dependent gelling compound at least at a surface of the shaped food matrix, wherein the gelling of the ion-dependent gelling compound at the surface of the shaped food matrix provides a layering of the shaped food matrix.

A method for producing a shaped food product, wherein the method comprises preparing a food matrix by mixing a carrier compound with an ion-dependent gelling compound and with a temperature-dependent gelling compound. The food matrix is provided with a temperature that is above a gelling temperature of the temperature-dependent gelling compound and of shaping the food matrix by means of a shaper, wherein the shaper provides to bring the food matrix into a desired shape of the food product as a shaped food matrix and wherein the food matrix has during the shaping a temperature that is above the gelling temperature of the temperature-dependent gelling compound. The shaped food matrix is brought into contact with a pre-shaping solution, wherein the pre-shaping solution provides gelling of the ion-dependent gelling compound at least at a surface of the shaped food matrix, wherein the gelling of the ion-dependent gelling compound at the surface of the shaped food matrix provides a layering of the shaped food matrix.

The present invention relates to an emulsion which contains at least lupine protein and plant fat emulsified in water, and a method for the production of the emulsion. The emulsion is characterized in that the lupine protein comprises a mass fraction in the emulsion which is <3%. The proposed emulsion gives an impression regarding the rheological properties, color, smell and taste, which is comparable to such of cow milk and can be further processed into various neutral milk substitute products.

The invention relates to a method for the production of cheese substitutes comprising mixing a casein composition comprising only casein of non animal origin with other ingredients comprising at least one ingredient among water, calcium, lipids, and carbohydrates, so as to obtain a liquid composition, transforming the liquid composition into a curd by the addition of at least one curdling agent and further processing the curd to obtain a cheese substitute.

The invention relates to a method for the production of cheese substitutes comprising mixing a casein composition comprising only casein of non animal origin with other ingredients comprising at least one ingredient among water, calcium, lipids, and carbohydrates, so as to obtain a liquid composition, transforming the liquid composition into a curd by the addition of at least one curdling agent and further processing the curd to obtain a cheese substitute.

The method for protein selection can include: characterizing a protein set, training a prediction model, determining target characteristic values, and determining a candidate protein set based on the target characteristic values.

The method for protein selection can include: characterizing a protein set, training a prediction model, determining target characteristic values, and determining a candidate protein set based on the target characteristic values.