Hard non-dairy cheese composition and process for preparation thereof
A composition, non-dairy technology, applied in dairy products, food science, cheese substitutes, etc., can solve the problem of non-dairy cheese for consumers
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Embodiment 1
[0095] Table 1 shows the composition of pea fibers used in the formula of hard non-breast cheese. The fibers show significantly different content of insoluble fiber fraction and total starch.
[0096] Table 1 :
[0097]
Embodiment 2
[0098] Example 2: Natural viscoelasticity of potato fibers
[0099] The rheological response based on potato fibers is dispersed in water to select potato fibers from commercially available sources.
[0100] figure 1 The viscoelasticity of 5% by weight of the potato fiber aqueous dispersion is shown, G 'is significantly greater than G ", and remains constant in a wide range of application (corresponding to the linear viscoelastic region) until the microstructure decomposition and the material yield The fact that the potato fiber dispersion shows G '> g "indicates that the main solids response within the applied strain range, which is attributed to a chain entanglement between the aforementioned polysaccharide dissolved in the water continuous phase. The insoluble fibrous fraction of potato fibers is used as a filler, which has a small contribution to the viscoelastic response of dietary fiber suspension.
[0101] This particular viscoelastic response is not measured when using d...
Embodiment 3
[0102] Example 3: Shear viscosity assay of pea cell wall fibers and pea shell fibers
[0103] figure 2 A shows the shear viscosity (φ) of pea cell wall fibers within a certain volume of volume. The pea fiber dispersion was prepared in a concentration range of up to 7.5% by weight. The 2 ml of each FRPF dispersion was then transferred to the Eppendorf tube and centrifuged in three steps, each step for 30 minutes. In each step, remove the discharge water (e w ) And weigh. The volume of the precipitate (S) is S = V-E w Where V corresponds to the total volume of 2 ml. Subsequently, φ: φ = S / V is calculated as described below
[0104] Since the particulate aggregate is broken under application, the dispersion appears as a Newtonian fluid at a low φ, while the shear is made in a higher φ. Pea cell wall waterborne dispersion does not show limit viscosity (η 0 And η ∞ ), And have similar increased viscosity values, which may be given by relatively high starch contents of pea cell wall...
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