2021
DOI: 10.1016/j.foodres.2020.110059
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Biopolymer interactions on emulsion-filled hydrogels: chemical, mechanical properties and microstructure

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Cited by 11 publications
(4 citation statements)
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“…can be blended with starch to prepare hydrogels, which achieve high chain flexibility for water transport. 58 This property is especially crucial in the realm of food preservation, where maintaining the moisture content of food products is of utmost importance.…”
Section: Starch-based Hydrogelsmentioning
confidence: 99%
“…can be blended with starch to prepare hydrogels, which achieve high chain flexibility for water transport. 58 This property is especially crucial in the realm of food preservation, where maintaining the moisture content of food products is of utmost importance.…”
Section: Starch-based Hydrogelsmentioning
confidence: 99%
“…The coating mixture combines starch, gelatin, and sodium alginate to create a hydrocolloid-based barrier that resists grease penetration into laminated paper. Starch, gelatin, and sodium alginate are all biopolymers that form a gel-like network in water 24 . The gel-like structure provides a physical barrier that hinders grease molecules from moving into its bulk structure.…”
Section: Biodegradationmentioning
confidence: 99%
“…However, the chemical stability of curcumin decreased upon decreasing oil droplet size, which suggested that the stabilizing effect of microemulsions exceeded that of nanoemulsions [ 92 ]. Moreover, Silva et al [ 93 ] used potato starch (gelatinized or natural) as the main component and a low concentration of sodium alginate and gelatin as the continuous phase to reveal that the swelling behavior of the corresponding emulsion-filled hydrogel during digestion was related to its mechanochemical properties. More specifically, during enterolysis, the oil droplets that had been exposed to the sodium alginate–gelatin mixture formed a porous network, whereas the non-gelatinized starch–sodium, alginate–gelatin hydrogels maintained a closed network with no pores.…”
Section: Applications On the Dispersed-phase Scalementioning
confidence: 99%