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Effects of cellulose nanocrystals on the physicochemical and retrogradation properties of pea starch

Oct 2026 · Food Chemistry: X · Vol 39 · 0 citations · 30 references
Medicine

Abstract

Pea starch (PS), with its high amylose content, is prone to retrogradation, which limits the shelf life of pea-based foods. However, direct evidence linking the dispersion of cellulose nanocrystals (CNCs) to water-state changes in high-amylose legume starch remains limited. The gelation and storage-induced reorganization of PS with 0–8% CNCs were investigated by multi-scale analyses. Rod-like CNCs competitively bound water and bridged starch fragments, restricting granule swelling and amylose leaching; SEM revealed a concrete-like CNCs framework that thickened the pore walls, while FTIR indicated only non-covalent hydrogen bonding. As CNCs content increased from 0% to 8%, relative crystallinity decreased from 34% to 16% and the degree of retrogradation from 14.07% to 7.23%, accompanied by a reduced free-water fraction (A₂₃, 27.79%) and a shortened T₂₂. These findings suggest that the nano-reinforcement and interfacial hydrogen-bond modulation by CNCs mitigate PS gel aging, providing a scientific basis for designing stable pea-based products.

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