Pinsirodom, Praphan
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Pinsirodom, Praphan
Alternative Name
Pinsirodom, P.
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praphan.pi@kmitl.ac.th
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Item type:Publication, Assessing the impact of polyphenol-rich plant extracts on ice cream meltdown behavior and structural elements using multivariate analysis(2025-06-01); Plant extracts are a rich source of polyphenols and become popular as a functional ingredient in ice cream products. However, addition of polyphenols in an ice cream mix can influent its structure and meltdown parameters. The objective of this study was to understand the effects of polyphenol-rich plant extracts on ice cream meltdown behavior and structural elements. Four plant extracts (grape seed, green tea, pomegranate, and roselle) were incorporated into ice cream mixes at 1, 2, and 3 wt % concentrations. All extracts resulted in ice creams with higher initial drip times (239–1421.5 s) and time to 50 % drip-through (1930–3397 s) with a concentration dependence compared to the control (234 and 1632 s, respectively), ranking highest to lowest as follows: green tea, grape seed, roselle, and pomegranate. The ice creams incorporating extracts could be classified into four distinct groups based on structural elements. The first group included green tea and pomegranate sample, which exhibited relatively high flow behavior index and low consistency coefficient. The second group was grape seed extract, characterized by high viscosity and low overrun. The third group comprised 2 % and 3 % roselle extract samples, with high fat globule size, and the fourth group solely the 1 % roselle extract, which showed high overrun. The results demonstrate that polyphenol-rich plant extracts can modify ice cream meltdown behavior due to changing its structural elements, and different polyphenol-rich plant extracts delay meltdown via specific mechanisms. These findings offer valuable insights for the application of plant extracts in ice cream quality modification. - Some of the metrics are blocked by yourconsent settings
Item type:Publication, Effect of protein-phenolic acid complexes on ice cream structure and meltdown behavior(2024-12-01); This study focused on understanding the effects of protein-phenolic acid complexes on structural changes and meltdown behavior in ice cream. Three phenolic acids (4-hydroxybenzoic acid, vanillic acid, and gallic acid) at two concentrations (2 and 10 mg/g) were individually investigated. Compared to control ice cream, 2 and 10 mg/g phenolic acid increased the induction time for the first drip by 175–200% and 200–292%, respectively. Ice cream with gallic acid and vanillic acid at 10 mg/g exhibited the lowest meltdown rates compared to other treatments. Addition of phenolic acids caused reduction of ice cream pH (4.92–6.13), overrun (23.11–69.02%), consistency coefficient (9.47–175.56 Pa s<sup>n</sup>), and melting enthalpy (154,320–193,330 J/kg), while increasing the apparent viscosity (478.37–8770.17 mPa s), flow behavior index (0.42–0.62), and fat globule size (2.22–10.53 μm). Fluorescence spectroscopy analysis of a model ice cream mix indicated the presence of protein-phenolic acid interactions. Microscope images of ice cream samples treated with SDS and EDTA further suggested that protein-phenolic acid interactions help create fat aggregation. These findings indicate that addition of phenolic acid to an ice cream mix affects its microstructure by generating protein-phenolic acid complexes that cause protein-mediated fat aggregation, altering the ice cream's viscosity properties and resulting in a lower meltdown rate. - Some of the metrics are blocked by yourconsent settings
Item type:Publication, Heating Before or After Complexation Differentially Affects Structural and Functional Properties of Whey Protein Isolate–Gallic Acid Complexes(2026-05-01);