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June 4, 2026Applied Sciences0 citationsOpen Access

Composition, Functional, and Technological Properties of Enzyme-Modified Carrot Pomace

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UGUgne GasiunaiteJJJolita JagelavičiūtėLBLoreta Bašinskienė

Key Points

  • This study aims to explore how enzymatic treatments affect the composition and properties of carrot pomace.
  • Used enzymatic hydrolysis with Pectinex®, Celluclast®, and Viscozyme® on carrot pomace.
  • Analyzed chemical composition, technological properties, and functional properties post-treatment.
  • Measured changes in dietary fiber content, reducing sugars, and prebiotic activity.
  • Enzymatic treatment reduced total dietary fiber by up to 54.1% and insoluble dietary fiber by 58.5%.
  • Reducing sugars increased by 2.3–3.4-fold, and the soluble dietary fiber to insoluble dietary fiber ratio improved to 1:1.2–1.5.
  • Prebiotic index of Celluclast®-modified carrot pomace exceeded that of inulin for selected strains.

Abstract

Carrot pomace (CP) represents a promising source of dietary fiber with potential applications in functional food systems. This study investigated the effects of enzymatic hydrolysis (Pectinex® Ultra Tropical, Celluclast® 1.5 L, and Viscozyme® L) on the chemical composition, technological, and functional properties of CP. The untreated CP was characterized by a high total dietary fiber (TDF) content, predominated by insoluble dietary fiber (IDF), with a soluble dietary fiber (SDF)/IDF ratio of 1:1.6. Enzymatic treatment significantly reduced TDF and IDF (up to 54.1% and 58.5%, respectively) while increasing reducing sugars by 2.3–3.4-fold and changing the SDF/IDF ratio to 1:1.2–1.5. Technological properties were altered, with decreased oil-retention capacity and color intensity, whereas water-solubility index increased, and water-swelling capacity was enzyme-dependent. Emulsion stability was enhanced in enzymatically treated samples. Total phenolic content increased in the soluble fraction (up to 21.8%). Functional properties, including cholesterol-binding, sodium cholate-binding, and glucose-adsorption capacities, were significantly influenced by enzymatic modification and pH conditions (for cholesterol-binding capacity). Prebiotic activity varied depending on enzyme treatment, and Celluclast®-modified CP demonstrated the highest prebiotic index, exceeding that of inulin for selected strains. Overall, enzymatic hydrolysis effectively modulated the structural and functional properties of CP, highlighting its potential as a value-added ingredient for the formulation of functional and prebiotic food products.

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Cite This Study

Gasiunaite et al. (2026) studied this question.

synapsesocial.com/papers/6a211689d499ed480b16f889https://doi.org/10.3390/app16115552
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