Characterization and quantification of anisotropy in mozzarella cheese: Exploring the impact of structural anisotropy on functional properties using complementary analytical technologies

Mozzarella cheese is a key ingredient in many cuisines, valued for its creamy texture and its exceptional popularity as a pizza topping. The unique melting and stretching behavior is closely linked to its structural anisotropy, which can be modulated by production conditions. The textural anisotropy of the cheese significantly influences its viscoelastic and thermodynamic properties when heated. This paper explores how process parameters influence mozzarella structure, utilizing Fluorescence Anisotropy (FA) and Oblique Incidence Reflectometry (OIR) for anisotropy quantification. To corroborate the results, our study incorporates detailed microstructural analysis via X-ray computed tomography (CT). The ultimate product functionality of the mozzarella cheese is evaluated from both a consumer and quality perspective by assessing its performance in pizza baking. The key findings of our study indicate that the determinations of anisotropy by FA and OIR are highly correlated with each other and with important functional properties and process parameters. Functional parameters associated with blisters negatively correlate with anisotropy, while oiling and meltability exhibit a positive correlation with anisotropy values. The anisotropy values observed through FA and OIR further align closely with CT images, as well as with pizza functionality and consumer tests. • The differences in structural anisotropy of mozzarella cheese are closely linked to the cooker-stretcher parameters. • Anisotropy significantly influences the functional and sensory characteristics of mozzarella cheese when subjected to heat, particularly during pizza baking. • Fluorescence Anisotropy (FA) and Oblique Incidence Reflectometry (OIR) enable robust and effective quantification of anisotropy. • X-ray Computed Tomography (CT) is employed to analyze the microstructural differences in mozzarella cheese. • Strong correlations have been identified between process conditions, functional properties, and structural anisotropy.

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Publication Details

Journal
Food Structure
Published
2025-03-29
DOI
https://doi.org/10.1016/j.foostr.2025.100425
Citations
3
Primary Topic
Probiotics and Fermented Foods
Type
article
Field-Weighted Citation Impact
3.49

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article

Characterization and quantification of anisotropy in mozzarella cheese: Exploring the impact of structural anisotropy on functional properties using complementary analytical technologies

Anders Nymark Christensen, Ulf Andersen, Frans van den Berg, Siavash Bigdeli et al.
3 citations
Food Structure
Probiotics and Fermented Foods
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article

Characterization and quantification of anisotropy in mozzarella cheese: Exploring the impact of structural anisotropy on functional properties using complementary analytical technologies

Anders Nymark Christensen, Ulf Andersen, Frans van den Berg, Siavash Bigdeli, Jeppe Revall Frisvad, Anders Bjorholm Dahl, Lezhong Wang, Søren Balling Engelsen, H. S. Patel, Kristina Schmidt Bejder, Joana Ortega-Anaya, Pawel Tomasz Pieta
article en
3 citations

Abstract

Mozzarella cheese is a key ingredient in many cuisines, valued for its creamy texture and its exceptional popularity as a pizza topping. The unique melting and stretching behavior is closely linked to its structural anisotropy, which can be modulated by production conditions. The textural anisotropy of the cheese significantly influences its viscoelastic and thermodynamic properties when heated. This paper explores how process parameters influence mozzarella structure, utilizing Fluorescence Anisotropy (FA) and Oblique Incidence Reflectometry (OIR) for anisotropy quantification. To corroborate the results, our study incorporates detailed microstructural analysis via X-ray computed tomography (CT). The ultimate product functionality of the mozzarella cheese is evaluated from both a consumer and quality perspective by assessing its performance in pizza baking. The key findings of our study indicate that the determinations of anisotropy by FA and OIR are highly correlated with each other and with important functional properties and process parameters. Functional parameters associated with blisters negatively correlate with anisotropy, while oiling and meltability exhibit a positive correlation with anisotropy values. The anisotropy values observed through FA and OIR further align closely with CT images, as well as with pizza functionality and consumer tests. • The differences in structural anisotropy of mozzarella cheese are closely linked to the cooker-stretcher parameters. • Anisotropy significantly influences the functional and sensory characteristics of mozzarella cheese when subjected to heat, particularly during pizza baking. • Fluorescence Anisotropy (FA) and Oblique Incidence Reflectometry (OIR) enable robust and effective quantification of anisotropy. • X-ray Computed Tomography (CT) is employed to analyze the microstructural differences in mozzarella cheese. • Strong correlations have been identified between process conditions, functional properties, and structural anisotropy.

Food StructureVol. 44
University of Copenhagen (DK), Institute of Food Science and Technology (CN), Agro Business Park (DK), Arla Foods (Denmark) (DK), Technical University of Denmark (DK)
Innovationsfonden
Zero hunger
Openalex Percentile: Top 9%
Probiotics and Fermented Foods
3.49
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