Exploration of structural differences between dairy and plant-based cheese

The functionality and microstructure of commercial dairy cheese, commercial plant-based cheese, and high-protein plant-based cheese (HPC) were analyzed to explore the structure-function relationship. Commercial dairy cheese exhibited the best functionality, showcasing an ideal texture profile alongside optimal melting and stretch characteristics. In contrast, commercial plant-based cheese showed the least resemblance to dairy cheese, with the lowest melting and stretching properties, as well as considerable structural integrity after heating, marked by the highest G’ and lowest tan δ values. HPC demonstrated notable improvements in textural properties compared to commercial plant-based cheese, indicated by enhanced melting and stretching, lower G’, and higher tan δ, reflecting its viscous nature. The microstructural analysis on cold samples revealed that both dairy and commercial plant-based cheeses contained a high density of small fat globules, while HPC had significantly larger globules and protein aggregates. Upon melting, dairy cheese and HPC displayed similar microstructures, characterized by fat pooling and a yielding continuous matrix, correlating with their melting and stretching abilities. In contrast, the melted commercial plant-based cheese exhibited minimal structural changes from its cold state, indicating that its starch matrix was irreversible and did not yield under heat. Ultimately, to achieve melting and stretching in both dairy and plant-based cheeses, the network must yield upon heating, allowing for fat pooling but maintaining connectivity of the continuous matrix. • Commercial dairy, plant-based, and high-protein cheese differ in functionality. • Synchrotron micro-computed tomography provides 3D renderings of cheese samples. • Melt and stretch of dairy and high-protein cheese link to similar microstructure. • Increased melt and stretch relate to phase separation and matrix-yielding. • Poor melt and stretch indicated matrix over-structuring.

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Publication Details

Journal
Food Structure
Published
2025-03-29
DOI
https://doi.org/10.1016/j.foostr.2025.100424
Citations
3
Primary Topic
Food composition and properties
Type
article
Field-Weighted Citation Impact
3.36

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article

Exploration of structural differences between dairy and plant-based cheese

Alan D. W. Dobson
3 citations
Food Structure
Food composition and properties
3.36
article

Exploration of structural differences between dairy and plant-based cheese

Alan D. W. Dobson
article en
3 citations

Abstract

The functionality and microstructure of commercial dairy cheese, commercial plant-based cheese, and high-protein plant-based cheese (HPC) were analyzed to explore the structure-function relationship. Commercial dairy cheese exhibited the best functionality, showcasing an ideal texture profile alongside optimal melting and stretch characteristics. In contrast, commercial plant-based cheese showed the least resemblance to dairy cheese, with the lowest melting and stretching properties, as well as considerable structural integrity after heating, marked by the highest G’ and lowest tan δ values. HPC demonstrated notable improvements in textural properties compared to commercial plant-based cheese, indicated by enhanced melting and stretching, lower G’, and higher tan δ, reflecting its viscous nature. The microstructural analysis on cold samples revealed that both dairy and commercial plant-based cheeses contained a high density of small fat globules, while HPC had significantly larger globules and protein aggregates. Upon melting, dairy cheese and HPC displayed similar microstructures, characterized by fat pooling and a yielding continuous matrix, correlating with their melting and stretching abilities. In contrast, the melted commercial plant-based cheese exhibited minimal structural changes from its cold state, indicating that its starch matrix was irreversible and did not yield under heat. Ultimately, to achieve melting and stretching in both dairy and plant-based cheeses, the network must yield upon heating, allowing for fat pooling but maintaining connectivity of the continuous matrix. • Commercial dairy, plant-based, and high-protein cheese differ in functionality. • Synchrotron micro-computed tomography provides 3D renderings of cheese samples. • Melt and stretch of dairy and high-protein cheese link to similar microstructure. • Increased melt and stretch relate to phase separation and matrix-yielding. • Poor melt and stretch indicated matrix over-structuring.

Food StructureVol. 44
University of Guelph (CA)
University of Saskatchewan, National Research Council, Canada Foundation for Innovation, Canadian Institutes of Health Research, Natural Sciences and Engineering Research Council of Canada
Zero hunger
Openalex Percentile: Top 10%
Food composition and properties
3.36
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