Physical properties and microstructure of hybrid processed cheeses formulated with plant protein and milk protein ingredients

Hybrid processed cheese analogues (HPCAs) containing either mung bean (MPI) or hemp protein (HPI) with rennet casein (RC) at various ratios were prepared and analysed to understand their spatial and microstructural distribution and related physical properties, such as rheological properties, texture profile, meltability, and stretchability. In addition, protein composition and secondary protein structure were studied using SDS–PAGE and FTIR spectroscopy, while CLSM and TEM were employed to visualise the microstructure of the cheese matrix. Results indicated that plant protein types and concentration significantly affected the physical properties and microstructure of HPCAs. The addition of 30% or more plant protein altered the physical and textural properties as well as the microstructure of the cheese analogues, with a decrease in β-sheet content and an increase in random coil structures. Mung bean protein–based HPCAs exhibit greater stretchability (e.g. 93.8 mm in 30% MPI vs 41.53 mm in 30% HPI), rheological, and textural properties, but not meltability (e.g. 1% in 70% MPI vs 48% in 70% HPI), compared with the hemp protein system at the same mixing ratios. This difference can be attributed to the size of the plant protein aggregation. All data were analysed by one-way ANOVA with Tukey’s test (p < 0.05). These findings deepen our understanding of plant protein-based and hybrid cheeses, paving the way for optimised plant-based dairy alternatives. • Plant protein type and ratio affect hybrid cheese’s structure and functionality. • Plant protein (≥30%) forms an independent plant protein network. • Mung bean protein forms larger aggregates, increasing cheese hardness and rigidity. • Hemp protein forms smaller aggregates, resulting in a softer cheese structure. • Mung bean hybrid cheese shows higher stretchability than that of hemp protein. • Hemp protein hybrid cheese shows higher meltability than that of mung bean.

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Publication Details

Journal
Food Hydrocolloids
Published
2025-06-21
DOI
https://doi.org/10.1016/j.foodhyd.2025.111688
Citations
10
Primary Topic
Proteins in Food Systems
Type
article
Field-Weighted Citation Impact
11.62
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article

Physical properties and microstructure of hybrid processed cheeses formulated with plant protein and milk protein ingredients

Mark R. Waterland, Alejandra Acevedo-Fani, Harjinder Singh, Debashree Roy et al.
10 citations
Food Hydrocolloids
Proteins in Food Systems
11.62
article

Physical properties and microstructure of hybrid processed cheeses formulated with plant protein and milk protein ingredients

Mark R. Waterland, Alejandra Acevedo-Fani, Harjinder Singh, Debashree Roy, Aiqian Ye, Di Lü
article en
10 citations

Abstract

Hybrid processed cheese analogues (HPCAs) containing either mung bean (MPI) or hemp protein (HPI) with rennet casein (RC) at various ratios were prepared and analysed to understand their spatial and microstructural distribution and related physical properties, such as rheological properties, texture profile, meltability, and stretchability. In addition, protein composition and secondary protein structure were studied using SDS–PAGE and FTIR spectroscopy, while CLSM and TEM were employed to visualise the microstructure of the cheese matrix. Results indicated that plant protein types and concentration significantly affected the physical properties and microstructure of HPCAs. The addition of 30% or more plant protein altered the physical and textural properties as well as the microstructure of the cheese analogues, with a decrease in β-sheet content and an increase in random coil structures. Mung bean protein–based HPCAs exhibit greater stretchability (e.g. 93.8 mm in 30% MPI vs 41.53 mm in 30% HPI), rheological, and textural properties, but not meltability (e.g. 1% in 70% MPI vs 48% in 70% HPI), compared with the hemp protein system at the same mixing ratios. This difference can be attributed to the size of the plant protein aggregation. All data were analysed by one-way ANOVA with Tukey’s test (p < 0.05). These findings deepen our understanding of plant protein-based and hybrid cheeses, paving the way for optimised plant-based dairy alternatives. • Plant protein type and ratio affect hybrid cheese’s structure and functionality. • Plant protein (≥30%) forms an independent plant protein network. • Mung bean protein forms larger aggregates, increasing cheese hardness and rigidity. • Hemp protein forms smaller aggregates, resulting in a softer cheese structure. • Mung bean hybrid cheese shows higher stretchability than that of hemp protein. • Hemp protein hybrid cheese shows higher meltability than that of mung bean.

Food HydrocolloidsVol. 170
Riddet Institute (NZ), Massey University (NZ)
Zero hunger
Openalex Percentile: Top 1%
Proteins in Food Systems
11.62
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