Rheology and crystallisation of cocoa butter in the presence of pea protein

The effects of pea protein isolate (PPI) particles on the crystallisation and rheological properties of cocoa butter (CB) were evaluated. PPI particles were milled to produce two size classes, coarse and fine. Milled PPI particles were found to aggregate in molten CB, increasing the viscosity of the system and forming an elastic network. Greater aggregation was observed as the size of PPI particles was reduced. PPI particles had no effect on the crystal structure of CB, or the polymorphic transition pathway. However, the induction time of crystallisation was shorter, and the crystalline domain size in the α-phase was smaller for CB crystals + PPI, indicating heterogeneous nucleation effects. PPI particles increased the elasticity of the system by an order of magnitude only during the early stages of CB crystallisation. This study demonstrates that PPI particles can be incorporated into fat-based systems without disrupting fat crystal structure, with the potential to enhance mechanical strength. This highlights their potential as functional rheological modifiers upon milling in confectionary applications. • Milled PPI particles have no effect on the crystal structure of CB • Milled PPI lower the induction time of CB crystallisation • At low SFC, milled PPI increased the elasticity of CB by an order of magnitude

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Publication Details

Journal
Food Structure
Published
2025-10-01
DOI
https://doi.org/10.1016/j.foostr.2025.100476
Citations
1
Primary Topic
Food Chemistry and Fat Analysis
Type
article
Field-Weighted Citation Impact
1.16
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article

Rheology and crystallisation of cocoa butter in the presence of pea protein

Isabel Celigueta Torres, Brent S. Murray, Paraskevi Paximada, Anwesha Sarkar et al.
1 citations
Food Structure
Food Chemistry and Fat Analysis
1.16
article

Rheology and crystallisation of cocoa butter in the presence of pea protein

Isabel Celigueta Torres, Brent S. Murray, Paraskevi Paximada, Anwesha Sarkar, Megan Holdstock, Michael Rappolt
article en
1 citations

Abstract

The effects of pea protein isolate (PPI) particles on the crystallisation and rheological properties of cocoa butter (CB) were evaluated. PPI particles were milled to produce two size classes, coarse and fine. Milled PPI particles were found to aggregate in molten CB, increasing the viscosity of the system and forming an elastic network. Greater aggregation was observed as the size of PPI particles was reduced. PPI particles had no effect on the crystal structure of CB, or the polymorphic transition pathway. However, the induction time of crystallisation was shorter, and the crystalline domain size in the α-phase was smaller for CB crystals + PPI, indicating heterogeneous nucleation effects. PPI particles increased the elasticity of the system by an order of magnitude only during the early stages of CB crystallisation. This study demonstrates that PPI particles can be incorporated into fat-based systems without disrupting fat crystal structure, with the potential to enhance mechanical strength. This highlights their potential as functional rheological modifiers upon milling in confectionary applications. • Milled PPI particles have no effect on the crystal structure of CB • Milled PPI lower the induction time of CB crystallisation • At low SFC, milled PPI increased the elasticity of CB by an order of magnitude

Food StructureVol. 46
University of Leeds (GB), Nestlé (United Kingdom) (GB), Centre for Alternative Technology (GB)
Openalex Percentile: Top 17%
Food Chemistry and Fat Analysis
1.16
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