Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel

In this article we present data related to the original research articles ‘Effect of matrix architecture on the elastic behavior of an emulsion-filled polymer gel’ (Gravelle et al., 2021) and ‘The influence of network architecture on the large deformation and fracture behavior of emulsion-filled gel...

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Main Authors: Andrew J. Gravelle, Alejandro G. Marangoni
Format: Article
Language:English
Published: Elsevier 2021-10-01
Series:Data in Brief
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2352340921006922
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author Andrew J. Gravelle
Alejandro G. Marangoni
author_facet Andrew J. Gravelle
Alejandro G. Marangoni
author_sort Andrew J. Gravelle
collection DOAJ
description In this article we present data related to the original research articles ‘Effect of matrix architecture on the elastic behavior of an emulsion-filled polymer gel’ (Gravelle et al., 2021) and ‘The influence of network architecture on the large deformation and fracture behavior of emulsion-filled gelatin gels’ (Gravelle and Marangoni, 2021). The small deformation elastic (Young's) modulus and large deformation fracture behavior of emulsion-filled composite gelatin gels are reported as a function of filler volume fraction (ϕf = 0 – 0.32). Homogeneous and heterogeneous network architectures were achieved by varying electrostatic interactions between matrix and filler. The effect of emulsion droplet physical state (solid fat or liquid oil) and gelator concentration (2, 4, 6, or 8% gelatin) were also evaluated. The reported elastic modulus, and fracture properties were obtained from large deformation uniaxial compression tests. Power law scaling behavior was identified for the elastic modulus as a function of both ϕf and gelator concentration, which are also reported. This data is relevant to the evaluation of network properties on the applicability of small deformation particle reinforcement theories and models describing the fracture mechanics of filled composites such as fat-filled food systems.
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spelling doaj.art-8c62de86ccf3408795a16fbff42c3c612022-12-21T17:34:19ZengElsevierData in Brief2352-34092021-10-0138107410Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gelAndrew J. Gravelle0Alejandro G. Marangoni1Corresponding author.; Department of Food Science, University of Guelph, Guelph, ON, CanadaDepartment of Food Science, University of Guelph, Guelph, ON, CanadaIn this article we present data related to the original research articles ‘Effect of matrix architecture on the elastic behavior of an emulsion-filled polymer gel’ (Gravelle et al., 2021) and ‘The influence of network architecture on the large deformation and fracture behavior of emulsion-filled gelatin gels’ (Gravelle and Marangoni, 2021). The small deformation elastic (Young's) modulus and large deformation fracture behavior of emulsion-filled composite gelatin gels are reported as a function of filler volume fraction (ϕf = 0 – 0.32). Homogeneous and heterogeneous network architectures were achieved by varying electrostatic interactions between matrix and filler. The effect of emulsion droplet physical state (solid fat or liquid oil) and gelator concentration (2, 4, 6, or 8% gelatin) were also evaluated. The reported elastic modulus, and fracture properties were obtained from large deformation uniaxial compression tests. Power law scaling behavior was identified for the elastic modulus as a function of both ϕf and gelator concentration, which are also reported. This data is relevant to the evaluation of network properties on the applicability of small deformation particle reinforcement theories and models describing the fracture mechanics of filled composites such as fat-filled food systems.http://www.sciencedirect.com/science/article/pii/S2352340921006922Emulsion-filled gelsComposite gelsElastic modulusFracture mechanicsGelatinNetwork architecture
spellingShingle Andrew J. Gravelle
Alejandro G. Marangoni
Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel
Data in Brief
Emulsion-filled gels
Composite gels
Elastic modulus
Fracture mechanics
Gelatin
Network architecture
title Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel
title_full Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel
title_fullStr Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel
title_full_unstemmed Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel
title_short Dataset on the small- and large deformation mechanical properties of emulsion-filled gelatin hydrogels as a model particle-filled composite food gel
title_sort dataset on the small and large deformation mechanical properties of emulsion filled gelatin hydrogels as a model particle filled composite food gel
topic Emulsion-filled gels
Composite gels
Elastic modulus
Fracture mechanics
Gelatin
Network architecture
url http://www.sciencedirect.com/science/article/pii/S2352340921006922
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