Enhancing 3D printing performance of O/W emulsions with asparagus fibre

• Fibre powders were valorized and mildly produced from asparagus by-product. • Fibre can significantly improve the 3D printability and rheology of O/W emulsion. • Packing density of oil droplets are essential for O/W emulsion printability. • Fibre can replace part of oil fraction while maintain the emulsion 3D printability. Asparagus fibre recovered from agricultural waste stream can be valorised as a natural ingredient for fibre enrichment in food products. This study investigated the effects of asparagus fibre on the 3D printing performance of oil-in-water (O/W) emulsions as edible inks. Emulsion gels were prepared by either varying the fibre concentration in the aqueous phase or varying the volume fraction of the oil phase. Printability, rheological properties, and microstructure of the samples were systematically evaluated. Our results show increasing fibre concentration (up to 9.9 %w/w) significantly improved 3D printing performance of the inks, which was attributed to their enhanced rheological properties. Interestingly, reducing the oil volume fraction from 72 to 66 %v/v (i.e., fibre concentration was kept at 9.9 %w/w) did not detrimentally influence the 3D printing quality. Microstructural analysis of the emulsions revealed that increasing fibre concentration led to smaller size and different surface morphology of the oil droplets. Fibre particles in the aqueous phase may hinder oil droplet movement, stabilizing emulsions during 3D printing. Our findings give new insights into the development of edible 3D-printed food products via fibre enrichment and oil reduction.

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Publication Details

Journal
Future Foods
Published
2024-10-12
DOI
https://doi.org/10.1016/j.fufo.2024.100472
Citations
2
Primary Topic
Proteins in Food Systems
Type
article
Field-Weighted Citation Impact
0.70

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article

Enhancing 3D printing performance of O/W emulsions with asparagus fibre

Yifeng Lu, Lu Zhang, Maarten A.I. Schutyser
2 citations
Future Foods
Proteins in Food Systems
0.70
article

Enhancing 3D printing performance of O/W emulsions with asparagus fibre

Yifeng Lu, Lu Zhang, Maarten A.I. Schutyser
article en
2 citations

Abstract

• Fibre powders were valorized and mildly produced from asparagus by-product. • Fibre can significantly improve the 3D printability and rheology of O/W emulsion. • Packing density of oil droplets are essential for O/W emulsion printability. • Fibre can replace part of oil fraction while maintain the emulsion 3D printability. Asparagus fibre recovered from agricultural waste stream can be valorised as a natural ingredient for fibre enrichment in food products. This study investigated the effects of asparagus fibre on the 3D printing performance of oil-in-water (O/W) emulsions as edible inks. Emulsion gels were prepared by either varying the fibre concentration in the aqueous phase or varying the volume fraction of the oil phase. Printability, rheological properties, and microstructure of the samples were systematically evaluated. Our results show increasing fibre concentration (up to 9.9 %w/w) significantly improved 3D printing performance of the inks, which was attributed to their enhanced rheological properties. Interestingly, reducing the oil volume fraction from 72 to 66 %v/v (i.e., fibre concentration was kept at 9.9 %w/w) did not detrimentally influence the 3D printing quality. Microstructural analysis of the emulsions revealed that increasing fibre concentration led to smaller size and different surface morphology of the oil droplets. Fibre particles in the aqueous phase may hinder oil droplet movement, stabilizing emulsions during 3D printing. Our findings give new insights into the development of edible 3D-printed food products via fibre enrichment and oil reduction.

Future FoodsVol. 10
Wageningen University & Research (NL)
China Scholarship Council
Affordable and clean energy
Openalex Percentile: Top 27%
Proteins in Food Systems
0.70
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Enhancing 3D printing performance of O/W emulsions with asparagus fibre — Yifeng Lu, Lu Zhang, et al. · Future Foods (2024) | TGRS Research Map | TGRS