Analysis on the ice growth in 3D-printed meat during freezing process

In this study, a low-fat 3D printed meat was designed and prepared, and its printing formability and postprinting stability were evaluated via rheological and specific measurements. The freezing behaviour of samples with different physical size at different freezing temperatures (including superchilling treatment) was investigated through the macroscopic freezing process. The quantity and size of ice crystals under different freezing rates were dynamically captured by microscopic observation, and fitting equations were obtained by further combining the data via macro- and microscopic ice quantification methods. The quality characteristics of chicken breast, commercially available plant-based chicken breast and 3D printed meat based on chicken breast and walnut protein (CBWP) before and after freezing in different environments were compared via ice crystal quantization technology. It was found that the water-holding capacity of 3D-printed meat CBWP after superchilling treatment exhibited better than other freezing groups, indicating the possibility of using superchilling treatment technology as a preservation method for 3D-printed meat. • Novel, 3D-printed meat was designed to be frozen using quick freezing and superchilling treatment. • The ice crystal growth of 3D-printed meat was investigated under macroscopic and microscopic conditions. • The ice content quantification methods could be applied experimentally and commercially in the future.

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Publication Details

Journal
LWT
Published
2025-02-01
DOI
https://doi.org/10.1016/j.lwt.2025.117549
Citations
5
Primary Topic
Meat and Animal Product Quality
Type
article
Field-Weighted Citation Impact
5.97

Funders

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article

Analysis on the ice growth in 3D-printed meat during freezing process

Aidong Sun, Guoliang Jia, Wenli Luan, Vibeke Orlien et al.
5 citations
LWT
Meat and Animal Product Quality
5.97
article

Analysis on the ice growth in 3D-printed meat during freezing process

Aidong Sun, Guoliang Jia, Wenli Luan, Vibeke Orlien, Yimeng Chen
article en
5 citations

Abstract

In this study, a low-fat 3D printed meat was designed and prepared, and its printing formability and postprinting stability were evaluated via rheological and specific measurements. The freezing behaviour of samples with different physical size at different freezing temperatures (including superchilling treatment) was investigated through the macroscopic freezing process. The quantity and size of ice crystals under different freezing rates were dynamically captured by microscopic observation, and fitting equations were obtained by further combining the data via macro- and microscopic ice quantification methods. The quality characteristics of chicken breast, commercially available plant-based chicken breast and 3D printed meat based on chicken breast and walnut protein (CBWP) before and after freezing in different environments were compared via ice crystal quantization technology. It was found that the water-holding capacity of 3D-printed meat CBWP after superchilling treatment exhibited better than other freezing groups, indicating the possibility of using superchilling treatment technology as a preservation method for 3D-printed meat. • Novel, 3D-printed meat was designed to be frozen using quick freezing and superchilling treatment. • The ice crystal growth of 3D-printed meat was investigated under macroscopic and microscopic conditions. • The ice content quantification methods could be applied experimentally and commercially in the future.

LWTVol. 218
University of Copenhagen (DK), Beijing Forestry University (CN), Institute of Food Science & Technology (GB)
National Natural Science Foundation of China
Zero hunger
Openalex Percentile: Top 4%
Meat and Animal Product Quality
5.97
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