Comprehensive Textural Characterization of Tuna Muscle to Drive Development of Plant‐Based Analogs

This study presents a comprehensive textural characterization of raw bluefin and yellowfin tuna muscle to establish reference parameters for developing plant-based analogs (PBAs) designed for raw consumption. Five instrumental texture tests were performed on samples from both groups of species (n = 64): Texture Profile Analysis, surface compression, puncture, shear, and tensile tests. The anisotropic nature of tuna muscle was evaluated by applying forces both perpendicular and parallel to connective tissue layers. Results revealed minimal textural differences between bluefin and yellowfin species, though significant anisotropy was observed across all mechanical tests depending on test methodology and attribute. Force-distance curves from puncture tests demonstrated a strong correlation (R<sup>2</sup> > 0.80) between force peaks and the physical location of myocommata, confirming the structural importance of connective tissue layers. Raw tuna muscle exhibited low cohesiveness (15%-21%) and moderate firmness with fracturability under compression, particularly when force was applied perpendicular to connective tissue layers. These findings establish quantitative reference ranges for multiple texture parameters that are essential for developing authentic plant-based tuna alternatives, potentially addressing sustainability challenges in vulnerable tuna fisheries while meeting consumer expectations for raw fish applications.

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Publication Details

Journal
Journal of Texture Studies
Published
2025-10-01
DOI
https://doi.org/10.1111/jtxs.70043
Primary Topic
Meat and Animal Product Quality
Type
article
Field-Weighted Citation Impact
0.00

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article

Comprehensive Textural Characterization of Tuna Muscle to Drive Development of Plant‐Based Analogs

Dolors Parés, Daphne Jumilla‐Lorenz
Journal of Texture Studies
Meat and Animal Product Quality
article

Comprehensive Textural Characterization of Tuna Muscle to Drive Development of Plant‐Based Analogs

Dolors Parés, Daphne Jumilla‐Lorenz
article en

Abstract

This study presents a comprehensive textural characterization of raw bluefin and yellowfin tuna muscle to establish reference parameters for developing plant-based analogs (PBAs) designed for raw consumption. Five instrumental texture tests were performed on samples from both groups of species (n = 64): Texture Profile Analysis, surface compression, puncture, shear, and tensile tests. The anisotropic nature of tuna muscle was evaluated by applying forces both perpendicular and parallel to connective tissue layers. Results revealed minimal textural differences between bluefin and yellowfin species, though significant anisotropy was observed across all mechanical tests depending on test methodology and attribute. Force-distance curves from puncture tests demonstrated a strong correlation (R<sup>2</sup> > 0.80) between force peaks and the physical location of myocommata, confirming the structural importance of connective tissue layers. Raw tuna muscle exhibited low cohesiveness (15%-21%) and moderate firmness with fracturability under compression, particularly when force was applied perpendicular to connective tissue layers. These findings establish quantitative reference ranges for multiple texture parameters that are essential for developing authentic plant-based tuna alternatives, potentially addressing sustainability challenges in vulnerable tuna fisheries while meeting consumer expectations for raw fish applications.

Journal of Texture StudiesVol. 56(5)
Universitat de Girona (ES), Tyson Foods (United States) (US)
Generalitat de Catalunya
Openalex Percentile: Top 69%
Meat and Animal Product Quality
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