Synergistic frozen storage-thermal processing drives tilapia muscle quality deterioration via protein structural transitions and regulation

This study elucidates the synergistic deterioration of tilapia muscle quality during frozen storage (0-120 days) and thermal processing (3-9 min), identifying critical thresholds for quality preservation. Prolonged freezing (>60 days) and extended heating (>5 min) synergistically amplified texture loss, umami depletion, and protein structural damage (α-helix disruption, β-sheet gain), exceeding additive effects. Short heating (≤5 min) mitigated freeze-induced texture degradation and preserved umami dominance, while extended heating triggered irreversible protein aggregation and bitterness. Mechanistically, ice-crystal-induced myofibrillar weakening during freezing was amplified by thermal processing, accelerating hydrophobic exposure and matrix collapse. These findings establish ≤60-day storage and ≤5-min heating as pivotal thresholds to optimize frozen aquatic product processing, offering actionable guidelines for industrial quality control.

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Publication Details

Journal
Food Chemistry X
Published
2026-02-01
DOI
https://doi.org/10.1016/j.fochx.2026.103617
Primary Topic
Meat and Animal Product Quality
Type
article
Field-Weighted Citation Impact
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article

Synergistic frozen storage-thermal processing drives tilapia muscle quality deterioration via protein structural transitions and regulation

Gaigai Niu, Jialu Wu, Xingyang Liao, Gang You
Food Chemistry X
Meat and Animal Product Quality
article

Synergistic frozen storage-thermal processing drives tilapia muscle quality deterioration via protein structural transitions and regulation

Gaigai Niu, Jialu Wu, Xingyang Liao, Gang You
article en

Abstract

This study elucidates the synergistic deterioration of tilapia muscle quality during frozen storage (0-120 days) and thermal processing (3-9 min), identifying critical thresholds for quality preservation. Prolonged freezing (>60 days) and extended heating (>5 min) synergistically amplified texture loss, umami depletion, and protein structural damage (α-helix disruption, β-sheet gain), exceeding additive effects. Short heating (≤5 min) mitigated freeze-induced texture degradation and preserved umami dominance, while extended heating triggered irreversible protein aggregation and bitterness. Mechanistically, ice-crystal-induced myofibrillar weakening during freezing was amplified by thermal processing, accelerating hydrophobic exposure and matrix collapse. These findings establish ≤60-day storage and ≤5-min heating as pivotal thresholds to optimize frozen aquatic product processing, offering actionable guidelines for industrial quality control.

Food Chemistry XVol. 34
Beibu Gulf University (CN)
Openalex Percentile: Top 60%
Meat and Animal Product Quality
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