Effects of Ammonia-Nitrogen-Reducing Biofilm on Stress Responses and Muscle Quality in Crucian Carp During Transportation

). In a simulated bag transport system, the application of the biofilm significantly decreased ammonia-nitrogen concentrations through enhanced nitrification, stabilized pH and dissolved oxygen dynamics, and suppressed nitrite accumulation. Correspondingly, biofilm-treated fish exhibited significantly reduced systemic stress responses, as evidenced by reduced serum cortisol, glucose, and lactate dehydrogenase concentrations, along with diminished histopathological changes in gill and liver tissues and preserved muscle fiber integrity. Regarding post-transport muscle quality, biofilm treatment delayed glycogen catabolism and lactate accumulation, maintained elevated muscle pH and water-holding capacity, reduced shear force decline, decelerated ATP hydrolysis and freshness degradation (K-value), and simultaneously suppressed lipid peroxidation and myonuclear apoptosis. These findings demonstrate that ammonia-nitrogen-reducing biofilms represent a viable biotechnological approach for maintaining water quality, mitigating stress-induced physiological disturbances, and preserving flesh quality during live fish transportation. This approach has significant potential for improving post-harvest outcomes in aquaculture logistics.

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Publication Details

Journal
Foods
Published
2026-04-01
DOI
https://doi.org/10.3390/foods15071189
Primary Topic
Aquaculture Nutrition and Growth
Type
article
Field-Weighted Citation Impact
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article

Effects of Ammonia-Nitrogen-Reducing Biofilm on Stress Responses and Muscle Quality in Crucian Carp During Transportation

Ling Peng, Ramy M. Khoder, Xi Zhang, Han Yang et al.
Foods
Aquaculture Nutrition and Growth
article

Effects of Ammonia-Nitrogen-Reducing Biofilm on Stress Responses and Muscle Quality in Crucian Carp During Transportation

Ling Peng, Ramy M. Khoder, Xi Zhang, Han Yang, Liangzi Zhang, Ru Liu, Tao Yin, Juan You
article en

Abstract

). In a simulated bag transport system, the application of the biofilm significantly decreased ammonia-nitrogen concentrations through enhanced nitrification, stabilized pH and dissolved oxygen dynamics, and suppressed nitrite accumulation. Correspondingly, biofilm-treated fish exhibited significantly reduced systemic stress responses, as evidenced by reduced serum cortisol, glucose, and lactate dehydrogenase concentrations, along with diminished histopathological changes in gill and liver tissues and preserved muscle fiber integrity. Regarding post-transport muscle quality, biofilm treatment delayed glycogen catabolism and lactate accumulation, maintained elevated muscle pH and water-holding capacity, reduced shear force decline, decelerated ATP hydrolysis and freshness degradation (K-value), and simultaneously suppressed lipid peroxidation and myonuclear apoptosis. These findings demonstrate that ammonia-nitrogen-reducing biofilms represent a viable biotechnological approach for maintaining water quality, mitigating stress-induced physiological disturbances, and preserving flesh quality during live fish transportation. This approach has significant potential for improving post-harvest outcomes in aquaculture logistics.

FoodsVol. 15(7)
Huazhong Agricultural University (CN), Benha University (EG), Wuhan Business University (CN)
Clean water and sanitation
Openalex Percentile: Top 35%
Aquaculture Nutrition and Growth
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