This study integrates transcriptomic, proteomic, and metabolomic analyses to determine hypoxia adaptation mechanisms in an anti-flowing F1 generation (FDTL) compared with non-selected (FDCL) counterparts under 24-h hypoxic stress.
First-pass extracted concept
anti-flowing F1 generation (FDTL)
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Aliases
anti-flowing strain, FDTL
Evidence Snippets
Supporting Sources
Linked Claims
The findings support superior adaptability of FDTL to high-density offshore aquaculture and validate targeted breeding strategies for stress tolerance.
Quoted textsource-backed
These findings highlight the FDTL's superior adaptability to high-density offshore aquaculture and validate the effectiveness of targeted breeding strategies.
Under 24-hour hypoxic stress at 2.0 mg/L dissolved oxygen, the anti-flowing F1 generation FDTL showed higher survival than the non-selected FDCL group.
Quoted textsource-backed
FDTL exhibited higher survival (67% vs. 42%).
Immune regulation and angiogenesis together form a multi-layered hypoxia resistance network in the anti-flowing strain.
Quoted textsource-backed
The integration of immune regulation and angiogenesis establishes a multi-layered hypoxia resistance network.
The anti-flowing strain exhibits a lower oxygen threshold for metabolic reprogramming, which enables sustained aerobic metabolic homeostasis under reduced oxygen levels.
Quoted textsource-backed
This study confirmed that the anti-flowing strain exhibits a lower oxygen threshold for metabolic reprogramming, enabling sustained aerobic metabolic homeostasis under reduced oxygen levels.