Fish Hydrolysate Supplementation Prevents Stress-Induced Dysregulation of Hippocampal Proteins Relative to Mitochondrial Metabolism and the Neuronal Network in Mice.
Julie Le FaouderBastien ArnaudRégis LavigneCéline LucasEmmanuelle ComElodie BouvretAnne-Laure DinelCharles PineauPublished in: Foods (Basel, Switzerland) (2022)
Over the past several decades, stress has dramatically increased in occidental societies. The use of natural resources, such as fish hydrolysates, may be an attractive strategy to improve stress management. Our previous study demonstrated the anxiolytic effects of fish hydrolysate supplementation in mice exposed to acute mild stress by limiting stress-induced corticosterone release and modulating the expression of a number of stress-responsive genes. Here, we explore hippocampal protein modulation induced by fish hydrolysate supplementation in mice submitted to acute mild stress, with the aim of better elucidating the underlying mechanisms. Hippocampi from the same cohort of Balb/c mice supplemented with fish hydrolysate (300 mg·kg -1 body weight) or vehicle daily for seven days before being submitted or not to an acute mild stress protocol (four groups, n = 8/group) were subjected to label-free quantitative proteomics analysis combined with gene ontology data mining. Our results show that fish hydrolysate supplementation prevented the observed stress-induced dysregulation of proteins relative to mitochondrial pathways and the neuronal network. These findings suggest that fish hydrolysate represents an innovative strategy to prevent the adverse effects of stress and participate in stress management.
Keyphrases
- stress induced
- liver failure
- body weight
- label free
- oxidative stress
- type diabetes
- randomized controlled trial
- emergency department
- genome wide
- respiratory failure
- poor prognosis
- metabolic syndrome
- signaling pathway
- dna methylation
- electronic health record
- aortic dissection
- transcription factor
- cerebral ischemia
- copy number
- amino acid
- network analysis