LC-QToF-Based Metabolomics Identifies Aberrant Tissue Metabolites Associated with a Higher-Fat Diet and Their 'Reversion to Healthy' with Dietary Probiotic Supplementation.
Allyson DaileyGloria I Solano-AguilarJoseph F UrbanRobin D CouchPublished in: Metabolites (2023)
Over 33% of Americans are labeled as obese, leading the World Health Organization to designate obesity as a major public health problem. One consequence of obesity is the development of metabolic syndrome, a condition which has been correlated to an increased risk for developing cardiovascular disease and Type 2 diabetes. Prolonged ingestion of a higher-fat diet, one cause of obesity, results in alterations to the gut microbiome. These alterations are implicated to have a profound role in the evolution and progression of obesity-linked diseases. Probiotics are associated with positive health effects such as limiting pathogen colonization, aiding in digestion, and vitamin synthesis. Using Ossabaw pigs as a model for obesity, and in conjunction with our previous research, we performed an in-depth, nontargeted, metabolomic analysis on select organs to elucidate the effects of dietary supplementation with the probiotic Lacticaseibacillus paracasei . We focused our analysis on the effects of probiotic supplementation on a higher-fat (obesogenic) diet and a nutritionally balanced diet. Notably, our findings reveal that the brain cortex is highly sensitive to dietary influencers, and with probiotic supplementation, several aberrant metabolites associated with a higher-fat diet revert to healthy levels, thus demonstrating the potential for a probiotic intervention for obesity-linked disease.
Keyphrases
- weight loss
- metabolic syndrome
- type diabetes
- insulin resistance
- bariatric surgery
- adipose tissue
- cardiovascular disease
- high fat diet induced
- weight gain
- public health
- physical activity
- ms ms
- glycemic control
- randomized controlled trial
- cardiovascular risk factors
- bacillus subtilis
- obese patients
- genome wide
- brain injury
- skeletal muscle
- fatty acid
- mass spectrometry
- pet imaging
- single cell
- risk assessment
- human health
- dna methylation