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. 2024 Sep 18;16(18):3155. doi: 10.3390/nu16183155

Table 2.

Coffee-associated changes of metabolic components and absorption via microbiota change.

Design Treatment Significance Microbiota Change Reference
In vivo rats Coffee Reduction in liver triglycerides Clostridium Cluster XI ↓ Cowan et al. 2014 [85]
In vivo rats Coffee Reduction in obesity, metabolic syndrome, and inflammation; increase in gut barrier function Firmicutes (F)-to-Bacteroidetes (B) ratio ↓ Cowan et al. 2014 [85]
In vivo rats Coffee Potential for gut dysbiosis, antibiotic resistance, opportunistic infection; may be involved with insulin resistance Enterobacteriaceae ↑ Cowan et al. 2014 [85]
In vivo mice Caffeine Protection of gut lining, barrier function, and production of SCFAs Dubosiella, Bifidobacterium and Desulfovibrio Chen et al. 2023 [86]
In vivo mice Caffeine Reduction in nutrient breakdown and immune modulation, but potentially, a restoration from dysbiosis Bacteroides, Lactobacillus and Lactococcus Chen et al. 2023 [86]
In vivo mice Coffee Improvement in endotoxemia and systemic inflammation Prevotella Nishitsuji, Watanabe, & Xiao 2018 [28]
In vivo mice Coffee Increase in gastrointestinal polypeptide; stimulation of insulin secretion and protection against metabolic syndrome Coprococcus Nishitsuji, Watanabe, & Xiao 2018 [28]
In vivo humans
In vivo mice
Coffee Support in acetate production, but a marker of high-fat diet Blautia Martinez et al. 2013 [87];
Nishitsuji, Watanabe, & Xiao 2018 [28]

Notes: ↑: Increased; ↓: Decreased.