Bile Acids as Integrators of Nutrient Sensing and Postprandial Metabolism

Bile acids (BAs) are increasingly recognized as signaling molecules, with functions that extend far beyond their classical role in lipid digestion. Acting through receptors such as the farnesoid X receptor and the Takeda G protein-coupled receptor, BAs integrate nutrient-derived signals to coordinate energy expenditure, glucose and lipid metabolism, and immune responses. In the postprandial state, circulating BAs are among the most dynamically modulated metabolites. BA profiles are shaped by diet composition, sex, age, and metabolic status, while the gut microbiota diversifies BA pool composition by generating secondary BA species with distinct receptor affinities and influencing host physiology. Dysregulation of BA kinetics or pool composition is closely linked to metabolic diseases including obesity, type 2 diabetes, and metabolic dysfunction-associated steatohepatitis. This review highlights how changes in BA levels in the postprandial period coordinate enterohepatic flux, hormonal feedback, and microbiota interactions to regulate postprandial metabolic homeostasis.

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Journal
Annual Review of Nutrition
Published
2026-08-21
DOI
https://doi.org/10.1146/annurev-nutr-092724-025135
Primary Topic
Drug Transport and Resistance Mechanisms
Type
article
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Bile Acids as Integrators of Nutrient Sensing and Postprandial Metabolism

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Bile Acids as Integrators of Nutrient Sensing and Postprandial Metabolism

Jarlei Fiamoncini, Vinícius Leonardo Sousa Diniz, Larissa Rodrigues, Guilherme Noronha Hernandez, Carlos M. Donado-Pestana, Marina Robles de Paola
article en

Abstract

Bile acids (BAs) are increasingly recognized as signaling molecules, with functions that extend far beyond their classical role in lipid digestion. Acting through receptors such as the farnesoid X receptor and the Takeda G protein-coupled receptor, BAs integrate nutrient-derived signals to coordinate energy expenditure, glucose and lipid metabolism, and immune responses. In the postprandial state, circulating BAs are among the most dynamically modulated metabolites. BA profiles are shaped by diet composition, sex, age, and metabolic status, while the gut microbiota diversifies BA pool composition by generating secondary BA species with distinct receptor affinities and influencing host physiology. Dysregulation of BA kinetics or pool composition is closely linked to metabolic diseases including obesity, type 2 diabetes, and metabolic dysfunction-associated steatohepatitis. This review highlights how changes in BA levels in the postprandial period coordinate enterohepatic flux, hormonal feedback, and microbiota interactions to regulate postprandial metabolic homeostasis.

Annual Review of NutritionVol. 46(1)
Brf (Brazil) (BR)
Openalex Percentile: Top 13%
Drug Transport and Resistance Mechanisms
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