Food & Function · 2021 · 14 citations · 22 references
Life SciencesBiochemistryNutritional SciencesHepatologyMetabolismMetabolomicsBile Acid MetabolismHepatic MetabolismLipid MetabolismLiver DiseaseLiver PhysiologyHepatic Enzyme AlterationsHepatic Lipid AccumulationHepatic Lipid MetabolismHepatic Metabolic RegulationHepatic Metabolic ResponseHepatic Metabolism ChangesLiver Metabolism Regulation
The rare sugar d-allulose is a C-3 epimer of d-fructose and is known to have several health benefits such as anti-obesity and anti-diabetic effects through the alteration of enzymatic and genetic expressions in each organ. Most of the ingested d-allulose is absorbed in the small intestine and then rapidly excreted in the urine. As d-allulose was reported to be present in the liver before it is excreted, d-allulose may modulate some hepatic metabolites including glucose and lipid metabolism. Therefore, we investigated the hepatic metabolomics profile in rats after feeding d-allulose to study the overall alteration of hepatic metabolism. Wistar rats were fed an AIN-93G diet with/without 3% d-allulose for 4 weeks. Their liver samples were then collected and subjected to metabolomics analysis using CE-TOFMS and LC-TOFMS. The results showed that d-allulose induced significant increases in 42 metabolites and significant decreases in 21 metabolites. In particular, we found at the substance levels that d-allulose regulated metabolites involved in the metabolic pathways of fatty acid β-oxidation, cholesterol, and bile acid. In addition, this study newly showed the possibility that d-allulose alters glucuronic acid/xylulose pathways. In the future, we need more detailed research on the metabolomics profile of other organs related to these pathways for a comprehensive understanding of d-allulose functions.
22
Tomoyoshi Soga, Yuki Ueno, Hisako Naraoka et al. · Analytical Chemistry · 2002 · 471 citations
Noriko Hayashi, Tetsuo Iida, Takako Yamada et al. · Bioscience Biotechnology and Biochemistry · 2010 · 186 citations