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Multitissue Single-Cell Analysis Reveals Differential Tissue, Cellular, and Molecular Sensitivity between Fructose and High fat high sucrose Diets

GSE208750 Mus musculus Expression profiling by high throughput sequencing 40 samples 2025/04/06 GPL21103
Summary
Metabolic syndrome (MetS) is a complex disorder with multidimensional etiology that encompasses diverse symptoms such as hyperlipidemia, abdominal obesity, and insulin resistance. Western diets such as the high fat high sucrose diet (HFHS) and those high in fructose ave been associated with increased prevalence of MetS. Despite the fact that various metabolic tissues have been implicated in MetS pathogenesis, the role of individual cell types embedded in these tissues has yet to be elucidated. To address this, we performed single cell RNA sequencing to examine thousands of individual cells from the hypothalamus, liver, adipose, and small intestine from both HFHS- and fructose-induced MetS mouse models. We found differential sensitivity of responsive cell types, genes, and pathways between HFHS and fructose diets, with hypothalamic neurons particularly sensitive to the high fructose diet and adipose progenitor cells particularly sensitive to HFHS diet. Network analysis identified both known (Avp, Apoe, C3) and novel ligands (Gal and Fga) that mediate ligand-receptor crosstalk between tissues in MetS. The identification of major cell types, molecular pathways, and regulators of MetS induced by different risk diets facilitates precision treatment of MetS subtypes.
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