Diabetes mellitus is characterized by chronic hyperglycemia and postprandial glucose excursions, highlighting the need for gut-targeted interventions. Here, we identify three hemp-derived phenylpropionamides—Cannabisin A (CA), Cannabisin B (CB), and Cannabisin F (CF)—as novel modulators of intestinal glucose handling. Computational modeling and enzyme kinetics established CA and CF as potent non-competitive α-glucosidase inhibitors, whereas CB displayed weaker uncompetitive inhibition but a unique incretin-enhancing profile. In differentiated Caco-2 monolayers, CA and CF markedly reduced sucrose-derived glucose flux, comparable to acarbose, while CB exerted moderate suppression but selectively augmented active GLP-1 secretion. In vivo oral sucrose tolerance tests (single-dose and 5-day repeated-dosing under sucrose-loading dietary conditions) confirmed that CA and CF lowered postprandial glycemic excursions with acarbose-like efficacy, whereas CB induced delayed yet sustained incretin and insulin responses. Brush-border membrane assays and transporter analyses supported enzyme- and GLUT2/SGLT1-level modulation, with CB additionally downregulating GLUT5. Multivariate clustering (PCA, PLS-DA, MANOVA) separated CA/CF with classical α-GIs from CB as a distinct incretin-dominant subgroup. Integrated ADME and microbial metabolism predictions indicated poor systemic absorption and gut-restricted action. Importantly, fecal SCFA profiling suggested lower gastrointestinal side-effect potential for CB compared with acarbose and CA/CF. Collectively, these findings define CA and CF as potent intestinal α-glucosidase inhibitors and CB as a mechanistically distinct, incretin-enhancing modulator. Hemp phenylpropionamides thus represent promising next-generation agents for safe, intestine-targeted management of postprandial hyperglycemia. • Hemp seed hull–derived cannabisins A, B, and F suppress postprandial hyperglycemia. • Cannabisins inhibit intestinal α-glucosidase and modulate incretin responses. • Integrated computational and experimental analyses support gut-focused mechanisms. • Repeated dosing maintains efficacy without inducing diarrhea or intolerance. • Cannabisins represent sustainable, early-stage antidiabetic lead compounds.
Lee et al. (Tue,) studied this question.
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