Category . | Active substance . | Results . |
---|---|---|
In vitro (aortic segments of C57Bl/6 mice)15 | Alogliptin | Alogliptin incubation-mediated dose-dependent relaxation of the aortic segments, whereas GLP1 pre-incubation had no effect. Endothelial denudation and addition of LNMMA reduced the effect of Alogliptin incubation |
In vitro (aortic segments of ApoE-ko mice)9 | Des-Fluoro-Sitagliptin (DFS, 200 mg/kg/day) | Aortic segments of DFS-treated mice on high-fat diet showed an improved vascular function and significant higher eNOs phosphorylation after stimulation with acetylcholine |
In vitro (Wistar rats)48 | Linagliptin (83 mg/kg) | The LPS-induced vascular dysfunction of rat aortic segments was significantly improved by Linagliptin treatment (e.g. reduced oxidative burst and suppressed attachment of human neutrophils on activated endothelial cells) |
Clinical trial (10 volunteers; 10 days)28 | Alogliptin (25 mg/day) | Alogliptin significantly improved post-prandial endothelial function (increased FMD) and post-prandial lipaemia in healthy volunteers |
Clinical trial (31 D.m.2 patients with insufficient blood glucose control, EDGE study; 12 weeks)49 | Sitagliptin (50 mg/day) | Sitagliptin treatment improved FMD, several blood parameters (e.g. cholesterol, HDL, lipids, GLP1, GIP, HbA1, and inflammatory markers), and the number of circulating CD34+ cells |
Category . | Active substance . | Results . |
---|---|---|
In vitro (aortic segments of C57Bl/6 mice)15 | Alogliptin | Alogliptin incubation-mediated dose-dependent relaxation of the aortic segments, whereas GLP1 pre-incubation had no effect. Endothelial denudation and addition of LNMMA reduced the effect of Alogliptin incubation |
In vitro (aortic segments of ApoE-ko mice)9 | Des-Fluoro-Sitagliptin (DFS, 200 mg/kg/day) | Aortic segments of DFS-treated mice on high-fat diet showed an improved vascular function and significant higher eNOs phosphorylation after stimulation with acetylcholine |
In vitro (Wistar rats)48 | Linagliptin (83 mg/kg) | The LPS-induced vascular dysfunction of rat aortic segments was significantly improved by Linagliptin treatment (e.g. reduced oxidative burst and suppressed attachment of human neutrophils on activated endothelial cells) |
Clinical trial (10 volunteers; 10 days)28 | Alogliptin (25 mg/day) | Alogliptin significantly improved post-prandial endothelial function (increased FMD) and post-prandial lipaemia in healthy volunteers |
Clinical trial (31 D.m.2 patients with insufficient blood glucose control, EDGE study; 12 weeks)49 | Sitagliptin (50 mg/day) | Sitagliptin treatment improved FMD, several blood parameters (e.g. cholesterol, HDL, lipids, GLP1, GIP, HbA1, and inflammatory markers), and the number of circulating CD34+ cells |
LNMMA, N-Monomethyl-L-arginine.
Category . | Active substance . | Results . |
---|---|---|
In vitro (aortic segments of C57Bl/6 mice)15 | Alogliptin | Alogliptin incubation-mediated dose-dependent relaxation of the aortic segments, whereas GLP1 pre-incubation had no effect. Endothelial denudation and addition of LNMMA reduced the effect of Alogliptin incubation |
In vitro (aortic segments of ApoE-ko mice)9 | Des-Fluoro-Sitagliptin (DFS, 200 mg/kg/day) | Aortic segments of DFS-treated mice on high-fat diet showed an improved vascular function and significant higher eNOs phosphorylation after stimulation with acetylcholine |
In vitro (Wistar rats)48 | Linagliptin (83 mg/kg) | The LPS-induced vascular dysfunction of rat aortic segments was significantly improved by Linagliptin treatment (e.g. reduced oxidative burst and suppressed attachment of human neutrophils on activated endothelial cells) |
Clinical trial (10 volunteers; 10 days)28 | Alogliptin (25 mg/day) | Alogliptin significantly improved post-prandial endothelial function (increased FMD) and post-prandial lipaemia in healthy volunteers |
Clinical trial (31 D.m.2 patients with insufficient blood glucose control, EDGE study; 12 weeks)49 | Sitagliptin (50 mg/day) | Sitagliptin treatment improved FMD, several blood parameters (e.g. cholesterol, HDL, lipids, GLP1, GIP, HbA1, and inflammatory markers), and the number of circulating CD34+ cells |
Category . | Active substance . | Results . |
---|---|---|
In vitro (aortic segments of C57Bl/6 mice)15 | Alogliptin | Alogliptin incubation-mediated dose-dependent relaxation of the aortic segments, whereas GLP1 pre-incubation had no effect. Endothelial denudation and addition of LNMMA reduced the effect of Alogliptin incubation |
In vitro (aortic segments of ApoE-ko mice)9 | Des-Fluoro-Sitagliptin (DFS, 200 mg/kg/day) | Aortic segments of DFS-treated mice on high-fat diet showed an improved vascular function and significant higher eNOs phosphorylation after stimulation with acetylcholine |
In vitro (Wistar rats)48 | Linagliptin (83 mg/kg) | The LPS-induced vascular dysfunction of rat aortic segments was significantly improved by Linagliptin treatment (e.g. reduced oxidative burst and suppressed attachment of human neutrophils on activated endothelial cells) |
Clinical trial (10 volunteers; 10 days)28 | Alogliptin (25 mg/day) | Alogliptin significantly improved post-prandial endothelial function (increased FMD) and post-prandial lipaemia in healthy volunteers |
Clinical trial (31 D.m.2 patients with insufficient blood glucose control, EDGE study; 12 weeks)49 | Sitagliptin (50 mg/day) | Sitagliptin treatment improved FMD, several blood parameters (e.g. cholesterol, HDL, lipids, GLP1, GIP, HbA1, and inflammatory markers), and the number of circulating CD34+ cells |
LNMMA, N-Monomethyl-L-arginine.
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