Table 2.
Evidences addressing alleviating impact of TXNIP modulation in endothelial dysfunction
| Endothelial complication | Model | TXNIP inhibition | Main findings | Reference | ||
|---|---|---|---|---|---|---|
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|
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| Subject | Stimuli | Pharmacological | Genetic | |||
| Diabetic endothelial dysfunction | Human aortic endothelial cells | High glucose | Metformin | Reduced nuclear entry of ChREBP and FOXO1 as well as their recruitment on the TXNIP promoter, partially through AMPK | [147] | |
| In vitro HUVECs |
High glucose | Mangiferin | Attenuate IRE1α phosphorylation Reduce ROS/TXNIP/NLRP3 inflammasome activation |
[148] | ||
| In vitro HUVECs In vivo |
High glucose HGD rats |
Rutin | Reduced Nox4 and ROS Inhibited TXNIP/NLRP3/Caspase-1 Restored phenylephrine-mediated contractions and acetylcholine-induced relaxations in aortic tissue |
[149] | ||
| In vitro HUVECs |
High glucose | Teneligliptin | Reduced TXNIP And ER stress, apoptosis, and cell cycle inhibitors As well as EC proliferation |
[150] | ||
| Diabetic retinopathy | In vitro Rat retina ECs Ex vivo Rat retia |
High glucose STZ rats |
Azaserine (inhibitor of HBP pathway) | siRNAs | Reduced sclerotic fibronectin and COX-II (in vitro) Abolishes diabetes-induced retinal gliosis and ganglion injury (ex vivo) |
[126] |
| In vivo | STZ rats | Curcumin | Reduced leukocyte-endothelium interaction, and inhibiting ICAM-1 and NOX2 expression. | [151] | ||
| In vitro human retinal microvascular ECs |
High glucose | Minocycline | siRNA | Attenuated ROS/TXNIP/NLRP3 inflammasome activation Decrease cell permeability and apoptosis |
[100] | |
| In vitro human retinal microvascular ECs |
Moderately high glucose | siRNA | Reduced ROS and uncontrolled angiogenesis By blocking VEGFR2 and the downstream Akt/mTOR |
[152] | ||
| Endothelial ER stress | In vitro Rat aortic ECs |
Palmitate | Salicylate AICAR |
siRNA | Activate AMPK Suppressed ROS-associated ER stress Reduced TXNIP/NLRP3 inflammasome activation |
[153] |
| In vitro HUVECs |
Palmitate | Astragaloside IV Cycloastragenol |
Ameliorated endothelial dysfunction by inhibiting inflammation and reducing cell apoptosis, through AMPK regulation | [154] | ||
| In vitro Rat aortic EC In vivo |
palmitate HFD rats |
Ilexgenin A | Enhance AMPK activity Suppressed ROS-associated TXNIP/NLRP3 induction, through AMPK activation Reduced EC inflammation and apoptosis |
[155] | ||
| HUVECs | Palmitate | Quercetin Luteolin EGCG |
Suppressed ROS-associated TXNIP/NLRP3 induction, partly through AMPK activation Reduced EC inflammation and apoptosis |
[73] | ||
| In vitro HUVECs |
Thapsigargin | Mangiferin | Prevents TG-induced loss of NO production inhibited TG-induced TXNIP/IL-1β secretion |
[148] | ||
| In vivo | HFD rats | Mangiferin | Prevented ER stress-associated TXNIP/NLRP3 inflammasome through AMPK activity Improved endothelium-dependent vasodilation in response to insulin/insulin resistance |
[156] | ||
| Endothelial aging | In vivo | Natural/diet-induced aged mice | Resveratrol | KO mice | Prevent rise in NADPH oxidase by diet-induced aging Decrease collagen accumulation Decrease nuclear TXNIP |
[157] |