Prostaglandin I2 (BioDeep_00000004022)
Secondary id: BioDeep_00000409898
human metabolite Endogenous
代谢物信息卡片
化学式: C20H32O5 (352.225)
中文名称:
谱图信息:
最多检出来源 Homo sapiens(plant) 14.6%
分子结构信息
SMILES: CCCCCC(C=CC1C(CC2C1CC(=CCCCC(=O)O)O2)O)O
InChI: InChI=1S/C20H32O5/c1-2-3-4-7-14(21)10-11-16-17-12-15(8-5-6-9-20(23)24)25-19(17)13-18(16)22/h8,10-11,14,16-19,21-22H,2-7,9,12-13H2,1H3,(H,23,24)/b11-10+,15-8-/t14-,16+,17+,18+,19-/m0/s1
描述信息
Prostaglandin I2 or prostacyclin (or PGI2) is a member of the family of lipid molecules known as eicosanoids. It is produced in endothelial cells from prostaglandin H2 (PGH2) by the action of the enzyme prostacyclin synthase. It is a powerful vasodilator and inhibits platelet aggregation. Prostaglandin I2 is the main prostaglandin synthesized by the blood vessel wall. This suggests that it may play an important role in limiting platelet-mediated thrombosis. In particular, prostacyclin (PGI2) chiefly prevents formation of the platelet plug involved in primary hemostasis (a part of blood clot formation). The sodium salt (known as epoprostenol) has been used to treat primary pulmonary hypertension. Prostacyclin (PGI2) is released by healthy endothelial cells and performs its function through a paracrine signaling cascade that involves G protein-coupled receptors on nearby platelets and endothelial cells. The platelet Gs protein-coupled receptor (prostacyclin receptor) is activated when it binds to PGI2. This activation, in turn, signals adenylyl cyclase to produce cAMP. cAMP goes on to inhibit any undue platelet activation (in order to promote circulation) and also counteracts any increase in cytosolic calcium levels which would result from thromboxane A2 (TXA2) binding (leading to platelet activation and subsequent coagulation). PGI2 also binds to endothelial prostacyclin receptors and in the same manner raise cAMP levels in the cytosol. This cAMP then goes on to activate protein kinase A (PKA). PKA then continues the cascade by inhibiting myosin light-chain kinase which leads to smooth muscle relaxation and vasodilation. Notably, PGI2 and TXA2 work as antagonists. PGI2 is stable in basic buffers (pH=8), but it is rapidly hydrolyzed to 6-keto PGF1alpha in neutral or acidic solutions. The half-life is short both in vivo and in vitro, ranging from 30 seconds to a few minutes. PGI2 is administered by continuous infusion in humans for the treatment of idiopathic pulmonary hypertension.Prostaglandins are eicosanoids. The eicosanoids consist of the prostaglandins (PGs), thromboxanes (TXs), leukotrienes (LTs), and lipoxins (LXs). The PGs and TXs are collectively identified as prostanoids. Prostaglandins were originally shown to be synthesized in the prostate gland, thromboxanes from platelets (thrombocytes), and leukotrienes from leukocytes, hence the derivation of their names. All mammalian cells except erythrocytes synthesize eicosanoids. These molecules are extremely potent, able to cause profound physiological effects at very dilute concentrations. All eicosanoids function locally at the site of synthesis, through receptor-mediated G-protein linked signalling pathways.
Prostaglandin I2 or prostacyclin (or PGI2) is a member of the family of lipid molecules known as eicosanoids. It is produced in endothelial cells from prostaglandin H2 (PGH2) by the action of the enzyme prostacyclin synthase. It is a powerful vasodilator and inhibits platelet aggregation. Prostaglandin I2 is the main prostaglandin synthesized by the blood vessel wall. This suggests that it may play an important role in limiting platelet-mediated thrombosis. In particular, prostacyclin (PGI2) chiefly prevents formation of the platelet plug involved in primary hemostasis (a part of blood clot formation). The sodium salt (known as epoprostenol) has been used to treat primary pulmonary hypertension. Prostacyclin (PGI2) is released by healthy endothelial cells and performs its function through a paracrine signaling cascade that involves G protein-coupled receptors on nearby platelets and endothelial cells. The platelet Gs protein-coupled receptor (prostacyclin receptor) is activated when it binds to PGI2. This activation, in turn, signals adenylyl cyclase to produce cAMP. cAMP goes on to inhibit any undue platelet activation (in order to promote circulation) and also counteracts any increase in cytosolic calcium levels which would result from thromboxane A2 (TXA2) binding (leading to platelet activation and subsequent coagulation). PGI2 also binds to endothelial prostacyclin receptors and in the same manner raise cAMP levels in the cytosol. This cAMP then goes on to activate protein kinase A (PKA). PKA then continues the cascade by inhibiting myosin light-chain kinase which leads to smooth muscle relaxation and vasodilation. Notably, PGI2 and TXA2 work as antagonists. PGI2 is stable in basic buffers (pH=8), but it is rapidly hydrolyzed to 6-keto PGF1alpha in neutral or acidic solutions. The half-life is short both in vivo and in vitro, ranging from 30 seconds to a few minutes. PGI2 is administered by continuous infusion in humans for the treatment of idiopathic pulmonary hypertension.
B - Blood and blood forming organs > B01 - Antithrombotic agents > B01A - Antithrombotic agents > B01AC - Platelet aggregation inhibitors excl. heparin
C78274 - Agent Affecting Cardiovascular System > C270 - Antihypertensive Agent
COVID info from clinicaltrial, clinicaltrials, clinical trial, clinical trials
D006401 - Hematologic Agents > D010975 - Platelet Aggregation Inhibitors
D002317 - Cardiovascular Agents > D000959 - Antihypertensive Agents
C78568 - Prostaglandin Analogue
Corona-virus
Coronavirus
SARS-CoV-2
COVID-19
SARS-CoV
COVID19
SARS2
SARS
同义名列表
36 个代谢物同义名
5-[(3aR,4R,5R,6aS)-5-hydroxy-4-[(1E,3S)-3-hydroxyoct-1-en-1-yl]-hexahydro-2H-cyclopenta[b]furan-2-ylidene]pentanoic acid; 5-[5-hydroxy-4-(3-hydroxyoct-1-enyl)-3,3a,4,5,6,6a-hexahydrocyclopenta[b]furan-2-ylidene]pentanoic acid; (5Z,9alpha,11alpha,13E,15S)-6,9-Epoxy-11,15-dihydroxyprosta-5,13-dien-1-Oic acid; (5Z,9alpha,11alpha,13E,15S)-6,9-Epoxy-11,15-dihydroxyprosta-5,13-dien-1-Oate; (5Z,13E)-(15S)-6,9-alpha-Epoxy-11-alpha,15-dihydroxyprosta-5,13-dienoic acid; (5Z,13E)-(15S)-6,9alpha-Epoxy-11alpha,15-dihydroxyprosta-5,13-dienoic acid; (5Z,9a,11a,13E,15S)-6,9-Epoxy-11,15-dihydroxyprosta-5,13-dien-1-Oic acid; (5Z,9Α,11α,13E,15S)-6,9-epoxy-11,15-dihydroxyprosta-5,13-dien-1-Oic acid; (5Z,13E)-(15S)-6,9-alpha-Epoxy-11-alpha,15-dihydroxyprosta-5,13-dienoate; (5Z,13E)-(15S)-6,9alpha-Epoxy-11alpha,15-dihydroxyprosta-5,13-dienoate; (5Z,9Α,11α,13E,15S)-6,9-epoxy-11,15-dihydroxyprosta-5,13-dien-1-Oate; (5Z,9a,11a,13E,15S)-6,9-Epoxy-11,15-dihydroxyprosta-5,13-dien-1-Oate; (5Z,13E)-(15S)-6,9Α-epoxy-11α,15-dihydroxyprosta-5,13-dienoic acid; (5Z,13E)-(15S)-6,9a-Epoxy-11a,15-dihydroxyprosta-5,13-dienoic acid; (5Z,13E,15S)-6,9a-Epoxy-11a,15-dihydroxyprosta-5,13-dienoic acid; (5Z,13E)-(15S)-6,9-Epoxy-11,15-dihydroxyprosta-5,13-dienoic acid; (5Z,13E)-(15S)-6,9a-Epoxy-11a,15-dihydroxyprosta-5,13-dienoate; (5Z,13E)-(15S)-6,9Α-epoxy-11α,15-dihydroxyprosta-5,13-dienoate; (5Z,13E)-(15S)-6,9-Epoxy-11,15-dihydroxyprosta-5,13-dienoate; Epoprostenol sodium salt, (5Z,9alpha,11alpha,13E,15S)-isomer; (5Z,13E,15S)-6,9a-Epoxy-11a,15-dihydroxyprosta-5,13-dienoate; 6,9S-epoxy-11R,15S-dihydoxy-5Z,13E-prostadienoic acid; Epoprostenol sodium; Prostaglandin I(2); Prostaglandin I2; Prostaglandin X; Prostacycline; Prostacyclin; Epoprostenol; Epoprostanol; Vasocyclin; Veletri; Flolan; PGI2; PGX; Prostaglandin I2
数据库引用编号
25 个数据库交叉引用编号
- ChEBI: CHEBI:15552
- KEGG: C01312
- KEGGdrug: D00106
- PubChem: 5280427
- PubChem: 5282411
- PubChem: 159
- HMDB: HMDB0001335
- Metlin: METLIN36155
- Metlin: METLIN778
- DrugBank: DB01240
- ChEMBL: CHEMBL1139
- Wikipedia: Prostacyclin
- MeSH: Epoprostenol
- foodb: FDB022560
- chemspider: 4445566
- CAS: 63859-31-4
- CAS: 35121-78-9
- PMhub: MS000014722
- PubChem: 4527
- LipidMAPS: LMFA03010087
- 3DMET: B01438
- NIKKAJI: J17.550A
- RefMet: PGI2
- KNApSAcK: 15552
- LOTUS: LTS0176068
分类词条
相关代谢途径
Reactome(19)
- Metabolism
- Biological oxidations
- Phase I - Functionalization of compounds
- Metabolism of vitamins and cofactors
- Metabolism of lipids
- Cytochrome P450 - arranged by substrate type
- Signaling Pathways
- Fatty acid metabolism
- Metabolism of water-soluble vitamins and cofactors
- Arachidonic acid metabolism
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX)
- Signaling by GPCR
- GPCR ligand binding
- Class A/1 (Rhodopsin-like receptors)
- Hemostasis
- Nicotinate metabolism
- Platelet homeostasis
- Nicotinamide salvaging
- Eicosanoids
BioCyc(0)
PlantCyc(0)
代谢反应
241 个相关的代谢反应过程信息。
Reactome(189)
- Metabolism:
3alpha,7alpha,12alpha-trihydroxy-5beta-cholest-24-one-CoA + CoA-SH ⟶ choloyl-CoA + propionyl CoA
- Metabolism of lipids:
3alpha,7alpha,12alpha-trihydroxy-5beta-cholest-24-one-CoA + CoA-SH ⟶ choloyl-CoA + propionyl CoA
- Fatty acid metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
H+ + Oxygen + TPNH + Trioxilin A3 ⟶ 20OH-TrXA3 + H2O + TPN
- Metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Metabolism of lipids:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Fatty acid metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
6x(PCCA:PCCB) + ATP + Btn ⟶ 6x(Btn-PCCA:PCCB) + AMP + PPi
- Metabolism of water-soluble vitamins and cofactors:
6x(PCCA:PCCB) + ATP + Btn ⟶ 6x(Btn-PCCA:PCCB) + AMP + PPi
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
prostaglandin H2 ⟶ Prostacyclin
- Metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Metabolism of lipids:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Fatty acid metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
prostaglandin H2 ⟶ Prostacyclin
- Metabolism:
3alpha,7alpha,12alpha-trihydroxy-5beta-cholest-24-one-CoA + CoA-SH ⟶ choloyl-CoA + propionyl CoA
- Metabolism of lipids:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Fatty acid metabolism:
ATP + PROP-CoA + carbon dioxide ⟶ ADP + MEMA-CoA + Pi
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
H+ + Oxygen + TPNH + leukotriene B4 ⟶ 20OH-LTB4 + H2O + TPN
- Metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Metabolism of lipids:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Fatty acid metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
H+ + Oxygen + TPNH + leukotriene B4 ⟶ 20OH-LTB4 + H2O + TPN
- Metabolism:
2MACA-CoA + CoA ⟶ Ac-CoA + PROP-CoA
- Metabolism of lipids:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Fatty acid metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
H+ + Oxygen + TPNH + leukotriene B4 ⟶ 20OH-LTB4 + H2O + TPN
- Metabolism:
ATP + PROP-CoA + carbon dioxide ⟶ ADP + MEMA-CoA + Pi
- Metabolism of lipids:
ATP + PROP-CoA + carbon dioxide ⟶ ADP + MEMA-CoA + Pi
- Fatty acid metabolism:
ATP + PROP-CoA + carbon dioxide ⟶ ADP + MEMA-CoA + Pi
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
H+ + Oxygen + TPNH + leukotriene B4 ⟶ 20OH-LTB4 + H2O + TPN
- Metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Metabolism of lipids:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Fatty acid metabolism:
1-3-oxo-THA-CoA + CoA-SH ⟶ DHA-CoA + propionyl CoA
- Arachidonic acid metabolism:
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Synthesis of Prostaglandins (PG) and Thromboxanes (TX):
H+ + e- + prostaglandin G2 ⟶ H2O + prostaglandin H2
- Metabolism of vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Metabolism of water-soluble vitamins and cofactors:
H2O + Oxygen + PXL ⟶ H2O2 + PDXate
- Nicotinate metabolism:
NAM + SAM ⟶ MNA + SAH
- Nicotinamide salvaging:
NAM + SAM ⟶ MNA + SAH
- Biological oxidations:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Phase I - Functionalization of compounds:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Cytochrome P450 - arranged by substrate type:
11DCORT + H+ + Oxygen + TPNH ⟶ CORT + H2O + TPN
- Eicosanoids:
prostaglandin H2 ⟶ Prostacyclin
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
PTGIR + Prostacyclin ⟶ PTGIR:PGI2
- Signaling Pathways:
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- Signaling by GPCR:
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- GPCR ligand binding:
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- Eicosanoid ligand-binding receptors:
5-oxoETE + F1MCJ0 ⟶ OXER1:5-oxoETE
- Prostanoid ligand receptors:
PTGDR + prostaglandin D2 ⟶ PTGDR:PGD2
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
PTGIR + Prostacyclin ⟶ PTGIR:PGI2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Eicosanoid ligand-binding receptors:
5-oxoETE + F1PUR8 ⟶ OXER1:5-oxoETE
- Prostanoid ligand receptors:
PTGDR + prostaglandin D2 ⟶ PTGDR:PGD2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
Ade-Rib ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Eicosanoid ligand-binding receptors:
5-oxoETE + Homologues of OXER1 ⟶ OXER1:5-oxoETE
- Prostanoid ligand receptors:
Homologues of PTGDR2 + prostaglandin D2 ⟶ PTGDR2:PGD2
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
Prostacyclin + ptgir ⟶ PTGIR:PGI2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
Ade-Rib + AdoR ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
Ade-Rib + AdoR ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
Ade-Rib + AdoR ⟶ ADORA1,3:Ade-Rib
- Hemostasis:
3AG + H2O ⟶ AA + Glycerol + H+
- Platelet homeostasis:
L-Arg + Oxygen + TPNH ⟶ L-Cit + NO + TPN
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
Prostacyclin:prostacyclin receptor:G-protein Gs (active) ⟶ G-protein beta-gamma complex + Gs:GTP + PTGIR + Prostacyclin
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Eicosanoid ligand-binding receptors:
5-oxoETE + OXER1_HUMAN ⟶ OXER1:5-oxoETE
- Prostanoid ligand receptors:
PTGDR + prostaglandin D2 ⟶ PTGDR:PGD2
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
Prostacyclin + Ptgir ⟶ PTGIR:PGI2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- GPCR ligand binding:
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA2A,B + Ade-Rib ⟶ ADORA2A,B:Ade-Rib
- Eicosanoid ligand-binding receptors:
LTB4R,LTB4R2 + leukotriene B4 ⟶ LTB4R,LTB4R2:LTB
- Prostanoid ligand receptors:
Ptgdr + prostaglandin D2 ⟶ PTGDR:PGD2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Eicosanoid ligand-binding receptors:
LTB4R,LTB4R2 + leukotriene B4 ⟶ LTB4R,LTB4R2:LTB
- Prostanoid ligand receptors:
Ptgdr + prostaglandin D2 ⟶ PTGDR:PGD2
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
Prostacyclin + Ptgir ⟶ PTGIR:PGI2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Eicosanoid ligand-binding receptors:
LTB4R,LTB4R2 + leukotriene B4 ⟶ LTB4R,LTB4R2:LTB
- Prostanoid ligand receptors:
F1RIB0 + prostaglandin D2 ⟶ PTGDR2:PGD2
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
PTGIR + Prostacyclin ⟶ PTGIR:PGI2
- Hemostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Platelet homeostasis:
H2O + PAF ⟶ CH3COO- + lyso-PAF
- Prostacyclin signalling through prostacyclin receptor:
Prostacyclin + ptgir ⟶ PTGIR:PGI2
- Signaling Pathways:
AcK685- p-Y705,S727-STAT3 dimer + H2O ⟶ CH3COO- + p-Y705,S727-STAT3 dimer
- Signaling by GPCR:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- GPCR ligand binding:
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Class A/1 (Rhodopsin-like receptors):
ADORA1,3 + Ade-Rib ⟶ ADORA1,3:Ade-Rib
- Eicosanoid ligand-binding receptors:
5-oxoETE + A0A6I8PVP2 ⟶ OXER1:5-oxoETE
- Prostanoid ligand receptors:
PTGDR + prostaglandin D2 ⟶ PTGDR:PGD2
- Eicosanoid ligand-binding receptors:
CrzR + leukotriene B4 ⟶ LTB4R,LTB4R2:LTB
- Prostanoid ligand receptors:
PTGDR + prostaglandin D2 ⟶ PTGDR:PGD2
- Prostacyclin signalling through prostacyclin receptor:
PTGIR + Prostacyclin ⟶ PTGIR:PGI2
- Prostacyclin signalling through prostacyclin receptor:
GTP + Prostacyclin:prostacyclin receptor:Gs (inactive) ⟶ GDP + Prostacyclin:prostacyclin receptor:G-protein Gs (active)
- Hemostasis:
AMP + GTP ⟶ ADP + GDP
- Platelet homeostasis:
H0ZG60 + LDL ⟶ LDL:LRP8
- Prostacyclin signalling through prostacyclin receptor:
GTP + Prostacyclin:prostacyclin receptor:Gs (inactive) ⟶ GDP + Prostacyclin:prostacyclin receptor:G-protein Gs (active)
BioCyc(0)
WikiPathways(5)
- Eicosanoid metabolism via cyclooxygenases (COX):
Arachidonic acid ⟶ 15(S)-HETE
- Eicosanoid synthesis:
PGD2 ⟶ PGJ2
- Blood clotting and drug effects:
Fibrinogen ⟶ Fibrin
- Eicosanoid metabolism via cyclooxygenases (COX):
Arachidonic acid ⟶ 15(S)-HETE
- Arachidonic acid (AA, ARA) oxylipin metabolism:
HXB3 ⟶ Trioxilin B3
Plant Reactome(0)
INOH(1)
- Prostaglandin and Leukotriene metabolism ( Prostaglandin and Leukotriene metabolism ):
Glutathione + Leucotriene A4 ⟶ Leucotriene C4
PlantCyc(0)
COVID-19 Disease Map(0)
PathBank(46)
- Arachidonic Acid Metabolism:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Leukotriene C4 Synthesis Deficiency:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Piroxicam Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Acetylsalicylic Acid Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Etodolac Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Ketoprofen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Ibuprofen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Rofecoxib Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Diclofenac Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Sulindac Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Celecoxib Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Ketorolac Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Suprofen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Bromfenac Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Indomethacin Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Mefenamic Acid Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Oxaprozin Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Nabumetone Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Naproxen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Diflunisal Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Meloxicam Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Valdecoxib Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Antipyrine Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Antrafenine Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Carprofen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Etoricoxib Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Fenoprofen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Flurbiprofen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Magnesium Salicylate Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Lumiracoxib Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Lornoxicam Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Phenylbutazone Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Nepafenac Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Trisalicylate-Choline Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Tolmetin Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Tiaprofenic Acid Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Tenoxicam Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Salsalate Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Salicylate-Sodium Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Salicylic Acid Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Acetaminophen Action Pathway:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Arachidonic Acid Metabolism:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Leukotriene C4 Synthesis Deficiency:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Arachidonic Acid Metabolism:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Arachidonic Acid Metabolism:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
- Leukotriene C4 Synthesis Deficiency:
Glutathione + Leukotriene A4 ⟶ Leukotriene C4
PharmGKB(0)
2 个相关的物种来源信息
- 9606 - Homo sapiens: -
- 9606 - Homo sapiens: 10.1007/S11306-016-1051-4
在这里通过桑基图来展示出与当前的这个代谢物在我们的BioDeep知识库中具有相关联信息的其他代谢物。在这里进行关联的信息来源主要有:
- PubMed: 来源于PubMed文献库中的文献信息,我们通过自然语言数据挖掘得到的在同一篇文献中被同时提及的相关代谢物列表,这个列表按照代谢物同时出现的文献数量降序排序,取前10个代谢物作为相关研究中关联性很高的代谢物集合展示在桑基图中。
- NCBI Taxonomy: 通过文献数据挖掘,得到的代谢物物种来源信息关联。这个关联信息同样按照出现的次数降序排序,取前10个代谢物作为高关联度的代谢物集合展示在桑吉图上。
- Chemical Taxonomy: 在物质分类上处于同一个分类集合中的其他代谢物
- Chemical Reaction: 在化学反应过程中,存在为当前代谢物相关联的生化反应过程中的反应底物或者反应产物的关联代谢物信息。
点击图上的相关代谢物的名称,可以跳转到相关代谢物的信息页面。
文献列表
- Marta Z Pacia, Natalia Chorazy, Magdalena Sternak, Kamila Wojnar-Lason, Stefan Chlopicki. Vascular lipid droplets formed in response to TNF, hypoxia or OA: biochemical composition and prostacyclin generation.
Journal of lipid research.
2023 Mar; ?(?):100355. doi:
10.1016/j.jlr.2023.100355
. [PMID: 36934842] - Jacob Bell, C William Pike, Charles Kreisel, Rajiv Sonti, Nathan Cobb. Predicting Impact of Prone Position on Oxygenation in Mechanically Ventilated Patients with COVID-19.
Journal of intensive care medicine.
2022 Jul; 37(7):883-889. doi:
10.1177/08850666221081757
. [PMID: 35195460] - Felix Rafael De Bie, Christopher Gates Halline, Travis Kotzur, Kevin Hayes, Christopher Copeland Rouse, Jonathan Chang, Abby Christine Larson, Sameer Ahmad Khan, Ashley Spina, Samantha Tilden, Francesca Maria Russo, Holly Lee Hedrick, Jan Deprest, Emily Anne Partridge. Prenatal treprostinil reduces the pulmonary hypertension phenotype in the rat model of congenital diaphragmatic hernia.
EBioMedicine.
2022 Jul; 81(?):104106. doi:
10.1016/j.ebiom.2022.104106
. [PMID: 35779494] - Anthony Steven Lubinsky, Shari B Brosnahan, Andrew Lehr, Ola Elnadoury, Jacklyn Hagedorn, Bhaskara Garimella, Michael T Bender, Nancy Amoroso, Antonio Artigas, Lieuwe D J Bos, David Kaufman. Inhaled pulmonary vasodilators are not associated with improved gas exchange in mechanically ventilated patients with COVID-19: A retrospective cohort study.
Journal of critical care.
2022 06; 69(?):153990. doi:
10.1016/j.jcrc.2022.153990
. [PMID: 35180636] - Joe W Chiles, Kadambari Vijaykumar, Adrienne Darby, Ryan L Goetz, Lauren E Kane, Abhishek R Methukupally, Sheetal Gandotra, Derek W Russell, Micah R Whitson, Daniel Kelmenson. Letter to the Editor: 'Use of inhaled epoprostenol with high flow nasal oxygen in non-intubated patients with severe COVID-19'.
Journal of critical care.
2022 06; 69(?):153989. doi:
10.1016/j.jcrc.2022.153989
. [PMID: 35217371] - Martin Vigstedt, Peter Søe-Jensen, Morten H Bestle, Niels E Clausen, Klaus T Kristiansen, Theis Lange, Jakob Stensballe, Anders Perner, Pär I Johansson. The effect of prostacyclin infusion on markers of endothelial activation and damage in mechanically ventilated patients with SARS-CoV-2 infection.
Journal of critical care.
2022 06; 69(?):154010. doi:
10.1016/j.jcrc.2022.154010
. [PMID: 35183892] - Katrina M Mirabito Colafella, Daan C H van Dorst, Rugina I Neuman, Leni van Doorn, Karla Bianca Neves, Augusto C Montezano, Ingrid M Garrelds, Richard van Veghel, René de Vries, Estrellita Uijl, Marian C Clahsen-van Groningen, Hans J Baelde, Anton H van den Meiracker, Rhian M Touyz, Willy Visser, A H Jan Danser, Jorie Versmissen. Differential effects of cyclo-oxygenase 1 and 2 inhibition on angiogenesis inhibitor-induced hypertension and kidney damage.
Clinical science (London, England : 1979).
2022 05; 136(9):675-694. doi:
10.1042/cs20220182
. [PMID: 35441670] - Dietmar Schranz. COVID-19 in children: acute endotheliopathy, but forgotten prostacyclin replacement?.
Cardiology in the young.
2022 04; 32(4):572-573. doi:
10.1017/s1047951121002626
. [PMID: 34227929] - Vivek Kataria, Klayton Ryman, Ginger Tsai-Nguyen, Yosafe Wakwaya, Ariel Modrykamien. Evaluation of aerosolized epoprostenol for hypoxemia in non-intubated patients with coronavirus disease 2019.
Hospital practice (1995).
2022 Apr; 50(2):118-123. doi:
10.1080/21548331.2022.2047310
. [PMID: 35212586] - Zhenkun Li, Fengrong Zhang, Shicong Wang, Honghe Xiao, Jingyi Wang, Xianyu Li, Hongjun Yang. Endothelium-dependent vasorelaxant effects of praeruptorin a in isolated rat thoracic aorta.
Bioengineered.
2022 04; 13(4):10038-10046. doi:
10.1080/21655979.2022.2062979
. [PMID: 35416124] - Xuemei Wu, Xiaohan Zhang, Ruichao Xu, Imam Hussain Shaik, Raman Venkataramanan. Physiologically based pharmacokinetic modelling of treprostinil after intravenous injection and extended-release oral tablet administration in healthy volunteers: An extrapolation to other patient populations including patients with hepatic impairment.
British journal of clinical pharmacology.
2022 02; 88(2):587-599. doi:
10.1111/bcp.14966
. [PMID: 34190364] - Pär I Johansson, Peter Søe-Jensen, Morten H Bestle, Niels E Clausen, Klaus T Kristiansen, Theis Lange, Jakob Stensballe, Anders Perner. Prostacyclin in Intubated Patients with COVID-19 and Severe Endotheliopathy: A Multicenter, Randomized Clinical Trial.
American journal of respiratory and critical care medicine.
2022 02; 205(3):324-329. doi:
10.1164/rccm.202108-1855oc
. [PMID: 34813414] - Xiaoxiao Tao, Chenfeng Qiu, Xuewen Feng, Linlin Wang. Predictive Analysis of Serum NO, PGI2, and Ox-LDL Levels on Disease Progression in Patients with Lacunar Cerebral Infarction.
Computational and mathematical methods in medicine.
2022; 2022(?):1221810. doi:
10.1155/2022/1221810
. [PMID: 35419075] - Kamrouz Ghadimi, Jhaymie Cappiello, Mary Cooter-Wright, John C Haney, John M Reynolds, Brandi A Bottiger, Jacob A Klapper, Jerrold H Levy, Matthew G Hartwig. Inhaled Pulmonary Vasodilator Therapy in Adult Lung Transplant: A Randomized Clinical Trial.
JAMA surgery.
2022 01; 157(1):e215856. doi:
10.1001/jamasurg.2021.5856
. [PMID: 34787647] - Pai B H Poonam, Rebecca Koscik, Trong Nguyen, Shefali Rikhi, Hung-Mo Lin. Nitric oxide versus epoprostenol for refractory hypoxemia in Covid-19.
PloS one.
2022; 17(6):e0270646. doi:
10.1371/journal.pone.0270646
. [PMID: 35759496] - Peyman Nowrouzi-Sohrabi, Reza Tabrizi, Kamran Hessami, Mojtaba Shabani-Borujeni, Mahnaz Hosseini-Bensenjan, Shahla Rezaei, Mohammad Jalali, Pedram Keshavarz, Fariba Ahmadizar. The effects of beraprost sodium on renal function and cardiometabolic profile in patients with diabetes mellitus: a systematic review and meta-analysis of clinical trials.
International urology and nephrology.
2022 Jan; 54(1):111-120. doi:
10.1007/s11255-021-02887-7
. [PMID: 34019221] - Anna Stochmal, Joanna Czuwara, Michał Zaremba, Lidia Rudnicka. Epoprostenol up-regulates serum adiponectin level in patients with systemic sclerosis: therapeutic implications.
Archives of dermatological research.
2021 Nov; 313(9):783-791. doi:
10.1007/s00403-020-02172-0
. [PMID: 33433715] - Joyce Hou, Evelyn Tolbert, Mark Birkenbach, Nisanne S Ghonem. Treprostinil alleviates hepatic mitochondrial injury during rat renal ischemia-reperfusion injury.
Biomedicine & pharmacotherapy = Biomedecine & pharmacotherapie.
2021 Nov; 143(?):112172. doi:
10.1016/j.biopha.2021.112172
. [PMID: 34560548] - Allison E Norlander, R Stokes Peebles. Prostaglandin I2 and T Regulatory Cell Function: Broader Impacts.
DNA and cell biology.
2021 Oct; 40(10):1231-1234. doi:
10.1089/dna.2021.0515
. [PMID: 34265210] - Sofia Sidiropoulou, Styliani Papadaki, Aikaterini N Tsouka, Ioannis K Koutsaliaris, Vasileios G Chantzichristos, Despoina Pantazi, Minas E Paschopoulos, Kenny M Hansson, Alexandros D Tselepis. The Effect of Platelet-Rich Plasma on Endothelial Progenitor Cell Functionality.
Angiology.
2021 Sep; 72(8):776-786. doi:
10.1177/0003319721998895
. [PMID: 33678047] - Meiwen Ding, Evelyn Tolbert, Mark Birkenbach, Reginald Gohh, Fatemeh Akhlaghi, Nisanne S Ghonem. Treprostinil reduces mitochondrial injury during rat renal ischemia-reperfusion injury.
Biomedicine & pharmacotherapy = Biomedecine & pharmacotherapie.
2021 Sep; 141(?):111912. doi:
10.1016/j.biopha.2021.111912
. [PMID: 34328097] - Omar Abdulhameed Almazroo, Mohammad Kowser Miah, Venkateswaran C Pillai, Imam H Shaik, Ruichao Xu, Stalin Dharmayan, Heather J Johnson, Swaytha Ganesh, Raymond M Planinsic, Anthony J Demetris, Ali Al-Khafaji, Roberto Lopez, Michele Molinari, Amit D Tevar, Christopher Hughes, Abhinav Humar, Raman Venkataramanan. An evaluation of the safety and preliminary efficacy of peri- and post-operative treprostinil in preventing ischemia and reperfusion injury in adult orthotopic liver transplant recipients.
Clinical transplantation.
2021 06; 35(6):e14298. doi:
10.1111/ctr.14298
. [PMID: 33764591] - Ikumi Nakajo, Hiroshi Inoue, Masaki Inaba, Keishi Oikawa, Masataka Katashima, Taiji Sawamoto, Hajimu Kurumatani, Masanari Shiramoto. Comparison of Pharmacokinetic Profiles of Beraprost Sustained Release in Japanese, Chinese, and Korean Healthy Adult Males.
Clinical drug investigation.
2021 Jun; 41(6):549-555. doi:
10.1007/s40261-021-01031-8
. [PMID: 33913081] - Eric J Rubin, Lindsey R Baden, Jeffrey M Drazen, Darren B Taichman, Stephen Morrissey. Audio Interview: Vaccination in Nursing Homes and New Pulmonary/Critical Care Research.
The New England journal of medicine.
2021 May; 384(20):e89. doi:
10.1056/nejme2108598
. [PMID: 34010537] - H James Ford, Wayne H Anderson, Blair Wendlandt, Thomas Bice, Agathe Ceppe, Joyce Lanier, Shannon S Carson. Randomized, Placebo-controlled Trial of Inhaled Treprostinil for Patients at Risk for Acute Respiratory Distress Syndrome.
Annals of the American Thoracic Society.
2021 04; 18(4):641-647. doi:
10.1513/annalsats.202004-374oc
. [PMID: 33095030] - Mohammed A Abosheasha, Afnan H El-Gowily. Superiority of cilostazol among antiplatelet FDA-approved drugs against COVID 19 Mpro and spike protein: Drug repurposing approach.
Drug development research.
2021 04; 82(2):217-229. doi:
10.1002/ddr.21743
. [PMID: 32984987] - Rajiv Sonti, C William Pike, Nathan Cobb. Responsiveness of Inhaled Epoprostenol in Respiratory Failure due to COVID-19.
Journal of intensive care medicine.
2021 Mar; 36(3):327-333. doi:
10.1177/0885066620976525
. [PMID: 33234007] - Sean X Gu, Tarun Tyagi, Kanika Jain, Vivian W Gu, Seung Hee Lee, Jonathan M Hwa, Jennifer M Kwan, Diane S Krause, Alfred I Lee, Stephanie Halene, Kathleen A Martin, Hyung J Chun, John Hwa. Thrombocytopathy and endotheliopathy: crucial contributors to COVID-19 thromboinflammation.
Nature reviews. Cardiology.
2021 03; 18(3):194-209. doi:
10.1038/s41569-020-00469-1
. [PMID: 33214651] - Jane A Mitchell, Fisnik Shala, Maria Elisa Lopes Pires, Rachel Y Loy, Andrew Ravendren, Joshua Benson, Paula Urquhart, Anna Nicolaou, Harvey R Herschman, Nicholas S Kirkby. Endothelial cyclooxygenase-1 paradoxically drives local vasoconstriction and atherogenesis despite underpinning prostacyclin generation.
Science advances.
2021 03; 7(12):. doi:
10.1126/sciadv.abf6054
. [PMID: 33741600] - Ahmed Aburima, Martin Berger, Benjamin E J Spurgeon, Bethany A Webb, Katie S Wraith, Maria Febbraio, Alastair W Poole, Khalid M Naseem. Thrombospondin-1 promotes hemostasis through modulation of cAMP signaling in blood platelets.
Blood.
2021 02; 137(5):678-689. doi:
10.1182/blood.2020005382
. [PMID: 33538796] - Daoyuan Sun, Wenlan Yang, Zhenwei Wang, Beilan Gao. Efficacy of Beraprost Sodium Combined with Sildenafil and Its Effects on Vascular Endothelial Function and Inflammation in Patients Experiencing Left Heart Failure Complicated with Pulmonary Arterial Hypertension.
Medical science monitor : international medical journal of experimental and clinical research.
2021 Feb; 27(?):e928413. doi:
10.12659/msm.928413
. [PMID: 33531453] - Richard W Chapman, Zhili Li, Donald Chun, Helena Gauani, Vladimir Malinin, Adam J Plaunt, David Cipolla, Walter R Perkins, Michel R Corboz. Treprostinil palmitil, an inhaled long-acting pulmonary vasodilator, does not show tachyphylaxis with daily dosing in rats.
Pulmonary pharmacology & therapeutics.
2021 02; 66(?):101983. doi:
10.1016/j.pupt.2020.101983
. [PMID: 33346142] - Son Hai Vu, Alisha Wehdnesday Bernardo Reyes, Tran Xuan Ngoc Huy, Wongi Min, Hu Jang Lee, Hyun-Jin Kim, John Hwa Lee, Suk Kim. Prostaglandin I2 (PGI2) inhibits Brucella abortus internalization in macrophages via PGI2 receptor signaling, and its analogue affects immune response and disease outcome in mice.
Developmental and comparative immunology.
2021 02; 115(?):103902. doi:
10.1016/j.dci.2020.103902
. [PMID: 33091457] - Michel R Corboz, William Salvail, Sandra Gagnon, Daniel LaSala, Charles E Laurent, Dany Salvail, Kuan-Ju Chen, David Cipolla, Walter R Perkins, Richard W Chapman. Prostanoid receptor subtypes involved in treprostinil-mediated vasodilation of rat pulmonary arteries and in treprostinil-mediated inhibition of collagen gene expression of human lung fibroblasts.
Prostaglandins & other lipid mediators.
2021 02; 152(?):106486. doi:
10.1016/j.prostaglandins.2020.106486
. [PMID: 33011365] - Meiwen Ding, Evelyn Tolbert, Mark Birkenbach, Fatemeh Akhlaghi, Reginald Gohh, Nisanne S Ghonem. Treprostinil, a prostacyclin analog, ameliorates renal ischemia-reperfusion injury: preclinical studies in a rat model of acute kidney injury.
Nephrology, dialysis, transplantation : official publication of the European Dialysis and Transplant Association - European Renal Association.
2021 01; 36(2):257-266. doi:
10.1093/ndt/gfaa236
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General and comparative endocrinology.
2021 01; 301(?):113659. doi:
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Mediators of inflammation.
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Shock (Augusta, Ga.).
2021 01; 55(1):121-127. doi:
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Pediatric research.
2020 12; 88(6):850-856. doi:
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Biochemical pharmacology.
2020 12; 182(?):114276. doi:
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Pulmonary pharmacology & therapeutics.
2020 12; 65(?):102002. doi:
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FASEB journal : official publication of the Federation of American Societies for Experimental Biology.
2020 12; 34(12):16105-16116. doi:
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Medicine and science in sports and exercise.
2020 10; 52(10):2107-2116. doi:
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Pharmacotherapy.
2020 10; 40(10):1054-1060. doi:
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Pharmacological research.
2020 10; 160(?):105096. doi:
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Journal of the American Heart Association.
2020 08; 9(15):e016017. doi:
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Cardiovascular research.
2020 08; 116(10):1779-1790. doi:
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European journal of pharmacology.
2020 Jul; 879(?):173122. doi:
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Blood.
2020 07; 136(2):171-182. doi:
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Pakistan journal of pharmaceutical sciences.
2020 Jul; 33(4):1659-1664. doi:
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International journal of molecular sciences.
2020 Jun; 21(12):. doi:
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Journal of neuroimmune pharmacology : the official journal of the Society on NeuroImmune Pharmacology.
2020 06; 15(2):292-308. doi:
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Nutrients.
2020 Jun; 12(6):. doi:
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Allergology international : official journal of the Japanese Society of Allergology.
2020 Apr; 69(2):223-231. doi:
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Haematologica.
2020 03; 105(3):808-819. doi:
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Medicine and science in sports and exercise.
2020 03; 52(3):627-636. doi:
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American journal of physiology. Renal physiology.
2020 02; 318(2):F475-F485. doi:
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Therapeutic apheresis and dialysis : official peer-reviewed journal of the International Society for Apheresis, the Japanese Society for Apheresis, the Japanese Society for Dialysis Therapy.
2020 Feb; 24(1):42-55. doi:
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Prostaglandins & other lipid mediators.
2020 02; 146(?):106388. doi:
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Langenbeck's archives of surgery.
2020 Feb; 405(1):81-90. doi:
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Drug design, development and therapy.
2020; 14(?):527-538. doi:
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Endocrinology and metabolism (Seoul, Korea).
2019 12; 34(4):398-405. doi:
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Circulation research.
2019 10; 125(9):847-854. doi:
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Journal of clinical monitoring and computing.
2019 Oct; 33(5):903-910. doi:
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Molecules (Basel, Switzerland).
2019 Jun; 24(13):. doi:
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Journal of cardiovascular pharmacology.
2019 06; 73(6):383-393. doi:
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Journal of molecular medicine (Berlin, Germany).
2019 06; 97(6):777-791. doi:
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Pflugers Archiv : European journal of physiology.
2019 04; 471(4):543-555. doi:
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British journal of pharmacology.
2019 04; 176(8):1038-1050. doi:
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Journal of cellular physiology.
2019 04; 234(4):3254-3262. doi:
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Archives of medical research.
2019 02; 50(2):11-14. doi:
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Biomedical chromatography : BMC.
2019 Feb; 33(2):e4403. doi:
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Chemico-biological interactions.
2019 Jan; 298(?):104-111. doi:
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FASEB journal : official publication of the Federation of American Societies for Experimental Biology.
2019 01; 33(1):1510-1521. doi:
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The Journal of international medical research.
2019 Jan; 47(1):252-264. doi:
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Nature chemical biology.
2019 01; 15(1):18-26. doi:
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American journal of health-system pharmacy : AJHP : official journal of the American Society of Health-System Pharmacists.
2019 Jan; 76(1):13-16. doi:
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BMC nephrology.
2018 12; 19(1):376. doi:
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Journal of physiology and pharmacology : an official journal of the Polish Physiological Society.
2018 Dec; 69(6):. doi:
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Drug research.
2018 Nov; 68(11):605-614. doi:
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Biomedicine & pharmacotherapy = Biomedecine & pharmacotherapie.
2018 Oct; 106(?):805-812. doi:
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Journal of immunology (Baltimore, Md. : 1950).
2018 10; 201(7):1936-1945. doi:
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Journal of cellular physiology.
2018 10; 233(10):6386-6394. doi:
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Seminars in cardiothoracic and vascular anesthesia.
2018 Sep; 22(3):306-323. doi:
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Cancer metastasis reviews.
2018 09; 37(2-3):439-454. doi:
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The Journal of pediatrics.
2018 09; 200(?):44-49. doi:
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Chest.
2018 09; 154(3):541-549. doi:
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Cytokine.
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Acta cirurgica brasileira.
2018 Jul; 33(7):577-587. doi:
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Brazilian journal of cardiovascular surgery.
2018 Jul; 33(4):384-390. doi:
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Circulation research.
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Naunyn-Schmiedeberg's archives of pharmacology.
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Chinese journal of integrative medicine.
2018 Jun; 24(6):448-454. doi:
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BMC cancer.
2018 May; 18(1):582. doi:
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Acta physiologica (Oxford, England).
2018 05; 223(1):e13028. doi:
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Prostaglandins & other lipid mediators.
2018 05; 136(?):33-43. doi:
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Pulmonary pharmacology & therapeutics.
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