about
Increased plasma thioredoxin levels in patients with sepsis: positive association with macrophage migration inhibitory factorThe iron paradox of heart and lungs and its implications for acute lung injury.Characterization of the vasodilator properties of peroxynitrite on rat pulmonary artery: role of poly (adenosine 5'-diphosphoribose) synthase.Redox regulation of neutrophil apoptosis and the systemic inflammatory response syndrome.Albumin: biochemical properties and therapeutic potential.Extracellular thioredoxin levels are increased in patients with acute lung injury.PMX464, a thiol-reactive quinol and putative thioredoxin inhibitor, inhibits NF-kappaB-dependent proinflammatory activation of alveolar epithelial cells.Pathogenesis of the systemic inflammatory syndrome and acute lung injury: role of iron mobilization and decompartmentalization.Association between preoperative plasma sRAGE levels and recovery from cardiac surgery.Methemoglobin-induced signaling and chemokine responses in human alveolar epithelial cellsThe RAGE axis in systemic inflammation, acute lung injury and myocardial dysfunction: an important therapeutic target?Phagomimetic action of antimicrobial agents.Haem oxygenase shows pro-oxidant activity in microsomal and cellular systems: implications for the release of low-molecular-mass iron.Plasma hypoxanthine levels in ARDS: implications for oxidative stress, morbidity, and mortality.Pulmonary oxidant stress in murine sepsis is due to inflammatory cell nitric oxide.Exhaled breath condensate detects markers of pulmonary inflammation after cardiothoracic surgery.Systemic inflammatory response syndrome post cardiac surgery: a useful concept?Albumin influences total plasma antioxidant capacity favorably in patients with acute lung injury.KL-6 levels are elevated in plasma from patients with acute respiratory distress syndrome.Production of nitric oxide during surgery involving cardiopulmonary bypass.4-hydroxy-2-nonenal levels increase in the plasma of patients with adult respiratory distress syndrome as linoleic acid appears to fall.Linoleic acid and protein thiol changes suggestive of oxidative damage in the plasma of patients with adult respiratory distress syndrome.Oxidative damage to plasma proteins in adult respiratory distress syndrome.Variable tissue expression of transferrin receptors: relevance to acute respiratory distress syndrome.RAGE inhibition: healthy or harmful?Iron-binding affinity of bacterial vaccine polysaccharides which contain phosphodiester linkages as part of the polymer chain and of other polyphosphates, including DNA.Action of lead(II) and aluminium (III) ions on iron-stimulated lipid peroxidation in liposomes, erythrocytes and rat liver microsomal fractionsCatalase enhances damage to DNA by bleomycin-iron(II): the role of hydroxyl radicalsOxygen radical damage to DNA by rifamycin SV and copper ionsSuperoxide-dependent lipid peroxidation. Problems with the use of catalase as a specific probe for fenton-derived hydroxyl radicalsMitomycin C-induced deoxyribose degradation inhibited by superoxide dismutase. A reaction involving iron, hydroxyl and semiquinone radicalsAssay of doxorubicin and 4'-epidoxorubicin by reversed-phase ion-pair chromatographyMalondialdehyde formation from lipid peroxides in the thiobarbituric acid test: the role of lipid radicals, iron salts, and metal chelatorsIschaemia--reperfusion injury in the rat is modulated by superoxide generation and leads to an augmentation of the hypoxic pulmonary vascular responseThe effect of cardiopulmonary bypass on intestinal and pulmonary endothelial permeabilityChelatable iron and copper can be released from extracorporeally circulated blood during cardiopulmonary bypassPrimary plasma antioxidants in adult respiratory distress syndrome patients: changes in iron-oxidizing, iron-binding, and free radical-scavenging proteinsOxidative damage to proteins of bronchoalveolar lavage fluid in patients with acute respiratory distress syndrome: evidence for neutrophil-mediated hydroxylation, nitration, and chlorinationLung injury following pulmonary resection in the isolated, blood-perfused rat lungPulmonary vascular permeability after cardiopulmonary bypass and its relationship to oxidative stress
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Q33602407-6A002FA9-F1FE-406E-9E36-B10E97C9B95FQ34265164-77031588-EB9B-4E17-A198-1F72104DB172Q35026244-7AED7FEB-AECB-492B-9A11-13B219B3DA6DQ36098161-F382C071-75B9-48AD-B456-63CAF2748923Q36138540-7376A7AF-6FA9-4F41-964E-24A31130AED0Q36203156-0CF5793A-247A-43B9-8326-418CE1C88E14Q36742816-3E1625D5-C706-4781-A3C7-71601E906ED0Q37022879-643DC561-9212-428B-8BDB-C8F783CE7C8CQ37191372-5D41489E-7F13-4B0C-8672-2213A370949AQ37576099-64497303-3478-4D72-809F-2FFDC5A11743Q37772786-55B5D17B-5F10-4CB9-9047-6258A3CDAA13Q41746005-F50E4D0E-6E4F-48CA-9ADD-B87128420315Q42995032-BCC59FFD-4931-4BA2-9211-34B84C33B5D0Q43427451-83BE9D6E-9ED4-4093-839B-1025A5CDA3C6Q44092883-20DF3D15-8538-494D-8721-02BEDA3E14D6Q44613005-AEA67665-676F-4994-8F8A-67AE8FF1617DQ45766586-04776A50-E2D8-4624-9EC3-8D03D1807738Q47746744-85FF1D1C-C89C-4171-9C2C-C39C0BB2414AQ48028199-667CBDDA-D62F-4FEC-9C09-3BE92964EEF3Q51530199-F08D4948-7441-46FB-8C5B-C9FEA9C2DD76Q51628737-6A757C34-E113-4892-9271-6A258B8E5DA0Q51634866-7B19ED2C-E5B0-469B-861B-0AC7F40CB44CQ51634871-28DC6A72-F37A-439A-BD12-E55B952D777EQ51655861-45149F33-D0B5-4432-BEF9-02D7DA277701Q54385379-88E8F640-65CB-4ABB-99DA-B9C57F8AB18BQ54623341-AB1BEBF1-DCD4-420A-A630-337D8A98AFC6Q67926338-7C9F7E39-37C7-4628-8736-1DECB64F71D9Q68936672-D64816D5-D747-49C9-AA63-233D8463A8B3Q69811155-46968256-7031-493B-ABCB-7795F2402D83Q70189579-72F31AFF-C557-4EA5-80AE-163ED9D27044Q70190878-9FD7D71F-A6B7-4C3B-9B0A-6BDF9D04C478Q70963874-1340362E-E525-4F71-A142-CECF9BDE5ECFQ71221929-EC2E3B0A-5D45-4145-9C69-9CE9A115A194Q71233747-BDE3CC2B-9BA6-43B5-A758-3B7C4D7B9FFFQ72014204-4454B06B-4034-477B-89CE-0A49D92AF253Q72089942-1D61DE0E-7D39-4170-A3A8-A73D9BA038D6Q72109001-B258155B-7500-415C-B96B-D76A27134E0EQ73044539-D708C77A-E71D-4134-9EAF-001918B113E5Q73208030-17A15CBC-C565-43ED-80FB-3E9C1DE7415DQ73267524-DD4EBAF5-20BF-4877-AD67-1EF6D5FEF830
P50
description
hulumtues
@sq
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Gregory J Quinlan
@nl
Gregory J Quinlan
@sl
Gregory J. Quinlan
@en
Gregory J. Quinlan
@es
type
label
Gregory J Quinlan
@nl
Gregory J Quinlan
@sl
Gregory J. Quinlan
@en
Gregory J. Quinlan
@es
prefLabel
Gregory J Quinlan
@nl
Gregory J Quinlan
@sl
Gregory J. Quinlan
@en
Gregory J. Quinlan
@es
P106
P1153
56399136700
P21
P31
P496
0000-0002-3305-3278