1.15.1.1 2 O2.- + 2 H+ - Homo sapiens O2 + H2O2 - ir 390123 1.15.1.1 2 O2.- + 2 H+ - Pseudomonas putida O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Trypanosoma cruzi O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Kluyveromyces marxianus O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Saccharolobus solfataricus O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Allium sativum O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Clostridioides difficile O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Sulfolobus acidocaldarius O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Danio rerio O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Laternula elliptica O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Aliivibrio salmonicida O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Acidilobus saccharovorans O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Thermochaetoides thermophila O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Bacillus sp. (in: Bacteria) O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Burkholderia pseudomallei O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ superoxide dismutase is a key enzyme for the protection of aerobic organisms against toxic radicals produced during oxidative processes Saccharolobus solfataricus O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ dismutation of superoxide in a two-step reaction: 1. O2.- + Fe3+-SOD = O2 + Fe2+-SOD, 2. O2.- + Fe2+-SOD + 2 H+ = H2O2 + Fe3+-SOD Saccharolobus solfataricus O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ activity determination by the epinephrine assay: at alkaline pH, superoxide anion O2- causes the oxidation of epinephrine to adrenochrome, SOD competes with this reaction by decreasing the adrenochrome formation Allium sativum O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ enzyme activity assay by measurement of inhibition of reduction of cytochrome c by O2- produced by the xanthine oxidase/xanthine reaction Laternula elliptica O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ enzyme activity determination by xanthine-xanthine oxidase-nitro blue tetrazolium assay Homo sapiens O2 + H2O2 - ir 390123 1.15.1.1 2 O2.- + 2 H+ - Bacillus sp. (in: Bacteria) MHS47 O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Saccharolobus solfataricus Gtheta O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Sulfolobus acidocaldarius DSM 639 O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Kluyveromyces marxianus NBIMCC 1984 O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Burkholderia pseudomallei 1106a O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ - Danio rerio AB O2 + H2O2 - ? 390123 1.15.1.1 2 O2.- + 2 H+ + - Thermus thermophilus O2 + H2O2 - ? 415540 1.15.1.1 2 O2.- + 2 H+ + - Homo sapiens O2 + H2O2 - ? 415540 1.15.1.1 2 O2.- + 2 H+ + - Saccharomyces cerevisiae O2 + H2O2 - ? 415540 1.15.1.1 2 O2.- + 2 H+ + - Aeropyrum pernix O2 + H2O2 - ? 415540 1.15.1.1 2 O2.- + 2 H+ + the SOD-catalyzed reaction proceeds through a redox cycle of metal ions, active site geometry, overview Aeropyrum pernix O2 + H2O2 - ? 415540 1.15.1.1 2 O2.- + 2 H+ + - Thermus thermophilus HB27 / ATCC BAA-163 / DSM 7039 O2 + H2O2 - ? 415540 1.15.1.1 2 superoxide + 2 H+ - Mus musculus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Escherichia coli O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Homo sapiens O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Bos taurus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Zea mays O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Nicotiana tabacum O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Glycine max O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Arabidopsis thaliana O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Photobacterium leiognathi O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Porphyridium purpureum O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Mytilus edulis O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Crassostrea gigas O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Pleurotus ostreatus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Leishmania amazonensis O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Gadus morhua O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Penaeus vannamei O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Debaryomyces hansenii O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Lingulodinium polyedra O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Aspergillus glaucus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Tetraselmis subcordiformis O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Conticribra weissflogii O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Avicennia marina O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Bruguiera gymnorhiza O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Aeropyrum pernix O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Populus trichocarpa O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Apostichopus japonicus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Pinctada fucata O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Sonneratia alba O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Nicotiana benthamiana O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Tetraselmis gracilis O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Piper betle O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Archaeoglobus fulgidus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Alvinella pompejana O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Haliotis discus discus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Sardinella aurita O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Stemona tuberosa O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Rattus norvegicus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Pseudomonas putida O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Rhodobacter capsulatus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Nostoc sp. PCC 7120 = FACHB-418 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Pisum sativum O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Rhodotorula mucilaginosa O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Pseudoalteromonas sp. ANT506 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Miscanthus x giganteus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Coxiella burnetii O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Cherax quadricarinatus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Amaranthus hypochondriacus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Deschampsia antarctica O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Oplegnathus fasciatus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Nicotiana plumbaginifolia O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Curcuma aromatica O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Thermus thermophilus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Caragana jubata O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Geobacillus sp. EPT3 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Sparus aurata O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Raphanus sativus var. raphanistroides O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Gypsophila oblanceolata O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Leishmania peruviana O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Photobacterium sepia O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Nodularia sp. (in: Bacteria) O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Minutocellus polymorphus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Cylindrotheca closterium O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Ulva linza O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Schwanniomyces vanrijiae var. vanrijiae O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Lampanyctus crocodilus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Xiphias gladius O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Prionace glauca O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Cliona celata O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ detoxification of superoxide Archaeoglobus fulgidus O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Schwanniomyces vanrijiae var. vanrijiae 020 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Rhodotorula mucilaginosa AN5 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Aspergillus glaucus 363/NBIMCC 8861 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Leishmania amazonensis MHOM/BR/73/M1845 O2 + H2O2 - ? 424468 1.15.1.1 2 superoxide + 2 H+ - Leishmania peruviana MHOM/PE/84/LC26 O2 + H2O2 - ? 424468 1.15.1.1 additional information enzyme can reduce ferrocyanide to ferricyanide at pH 5.0-8.7 Bos taurus ? - ? 89 1.15.1.1 additional information addition of hexacyanoferrate results in reduction of Cu(II) to Cu(I) Bos taurus ? - ? 89 1.15.1.1 additional information dismutation of superoxide anions is promoted by reduction of Cu2+ to Cu+ Rattus norvegicus ? - ? 89 1.15.1.1 additional information Cu,Zn-dependent enzyme protects photoheterotrophic cells from periplasmic superoxide generated by exposure to low O2 under illuminated conditions Cereibacter sphaeroides ? - ? 89 1.15.1.1 additional information enzyme is involved in pathogenesis of the parasite by protecting it from oxidative killing Neospora caninum ? - ? 89 1.15.1.1 additional information enzyme Sod2 is a major component of the antioxidant defense system, and adaptation to elevated growth temperatures is also dependent on enzyme activity Cryptococcus neoformans ? - ? 89 1.15.1.1 additional information higher levels of oxidative stress may induce changes in photochemicla efficiency of photosystem II Pinus mugo ? - ? 89 1.15.1.1 additional information MnSOD may have a specific role in the steroidogenic function of the fasciulata/reticularis of the rat adrenal, but not on that of the glomerulosa Rattus norvegicus ? - ? 89 1.15.1.1 additional information superoxide dismutase activity in Pseudomonas putida affects utilization of sugars and growth on root surfaces, role of SOD in root colonization and oxidative stress, overview Pseudomonas putida ? - ? 89 1.15.1.1 additional information the enzyme is required for virulence of the organism, e.g. in silkworm Bombyx mori, with iron-SOD being more important, overview Pseudomonas aeruginosa ? - ? 89 1.15.1.1 additional information covalent modification of the conserved Tyr41 in the active site, Tyr41 and His155 are involved in catalysis, hydrogen bond network including three solvent molecules connecting the iron-ligating hydroxide ion via H155 with F41 and H37, Y41 and H155 are important for the structural and functional properties of SOD, overview Saccharolobus solfataricus ? - ? 89 1.15.1.1 additional information Fe2+-containing active site structure, overview Sulfolobus acidocaldarius ? - ? 89 1.15.1.1 additional information native and recombinant enzyme ossess a covalent modification of the conserved Tyr41 in the active site, Tyr41 plays an important role in the enzyme activity and the maintenance of the structural architecture of SOD, overview Saccharolobus solfataricus ? - ? 89 1.15.1.1 additional information unusual covalent modification of the conserved Tyr41 in the active site, interactions Tyr41-His155, overview Saccharolobus solfataricus ? - ? 89 1.15.1.1 additional information EC-SOD protects the lung in both bleomycin- and asbestos-induced models of pulmonary fibrosis Homo sapiens ? - ? 89 1.15.1.1 additional information inverse relationship between SOD1 expression and ox-LDL in plaque plays a role in oxidative stress contributes to post-ischaemic injury in the heart, increasing SOD1 protects against this increased oxidative stress Mus musculus ? - ? 89 1.15.1.1 additional information pharmacokinetics of single and multiple doses of recombinant human superoxide dismutase covalently linked to lecithin in healthy Japanese and Caucasian volunteers are nonlinear with dose, showing a relatively long half-life of PC-SOD of over 24 hours, overview Homo sapiens ? - ? 89 1.15.1.1 additional information pharmacokinetics, safety and tolerability of single rising doses up to 80 mg of recombinant human superoxide dismutase covalently linked to lecithin in healthy white volunteers, overview Homo sapiens ? - ? 89 1.15.1.1 additional information SOD activity is one major defense line against oxidative stress for all of the aerobic organisms Kluyveromyces marxianus ? - ? 89 1.15.1.1 additional information SOD inhibits the autoxidation of pyrogallol Bos taurus ? - ? 89 1.15.1.1 additional information enzyme activity determination by NBT reduction Triticum aestivum ? - ? 89 1.15.1.1 additional information SOD activity measurement by the ferricytochrome c method, using xanthine/xanthine oxidase as the source of superoxide radicals Citrullus lanatus ? - ? 89 1.15.1.1 additional information SOD activity measurement using the nitroblue tetrazolium Aspergillus niger ? - ? 89 1.15.1.1 additional information the enzyme is involved in activation and modulation of phospho-extracellular signal-regulated kinases proteins and in the control of several biological processes including cell proliferation Allium sativum ? - ? 89 1.15.1.1 additional information coupled assay method using inhibition of the autooxidation of pyrogallol Bos taurus ? - ? 89 1.15.1.1 additional information enzyme activity assay using nitroblue tetrazolium and riboflavin Fritillaria meleagris ? - ? 89 1.15.1.1 additional information SOD enzyme activity measurement is based on the inhibition of nitroblue tetrazolium reduction by superoxide radical generated by xanthine/xanthine oxidase Sus scrofa ? - ? 89 1.15.1.1 additional information determination of superoxide dismutase is performed using the method of inhibition of epinephrine auto-oxidation in alkaline medium and the measurement of the absorbance of the resulting product at 340 nm Gallus gallus ? - ? 89 1.15.1.1 additional information enzyme activity is measured byy the enzyme caused inhibition of the xanthine oxidase coupling reaction Sonneratia alba ? - ? 89 1.15.1.1 additional information SOD activity is assayed based on its ability to compete with nitroblue-tetrazolium for superoxide anions generated by the xanthine-xanthine oxidase system, which in turn results in the inhibition of reduction of nitroblue-tetrazolium Cenchrus americanus ? - ? 89 1.15.1.1 additional information SOD activity is determined by a modified method of inhibition of cytochrome c reduction in a xanthine/xanthine oxidase system generating superoxide ions Acidilobus saccharovorans ? - ? 89 1.15.1.1 additional information superoxide dismutase activity is measured by the inhibition of nitro blue tetrazolium reduction in the presence of the superoxide anion generated by the xanthine and xanthine oxidase system Sus scrofa ? - ? 89 1.15.1.1 additional information the enzyme activity is determined by measuring by inhibition of autooxidation of pyrogallol Triticum aestivum ? - ? 89 1.15.1.1 additional information the enzyme assay measures the enzyme's ability to inhibit the oxidation of hydroxylamine catalyzed by the xanthine-xanthine oxidase system Meretrix meretrix ? - ? 89 1.15.1.1 additional information enzyme activity assay method using riboflavin and nitroblue tetrazolium (NBT) reduction Caragana jubata ? - ? 89 1.15.1.1 additional information enzyme activity detection by water-soluble tetrazolium (WST-1) assay. This assay is based on the detection of a water-soluble formazan dye that is formed upon reduction of water-soluble tetrazolium salt, WST-1, by the superoxide anion Homo sapiens ? - ? 89 1.15.1.1 additional information enzyme activity determination with riboflavin and nitroblue tetrazolium (NBT), kinetics Stemona tuberosa ? - ? 89 1.15.1.1 additional information enzyme activity measurement by determination of inhibition through the enzyme of pyrogallol autoxidation to purpurogallin Avicennia marina ? - ? 89 1.15.1.1 additional information enzyme activity measurement by reduction of NBT Rhodotorula mucilaginosa ? - ? 89 1.15.1.1 additional information enzyme activity of recombinant MgMnSOD1 is assayed by using 2-(4-iodophenyl)-3-(4-nitrophenyl)-5-(2,4-disulfophenyl)-2H-tetrazolium, i.e. WST-1. The method shows high sensitivity due to the lower reaction rate of WST-1 and superoxide anion Miscanthus x giganteus ? - ? 89 1.15.1.1 additional information enzyme PschSOD exhibits superoxide dismutase and peroxidase activities. The enzyme utilizes its own dismutation product, the H2O2 in presence of bicarbonate Pisum sativum ? - ? 89 1.15.1.1 additional information equilibrium binding of Escherichia coli MnSOD to poly(U), poly(A), poly(C), poly(dU) and double-stranded (ds) DNA, overview. The polynucleotides bind to MnSOD in the following affinity hierarchy, poly(dU) N poly(U) N dsDNA N poly(A) N poly(C). The differences in the hierarchy are not large in magnitude as the poly(dU) bound with less than a 100fold higher affinity than poly(C). For each polynucleotide, Kobs decreases only slightly with increasing [K+], surprising for a relatively non-specific nucleic acid protein. There is either only one binding site shared by these polynucleotides or the larger site size occluded by poly(C) overlaps that of poly(U) and poly(A), but extends further on the protein Escherichia coli ? - ? 89 1.15.1.1 additional information SOD activity is measured using a method employing xanthine and xanthine oxidase to generate superoxide radicals which react with 2-(4-iodophenyl)-3-(4-nitrophenol)-5-phenyltetrazolium chloride (INT) to form a red formazan dye. The SOD activity is then measured spectrophotometrically by the degree of inhibition of this reaction by means of the decrease in absorbance at 505 nm, 37°C Sardinella aurita ? - ? 89 1.15.1.1 additional information SOD enzyme activity is determined by measuring enzyme ability to inhibit the photochemical reduction of nitrobluetetrazolium Aeropyrum pernix ? - ? 89 1.15.1.1 additional information superoxide dismutase inhibits pyrogallol autoxidation in alkaline medium characterized by increases in oxygen consumption. The primary products of pyrogallol autoxidation are H2O2 by reduction of O2 and pyrogallol-orthoquinone by oxidation of pyrogallol. SOD is catalyzing a reaction that annuls the forward electron transfer step that produces superoxide and pyrogallol-semiquinone, both oxygen radicals. By dismutating these oxygen radicals, SOD can reverse autoxidation. Analysis of reaction parameters, overview Bos taurus ? - ? 89 1.15.1.1 additional information the enzyme activity assay uses the p-nitro blue tetrazolium chloride (NBT) solution method Deschampsia antarctica ? - ? 89 1.15.1.1 additional information the enzyme activity is detected by its ability to inhibit the autoxidation of epinephrine at pH 10.2 Homo sapiens ? - ? 89 1.15.1.1 additional information the extracellular enzyme appears to bind lipopolysaccharides, recognition mechanisms can be provided by several actors which can interplay such as plasma LBP-binding protein (LBP), membrane bound or soluble forms of CD14 and integrins Crassostrea gigas ? - ? 89 1.15.1.1 additional information dismutation of superoxide anions is promoted by reduction of Cu2+ to Cu+ Rattus norvegicus CuZn-SOD ? - ? 89 1.15.1.1 additional information SOD activity is one major defense line against oxidative stress for all of the aerobic organisms Kluyveromyces marxianus L3 ? - ? 89 1.15.1.1 additional information enzyme activity measurement by reduction of NBT Rhodotorula mucilaginosa AN5 ? - ? 89 1.15.1.1 additional information enzyme can reduce ferrocyanide to ferricyanide at pH 5.0-8.7 Bos taurus CuZn-SOD ? - ? 89 1.15.1.1 additional information addition of hexacyanoferrate results in reduction of Cu(II) to Cu(I) Bos taurus CuZn-SOD ? - ? 89 1.15.1.1 additional information Fe2+-containing active site structure, overview Sulfolobus acidocaldarius DSM 639 ? - ? 89 1.15.1.1 additional information SOD activity measurement using the nitroblue tetrazolium Aspergillus niger 26 ? - ? 89 1.15.1.1 nitro blue tetrazolium + ? - Solanum lycopersicum ? - ? 377376 1.15.1.1 nitro blue tetrazolium + ? - Psidium guajava ? - ? 377376 1.15.1.1 Nitroblue Tetrazolium + ? enzyme inhibits superoxide-induced reduction of colorless Nitroblue Tetrazolium dye to its oxidized blue formazan form Marinomonas sp. ? - ? 389398 1.15.1.1 Nitroblue Tetrazolium + ? enzyme inhibits superoxide-induced reduction of colorless Nitroblue Tetrazolium dye to its oxidized blue formazan form Marinomonas sp. NJ522 ? - ? 389398 1.15.1.1 O2- + H+ - Gallus gallus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Synechococcus elongatus PCC 7942 = FACHB-805 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Drosophila melanogaster O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Paracoccus denitrificans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermus aquaticus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Sinorhizobium meliloti O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Bacillus subtilis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Mus musculus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermus thermophilus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Escherichia coli O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Homo sapiens O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Homo sapiens O2 + H2O2 - r 287893 1.15.1.1 O2- + H+ - Rattus norvegicus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Saccharomyces cerevisiae O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Bos taurus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Triticum aestivum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Geobacillus stearothermophilus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus nidulans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Neurospora crassa O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Cereibacter sphaeroides O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Methanothermobacter thermautotrophicus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus niger O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Spinacia oleracea O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pisum sativum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Zea mays O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Klebsiella aerogenes O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Photobacterium leiognathi O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pseudomonas putida O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Trypanosoma brucei O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Halobacterium salinarum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermoplasma acidophilum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Canis lupus familiaris O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Arachis hypogaea O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Crithidia fasciculata O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Mycolicibacterium phlei O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Xenopus laevis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Ascaris suum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Propionibacterium freudenreichii subsp. shermanii O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Bacteroides fragilis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Trypanosoma cruzi O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Solanum lycopersicum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Lens culinaris O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Niallia circulans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pinus sylvestris O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Nocardia asteroides O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Brassica oleracea O2 + H2O2 - r 287893 1.15.1.1 O2- + H+ - Acholeplasma laidlawii O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Saccharolobus solfataricus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Caulobacter vibrioides O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Arthrospira platensis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus flavus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus terreus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Brassica rapa subsp. oleifera O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Porphyridium purpureum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Cyprinus carpio O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Flavobacterium sp. O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Citrullus lanatus subsp. vulgaris O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Methanobacterium bryantii O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Nostoc sp. O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pseudomonas carboxydohydrogena O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Megalodesulfovibrio gigas O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Mizuhopecten yessoensis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Nicotiana sp. O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Porphyromonas gingivalis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Streptococcus mutans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Bacteroides thetaiotaomicron O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermomyces lanuginosus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Deinococcus radiophilus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Planomicrobium okeanokoites O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Danio rerio O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Azotobacter chroococcum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Leptolyngbya boryana O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Chersonesometrus fulvipes O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Gluconobacter cerinus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Ginkgo biloba O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Empedobacter brevis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Myroides odoratus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Leishmania tropica O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Metarhizium anisopliae O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Marchantia paleacea O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Gordonia bronchialis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Virgibacillus halodenitrificans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Dirofilaria immitis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Nuphar lutea O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Microbacterium maritypicum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Curtobacterium oceanosedimentum O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Terrimonas ferruginea O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Halomonas halmophila O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus fumigatus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Photobacterium damselae subsp. piscicida O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Anas platyrhynchos domestica O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Methanobrevibacter arboriphilus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Radix lethospermi O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Chloroflexus aurantiacus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Trichinella pseudospiralis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Bombyx mori O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Haliotis discus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Tatumella ptyseos O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Candida albicans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Cinnamomum camphora O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Citrus limon O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pseudoalteromonas haloplanktis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Geobacillus stearothermophilus O2 + H2O2 Mn-SOD is unaffected by H2O2 ? 287893 1.15.1.1 O2- + H+ - Synechococcus elongatus PCC 7942 = FACHB-805 O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Paracoccus denitrificans O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Mus musculus O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Escherichia coli O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Homo sapiens O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Rattus norvegicus O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Saccharomyces cerevisiae O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Geobacillus stearothermophilus O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Zea mays O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Photobacterium leiognathi O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Halobacterium salinarum O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Thermoplasma acidophilum O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Mycolicibacterium phlei O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Propionibacterium freudenreichii subsp. shermanii O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Bacteroides fragilis O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Nocardia asteroides O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Caulobacter vibrioides O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Methanobacterium bryantii O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Streptococcus mutans O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Bacteroides thetaiotaomicron O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Leptolyngbya boryana O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Ginkgo biloba O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Gordonia bronchialis O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ defense against oxidants Saccharolobus solfataricus O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ defense against oxidants Dirofilaria immitis O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ Mn-SOD, expression is strongly stimulated during stationary phase in cell culture, enzyme is atypical and plays an important role in cell protection against reactive oxygen in the cytosol in the stationary phase Candida albicans O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Rattus norvegicus CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Citrus limon CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Drosophila melanogaster CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Saccharolobus solfataricus Gtheta O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ defense against oxidants Saccharolobus solfataricus Gtheta O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Azotobacter chroococcum Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermus thermophilus Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Spinacia oleracea Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Bos taurus CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Gallus gallus CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Methanobrevibacter arboriphilus AZ O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pisum sativum Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Empedobacter brevis CCM 2867 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Solanum lycopersicum Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Methanobacterium bryantii Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Brassica oleracea CuZn-SOD O2 + H2O2 - r 287893 1.15.1.1 O2- + H+ - Leptolyngbya boryana Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Arthrospira platensis Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Lens culinaris CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Photobacterium leiognathi CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Photobacterium leiognathi CuZn-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Caulobacter vibrioides CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Caulobacter vibrioides CuZn-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Porphyridium purpureum Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Marchantia paleacea CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Escherichia coli B / ATCC 11303 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Niallia circulans Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Photobacterium leiognathi ATCC 25521 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Caulobacter vibrioides CB15 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pseudomonas putida Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus niger CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Nocardia asteroides GUH-2 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Planomicrobium okeanokoites NCMB 561 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus nidulans CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Photobacterium damselae subsp. piscicida Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Canis lupus familiaris CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Cinnamomum camphora Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Neurospora crassa CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Zea mays SOD-III O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Brassica rapa subsp. oleifera Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Escherichia coli Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Escherichia coli Mn-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Homo sapiens Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Escherichia coli Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Escherichia coli Fe-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Paracoccus denitrificans CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Paracoccus denitrificans CuZn-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Thermus aquaticus Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Megalodesulfovibrio gigas Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Nuphar lutea Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Myroides odoratus CCM 2873 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Klebsiella aerogenes IFO 3317 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Homo sapiens CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Homo sapiens CuZn-SOD O2 + H2O2 - r 287893 1.15.1.1 O2- + H+ - Zea mays SOD-I O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Microbacterium maritypicum NCMB 559 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Paracoccus denitrificans Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Dirofilaria immitis CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ defense against oxidants Dirofilaria immitis CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Saccharomyces cerevisiae CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermus thermophilus HB8 / ATCC 27634 / DSM 579 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus flavus CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Crithidia fasciculata Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Pseudomonas carboxydohydrogena Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Geobacillus stearothermophilus Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Geobacillus stearothermophilus Mn-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Geobacillus stearothermophilus Mn-SOD O2 + H2O2 Mn-SOD is unaffected by H2O2 ? 287893 1.15.1.1 O2- + H+ - Sinorhizobium meliloti Rm5000 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus fumigatus Af293 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Acholeplasma laidlawii Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Virgibacillus halodenitrificans Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Anas platyrhynchos domestica CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Halomonas halmophila CCM 2833 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermomyces lanuginosus P134 O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Neurospora crassa Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Chersonesometrus fulvipes Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermoplasma acidophilum Fe-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Thermoplasma acidophilum Fe-SOD O2 + H2O2 Fe-SODs are inhibited by H2O2, but Mn-SODs are not ? 287893 1.15.1.1 O2- + H+ - Cereibacter sphaeroides Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Rattus norvegicus Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Saccharomyces cerevisiae Mn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Halobacterium salinarum NRL O2 + H2O2 - ? 287893 1.15.1.1 O2- + H+ - Aspergillus terreus CuZn-SOD O2 + H2O2 - ? 287893 1.15.1.1 O2.- + 4-[3-(4-iodophenyl)-2-(4-nitrophenyl)-2H-5-tetrazolio]-1,3-benzene disulfonate i.e. WST-1, activity assay detection method Hyphantria cunea ? - ? 397999 1.15.1.1 O2.- + H+ - Mus musculus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Homo sapiens O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Rattus norvegicus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Bos taurus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Bombyx mori O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Triticum aestivum O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Oryctolagus cuniculus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Aspergillus niger O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Canis lupus familiaris O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Helicobacter pylori O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Methylobacillus sp. O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Deinococcus radiodurans O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Humicola lutea O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Providencia alcalifaciens O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Burkholderia cenocepacia O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Thermoascus aurantiacus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Bacillus cereus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Rhodothermus sp. O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Haliotis diversicolor supertexta O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Talaromyces marneffei O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Crypthecodinium cohnii O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Scedosporium apiospermum O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Hyphantria cunea O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Kluyveromyces marxianus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Citrullus lanatus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ a key enzyme for fighting oxidative stress Helicobacter pylori O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ a metalloenzyme that eliminates superoxide radicals by dismutation into hydrogen peroxide and molecular oxygen Crypthecodinium cohnii O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ Cu,ZnSOD is a urinary marker of hepatic necrosis, but not hepatic fibrosis, overview Rattus norvegicus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ Deinococcus radiodurans Mn-SOD is most effective at high superoxide fluxes found under conditions of high radioactivity compared to te enzyme of Escherichia coli and Homo sapiens Deinococcus radiodurans O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ EC-SOD plays an important role in regulating inflammatory responses to pulmonary injury, EC-SOD binds directly to hyaluronic acid and may inhibit pulmonary inflammation in part by preventing superoxide-mediated fragmentation of hyaluronan to low molecular mass fragments, thereby preventing activation of polymorphic neutrophil chemotaxis by fragmented hyaluronic acid, overview Homo sapiens O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ EC-SOD plays an important role in regulating inflammatory responses to pulmonary injury, EC-SOD binds directly to hyaluronic acid via its matrix-binding domain and may inhibit pulmonary inflammation in part by preventing superoxide-mediated fragmentation of hyaluronan to low molecular mass fragments Mus musculus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ enzyme inhibition by tetrathiomolybdate leads to antiangiogenic and antitumour effects in mice Mus musculus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ extracellular superoxide dismutase accelerates endothelial recovery and inhibits in-stent restenosis in stented atherosclerotic Watanabe heritable hyperlipidemic rabbit aorta. Extracellular superoxide dismutase, EC-SOD, is a major component of antioxidative defense in blood vessels, and exogenously delivered EC-SOD protects against balloon-induced neointima formation and constrictive remodeling and has powerful cardioprotective properties, overview Oryctolagus cuniculus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ isozyme MnSOD1, the product of sodA-1 gene, is expressed at lower level compared to MnSOD2, overview Bacillus cereus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ isozyme MnSOD2, encoded by sodA-2, plays a more important role in antioxidative stress compared to MnSOD1, overview Bacillus cereus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ periplasmic Cu,ZnSOD protects the bacterium from exogenously generated O2.- and contributes to intracellular survival of the bacterium in macrophages Burkholderia cenocepacia O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ rosuvastatin induces the enzyme in aortic extracts and restores the enzyme expression in mice with combined leptin and LDL-receptor deficiency, and in THP-1 macrophages and foam cells in vitro, thus, SOD1 is a potentially important mediator of the prevention of oxLDL accumulation within atherosclerotic plaques, overview Mus musculus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ SOD is a regulatory enzyme involved in the degradation of superoxide anions in living organisms Bombyx mori O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ SOD is a regulatory enzyme involved in the degradation of superoxide anions in living organisms Hyphantria cunea O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ SOD1 induces Ca2+ in the cell and inhibits ERK phosphorylation in the P-ERK1/2 pathway by muscarinic receptor M1 modulation in rat pituitary GH3 cells, the effect is enhanced by oxotremorine and partially reverted by pyrenzepine, and independent from increased intracellular calcium concentration, overview Rattus norvegicus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the enzyme catalyzes the disproportionation of superoxide via its Cu ion redox cycle [Cu-(II)/Cu(I)], protecting the organism from oxidative stress, while the neighboring Zn ion plays a structural role Bos taurus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the enzyme contributes to the virulence of many human-pathogenic fungi through its ability to neutralize toxic levels of reactive oxygen species generated by the host Talaromyces marneffei O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the enzyme is important in defense of cells against oxidative stress Providencia alcalifaciens O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the enzyme is involved in hypoxic pulmonary vasoconstriction, HPV, an important physiological mechanism, which is regulated by changes in the production of and interactions among reactive oxygen species, mechanism, overview, the superoxide dismutase mimetic tempol inhibits HPV, overview Rattus norvegicus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the enzyme mutation E93A leads to a decrease in muscle cdk5 activity accompanied by a significant reduction in MyoD and cyclin D1 levels causing amyotrophic lateral sclerosis, a primarily a motor neuron disorder with early muscle denervation preceding motor neuron loss, the progressive deterioration of muscle function is potentiated by altered muscle biochemistry in these mice at a very young, presymptomatic age, overview Homo sapiens O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the enzyme prevents the inhibition of human CYP3A4, UGT1A6, and P-glycoprotein with halogenated xanthene food dyes, overview Rattus norvegicus O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ the conserved, active-site residue Tyr34 mediates product inhibition Homo sapiens O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Kluyveromyces marxianus L3 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Bacillus cereus 905 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ isozyme MnSOD2, encoded by sodA-2, plays a more important role in antioxidative stress compared to MnSOD1, overview Bacillus cereus 905 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ isozyme MnSOD1, the product of sodA-1 gene, is expressed at lower level compared to MnSOD2, overview Bacillus cereus 905 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Rhodothermus sp. XMH10 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Burkholderia cenocepacia K56-2 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ periplasmic Cu,ZnSOD protects the bacterium from exogenously generated O2.- and contributes to intracellular survival of the bacterium in macrophages Burkholderia cenocepacia K56-2 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Aspergillus niger 26 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Humicola lutea 103 O2 + H2O2 - ? 394936 1.15.1.1 O2.- + H+ - Methylobacillus sp. SK1 / DSM 8269 O2 + H2O2 - ? 394936 1.15.1.1 pyrogallol + ? - Cordyceps militaris ? - ? 289130 1.15.1.1 pyrogallol + ? enzyme inhibits the autooxidation of pyrogallol uncultured bacterium ? - ? 289130 1.15.1.1 pyrogallol + ? enzyme inhibits the autooxidation of pyrogallol Cordyceps militaris ? - ? 289130 1.15.1.1 riboflavin + ? - Solanum lycopersicum ? - ? 377605 1.15.1.1 riboflavin + ? - Psidium guajava ? - ? 377605