EC Number | Cloned (Comment) | Organism |
---|---|---|
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Pyrobaculum aerophilum |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Thermodesulfobacterium commune |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Thermodesulfovibrio yellowstonii |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Allochromatium vinosum |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfovibrio vulgaris |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfovibrio desulfuricans |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfobulbus sp. |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Olavius algarvensis |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Syntrophobacter fumaroxidans |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulforamulus reducens |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Thiobacillus denitrificans |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Caldivirga maquilingensis |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Chlorobaculum tepidum |
1.8.99.2 | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Candidatus Pelagibacter ubique |
EC Number | Metals/Ions | Comment | Organism | Structure |
---|---|---|---|---|
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Pyrobaculum aerophilum | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Thermodesulfobacterium commune | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Thermodesulfovibrio yellowstonii | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Desulfotalea psychrophila | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Allochromatium vinosum | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Desulfovibrio vulgaris | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Desulfovibrio desulfuricans | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Desulfobulbus sp. | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Olavius algarvensis | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Syntrophobacter fumaroxidans | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Desulforamulus reducens | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Thiobacillus denitrificans | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Caldivirga maquilingensis | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Chlorobaculum tepidum | |
1.8.99.2 | Iron | contains two [4Fe-4S] centers | Candidatus Pelagibacter ubique |
EC Number | Organism | UniProt | Comment | Textmining |
---|---|---|---|---|
1.8.99.2 | Allochromatium vinosum | O33996 | - |
- |
1.8.99.2 | Caldivirga maquilingensis | - |
- |
- |
1.8.99.2 | Candidatus Pelagibacter ubique | - |
HTCC1062 | - |
1.8.99.2 | Candidatus Pelagibacter ubique HTCC1062 | - |
HTCC1062 | - |
1.8.99.2 | Chlorobaculum tepidum | Q8KE28 | - |
- |
1.8.99.2 | Desulfobulbus sp. | - |
- |
- |
1.8.99.2 | Desulfobulbus sp. MLMS-1 | - |
- |
- |
1.8.99.2 | Desulforamulus reducens | - |
- |
- |
1.8.99.2 | Desulforamulus reducens MI-1 | - |
- |
- |
1.8.99.2 | Desulfotalea psychrophila | - |
- |
- |
1.8.99.2 | Desulfovibrio desulfuricans | Q9L768 | ATCC 29577 | - |
1.8.99.2 | Desulfovibrio vulgaris | Q72DT3 | str. Hildenborough | - |
1.8.99.2 | Desulfovibrio vulgaris Hildenborough | Q72DT3 | str. Hildenborough | - |
1.8.99.2 | Olavius algarvensis | B5QSJ0 | Delta1 symbiont | - |
1.8.99.2 | Pyrobaculum aerophilum | - |
- |
- |
1.8.99.2 | Syntrophobacter fumaroxidans | A0LH39 | beta-subunit | - |
1.8.99.2 | Thermodesulfobacterium commune | - |
- |
- |
1.8.99.2 | Thermodesulfovibrio yellowstonii | - |
- |
- |
1.8.99.2 | Thiobacillus denitrificans | Q5VLA6 | alpha-subunit; ATCC 25259 | - |
1.8.99.2 | Thiobacillus denitrificans | Q5VLA7 | beta-subunit; ATCC 25259 | - |
EC Number | Substrates | Comment Substrates | Organism | Products | Comment (Products) | Rev. | Reac. |
---|---|---|---|---|---|---|---|
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Pyrobaculum aerophilum | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Thermodesulfobacterium commune | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Thermodesulfovibrio yellowstonii | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfotalea psychrophila | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Allochromatium vinosum | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfovibrio vulgaris | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfovibrio desulfuricans | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfobulbus sp. | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Olavius algarvensis | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Syntrophobacter fumaroxidans | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulforamulus reducens | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Thiobacillus denitrificans | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Caldivirga maquilingensis | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Chlorobaculum tepidum | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Candidatus Pelagibacter ubique | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Candidatus Pelagibacter ubique HTCC1062 | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulforamulus reducens MI-1 | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfovibrio vulgaris Hildenborough | ? | - |
? | |
1.8.99.2 | additional information | full-length AprBA sequences from 20 phylogenetically distinct sulfate-reducing prokaryotes and sulfuroxidizing bacteria species are used for homology modeling. Based on the comparative models, there are no significant structural differences between dissimilatory APS reductases from sulfate-reducing prokaryotes and sulfur-oxidizing bacteria. This might be indicative for a similar catalytic process of APS reduction/sulfite oxidation | Desulfobulbus sp. MLMS-1 | ? | - |
? |
EC Number | Synonyms | Comment | Organism |
---|---|---|---|
1.8.99.2 | AprBA | - |
Pyrobaculum aerophilum |
1.8.99.2 | AprBA | - |
Thermodesulfobacterium commune |
1.8.99.2 | AprBA | - |
Thermodesulfovibrio yellowstonii |
1.8.99.2 | AprBA | - |
Desulfotalea psychrophila |
1.8.99.2 | AprBA | - |
Allochromatium vinosum |
1.8.99.2 | AprBA | - |
Desulfovibrio vulgaris |
1.8.99.2 | AprBA | - |
Desulfovibrio desulfuricans |
1.8.99.2 | AprBA | - |
Desulfobulbus sp. |
1.8.99.2 | AprBA | - |
Olavius algarvensis |
1.8.99.2 | AprBA | - |
Syntrophobacter fumaroxidans |
1.8.99.2 | AprBA | - |
Desulforamulus reducens |
1.8.99.2 | AprBA | - |
Thiobacillus denitrificans |
1.8.99.2 | AprBA | - |
Caldivirga maquilingensis |
1.8.99.2 | AprBA | - |
Chlorobaculum tepidum |
1.8.99.2 | AprBA | - |
Candidatus Pelagibacter ubique |
1.8.99.2 | dissimilatory APS reductase | - |
Pyrobaculum aerophilum |
1.8.99.2 | dissimilatory APS reductase | - |
Thermodesulfobacterium commune |
1.8.99.2 | dissimilatory APS reductase | - |
Thermodesulfovibrio yellowstonii |
1.8.99.2 | dissimilatory APS reductase | - |
Desulfotalea psychrophila |
1.8.99.2 | dissimilatory APS reductase | - |
Allochromatium vinosum |
1.8.99.2 | dissimilatory APS reductase | - |
Desulfovibrio vulgaris |
1.8.99.2 | dissimilatory APS reductase | - |
Desulfovibrio desulfuricans |
1.8.99.2 | dissimilatory APS reductase | - |
Desulfobulbus sp. |
1.8.99.2 | dissimilatory APS reductase | - |
Olavius algarvensis |
1.8.99.2 | dissimilatory APS reductase | - |
Syntrophobacter fumaroxidans |
1.8.99.2 | dissimilatory APS reductase | - |
Desulforamulus reducens |
1.8.99.2 | dissimilatory APS reductase | - |
Thiobacillus denitrificans |
1.8.99.2 | dissimilatory APS reductase | - |
Caldivirga maquilingensis |
1.8.99.2 | dissimilatory APS reductase | - |
Chlorobaculum tepidum |
1.8.99.2 | dissimilatory APS reductase | - |
Candidatus Pelagibacter ubique |
EC Number | Cofactor | Comment | Organism | Structure |
---|---|---|---|---|
1.8.99.2 | FAD | - |
Pyrobaculum aerophilum | |
1.8.99.2 | FAD | - |
Thermodesulfobacterium commune | |
1.8.99.2 | FAD | - |
Thermodesulfovibrio yellowstonii | |
1.8.99.2 | FAD | - |
Desulfotalea psychrophila | |
1.8.99.2 | FAD | - |
Allochromatium vinosum | |
1.8.99.2 | FAD | - |
Desulfovibrio vulgaris | |
1.8.99.2 | FAD | - |
Desulfovibrio desulfuricans | |
1.8.99.2 | FAD | - |
Desulfobulbus sp. | |
1.8.99.2 | FAD | - |
Olavius algarvensis | |
1.8.99.2 | FAD | - |
Syntrophobacter fumaroxidans | |
1.8.99.2 | FAD | - |
Desulforamulus reducens | |
1.8.99.2 | FAD | - |
Thiobacillus denitrificans | |
1.8.99.2 | FAD | - |
Caldivirga maquilingensis | |
1.8.99.2 | FAD | - |
Chlorobaculum tepidum | |
1.8.99.2 | FAD | - |
Candidatus Pelagibacter ubique |