node1 | node2 | node1 accession | node2 accession | node1 annotation | node2 annotation | score |
CBH21187.1 | grdD | CLOST_1065 | CLOST_1116 | Putative glycosyl transferase (Glycosyl transferase, group 1 family protein); Function proposed based on presence of conserved amino acid motif, structural feature or limited homology. | Glycine reductase component C subunit alpha; Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.406 |
CBH21187.1 | grdX | CLOST_1065 | CLOST_1107 | Putative glycosyl transferase (Glycosyl transferase, group 1 family protein); Function proposed based on presence of conserved amino acid motif, structural feature or limited homology. | GrdX protein; Function of strongly homologous gene; putative regulator. | 0.511 |
grdA | grdB | CLOST_1112 | CLOST_1113 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.984 |
grdA | grdC | CLOST_1112 | CLOST_1115 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Glycine reductase component C subunit beta; Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.930 |
grdA | grdD | CLOST_1112 | CLOST_1116 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Glycine reductase component C subunit alpha; Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.917 |
grdA | grdE | CLOST_1112 | CLOST_1110 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Glycine reductase complex component B subunits alpha and beta; In the first step of glycine reductase, the substrate is bound to component PB via a Schiff base intermediate. Then the PB- activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination (By similarity). | 0.945 |
grdA | grdH | CLOST_1112 | CLOST_1057 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Betaine reductase complex component B subunit beta (Selenoprotein PB beta); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.912 |
grdA | grdI | CLOST_1112 | CLOST_1056 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Betaine reductase complex component B subunit alpha (Selenoprotein PB alpha). | 0.857 |
grdA | grdX | CLOST_1112 | CLOST_1107 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | GrdX protein; Function of strongly homologous gene; putative regulator. | 0.894 |
grdA | trxA | CLOST_1112 | CLOST_1109 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Thioredoxin (Trx); Participates in various redox reactions through the reversible oxidation of its active center dithiol to a disulfide and catalyzes dithiol-disulfide exchange reactions. | 0.954 |
grdA | trxB | CLOST_1112 | CLOST_1108 | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | Thioredoxin reductase. | 0.858 |
grdB | grdA | CLOST_1113 | CLOST_1112 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | 0.984 |
grdB | grdC | CLOST_1113 | CLOST_1115 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Glycine reductase component C subunit beta; Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.929 |
grdB | grdD | CLOST_1113 | CLOST_1116 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Glycine reductase component C subunit alpha; Function of homologous gene experimentally demonstrated in an other organism; enzyme. | 0.925 |
grdB | grdE | CLOST_1113 | CLOST_1110 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Glycine reductase complex component B subunits alpha and beta; In the first step of glycine reductase, the substrate is bound to component PB via a Schiff base intermediate. Then the PB- activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination (By similarity). | 0.952 |
grdB | grdI | CLOST_1113 | CLOST_1056 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Betaine reductase complex component B subunit alpha (Selenoprotein PB alpha). | 0.807 |
grdB | grdX | CLOST_1113 | CLOST_1107 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | GrdX protein; Function of strongly homologous gene; putative regulator. | 0.894 |
grdB | trxA | CLOST_1113 | CLOST_1109 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Thioredoxin (Trx); Participates in various redox reactions through the reversible oxidation of its active center dithiol to a disulfide and catalyzes dithiol-disulfide exchange reactions. | 0.898 |
grdB | trxB | CLOST_1113 | CLOST_1108 | Glycine reductase component B (47 kDa, subunit gamma); Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Thioredoxin reductase. | 0.675 |
grdC | grdA | CLOST_1115 | CLOST_1112 | Glycine reductase component C subunit beta; Function of homologous gene experimentally demonstrated in an other organism; enzyme. | Glycine reductase component A selenoprotein; In the first step of glycine, betaine and sarcosine reductases, the substrate is bound to component PB via a Schiff base intermediate. Then the PB-activated substrate is nucleophilically attacked by the selenol anion of component PA to transform it to a carboxymethylated selenoether and the respective amine. By action of component PC, acetyl phosphate is formed, leaving component PA in its oxidized state. Finally component PA becomes reduced by the thioredoxin system to start a new catalytic cycle of reductive deamination. | 0.930 |