lactoylglutathione lyase [Oryza sativa Japonica Group]
lactoylglutathione lyase( domain architecture ID 11476608)
lactoylglutathione lyase, a critical enzyme in methylglyoxal detoxification, catalyzes the conversion of of hemimercaptal, formed from methylglyoxal and glutathione, to S-lactoylglutathione
List of domain hits
Name | Accession | Description | Interval | E-value | |||||
PLN02300 | PLN02300 | lactoylglutathione lyase |
6-291 | 0e+00 | |||||
lactoylglutathione lyase : Pssm-ID: 215169 [Multi-domain] Cd Length: 286 Bit Score: 547.84 E-value: 0e+00
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Name | Accession | Description | Interval | E-value | |||||
PLN02300 | PLN02300 | lactoylglutathione lyase |
6-291 | 0e+00 | |||||
lactoylglutathione lyase Pssm-ID: 215169 [Multi-domain] Cd Length: 286 Bit Score: 547.84 E-value: 0e+00
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glyox_I | TIGR00068 | lactoylglutathione lyase; Lactoylglutathione lyase is also known as aldoketomutase and ... |
15-158 | 1.44e-78 | |||||
lactoylglutathione lyase; Lactoylglutathione lyase is also known as aldoketomutase and glyoxalase I. Glyoxylase I is a homodimer in many species. In some eukaryotes, including yeasts and plants, the orthologous protein carries a tandem duplication, is twice as long, and hits this model twice. [Central intermediary metabolism, Amino sugars, Energy metabolism, Other] Pssm-ID: 272886 Cd Length: 150 Bit Score: 235.09 E-value: 1.44e-78
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GlxI_Ni | cd16358 | Glyoxalase I that uses Ni(++) as cofactor; This family includes Escherichia coil and other ... |
25-147 | 2.83e-71 | |||||
Glyoxalase I that uses Ni(++) as cofactor; This family includes Escherichia coil and other prokaryotic glyoxalase I that uses nickel as cofactor. Glyoxalase I (also known as lactoylglutathione lyase; EC 4.4.1.5) is part of the glyoxalase system, a two-step system for detoxifying methylglyoxal, a side product of glycolysis. This system is responsible for the conversion of reactive, acyclic alpha-oxoaldehydes into the corresponding alpha-hydroxyacids and involves 2 enzymes, glyoxalase I and II. Glyoxalase I catalyses an intramolecular redox reaction of the hemithioacetal (formed from methylglyoxal and glutathione) to form the thioester, S-D-lactoylglutathione. This reaction involves the transfer of two hydrogen atoms from C1 to C2 of the methylglyoxal, and proceeds via an ene-diol intermediate. Glyoxalase I has a requirement for bound metal ions for catalysis. Eukaryotic glyoxalase I prefers the divalent cation zinc as cofactor, whereas Escherichia coil and other prokaryotic glyoxalase I uses nickel. However, eukaryotic Trypanosomatid parasites also use nickel as a cofactor, which could possibly be explained by acquiring their GLOI gene by horizontal gene transfer. Human glyoxalase I is a two-domain enzyme and it has the structure of a domain-swapped dimer with two active sites located at the dimer interface. In yeast, in various plants, insects and Plasmodia, glyoxalase I is four-domain, possibly the result of a further gene duplication and an additional gene fusing event. Pssm-ID: 319965 [Multi-domain] Cd Length: 122 Bit Score: 215.34 E-value: 2.83e-71
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GloA | COG0346 | Catechol 2,3-dioxygenase or related enzyme, vicinal oxygen chelate (VOC) family [Secondary ... |
23-151 | 2.40e-26 | |||||
Catechol 2,3-dioxygenase or related enzyme, vicinal oxygen chelate (VOC) family [Secondary metabolites biosynthesis, transport and catabolism]; Pssm-ID: 440115 [Multi-domain] Cd Length: 125 Bit Score: 100.07 E-value: 2.40e-26
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Glyoxalase | pfam00903 | Glyoxalase/Bleomycin resistance protein/Dioxygenase superfamily; |
24-146 | 1.21e-25 | |||||
Glyoxalase/Bleomycin resistance protein/Dioxygenase superfamily; Pssm-ID: 395724 [Multi-domain] Cd Length: 121 Bit Score: 98.29 E-value: 1.21e-25
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Name | Accession | Description | Interval | E-value | |||||
PLN02300 | PLN02300 | lactoylglutathione lyase |
6-291 | 0e+00 | |||||
lactoylglutathione lyase Pssm-ID: 215169 [Multi-domain] Cd Length: 286 Bit Score: 547.84 E-value: 0e+00
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glyox_I | TIGR00068 | lactoylglutathione lyase; Lactoylglutathione lyase is also known as aldoketomutase and ... |
15-158 | 1.44e-78 | |||||
lactoylglutathione lyase; Lactoylglutathione lyase is also known as aldoketomutase and glyoxalase I. Glyoxylase I is a homodimer in many species. In some eukaryotes, including yeasts and plants, the orthologous protein carries a tandem duplication, is twice as long, and hits this model twice. [Central intermediary metabolism, Amino sugars, Energy metabolism, Other] Pssm-ID: 272886 Cd Length: 150 Bit Score: 235.09 E-value: 1.44e-78
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GlxI_Ni | cd16358 | Glyoxalase I that uses Ni(++) as cofactor; This family includes Escherichia coil and other ... |
25-147 | 2.83e-71 | |||||
Glyoxalase I that uses Ni(++) as cofactor; This family includes Escherichia coil and other prokaryotic glyoxalase I that uses nickel as cofactor. Glyoxalase I (also known as lactoylglutathione lyase; EC 4.4.1.5) is part of the glyoxalase system, a two-step system for detoxifying methylglyoxal, a side product of glycolysis. This system is responsible for the conversion of reactive, acyclic alpha-oxoaldehydes into the corresponding alpha-hydroxyacids and involves 2 enzymes, glyoxalase I and II. Glyoxalase I catalyses an intramolecular redox reaction of the hemithioacetal (formed from methylglyoxal and glutathione) to form the thioester, S-D-lactoylglutathione. This reaction involves the transfer of two hydrogen atoms from C1 to C2 of the methylglyoxal, and proceeds via an ene-diol intermediate. Glyoxalase I has a requirement for bound metal ions for catalysis. Eukaryotic glyoxalase I prefers the divalent cation zinc as cofactor, whereas Escherichia coil and other prokaryotic glyoxalase I uses nickel. However, eukaryotic Trypanosomatid parasites also use nickel as a cofactor, which could possibly be explained by acquiring their GLOI gene by horizontal gene transfer. Human glyoxalase I is a two-domain enzyme and it has the structure of a domain-swapped dimer with two active sites located at the dimer interface. In yeast, in various plants, insects and Plasmodia, glyoxalase I is four-domain, possibly the result of a further gene duplication and an additional gene fusing event. Pssm-ID: 319965 [Multi-domain] Cd Length: 122 Bit Score: 215.34 E-value: 2.83e-71
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GlxI_Ni | cd16358 | Glyoxalase I that uses Ni(++) as cofactor; This family includes Escherichia coil and other ... |
156-281 | 3.34e-66 | |||||
Glyoxalase I that uses Ni(++) as cofactor; This family includes Escherichia coil and other prokaryotic glyoxalase I that uses nickel as cofactor. Glyoxalase I (also known as lactoylglutathione lyase; EC 4.4.1.5) is part of the glyoxalase system, a two-step system for detoxifying methylglyoxal, a side product of glycolysis. This system is responsible for the conversion of reactive, acyclic alpha-oxoaldehydes into the corresponding alpha-hydroxyacids and involves 2 enzymes, glyoxalase I and II. Glyoxalase I catalyses an intramolecular redox reaction of the hemithioacetal (formed from methylglyoxal and glutathione) to form the thioester, S-D-lactoylglutathione. This reaction involves the transfer of two hydrogen atoms from C1 to C2 of the methylglyoxal, and proceeds via an ene-diol intermediate. Glyoxalase I has a requirement for bound metal ions for catalysis. Eukaryotic glyoxalase I prefers the divalent cation zinc as cofactor, whereas Escherichia coil and other prokaryotic glyoxalase I uses nickel. However, eukaryotic Trypanosomatid parasites also use nickel as a cofactor, which could possibly be explained by acquiring their GLOI gene by horizontal gene transfer. Human glyoxalase I is a two-domain enzyme and it has the structure of a domain-swapped dimer with two active sites located at the dimer interface. In yeast, in various plants, insects and Plasmodia, glyoxalase I is four-domain, possibly the result of a further gene duplication and an additional gene fusing event. Pssm-ID: 319965 [Multi-domain] Cd Length: 122 Bit Score: 202.63 E-value: 3.34e-66
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glyox_I | TIGR00068 | lactoylglutathione lyase; Lactoylglutathione lyase is also known as aldoketomutase and ... |
156-283 | 2.34e-51 | |||||
lactoylglutathione lyase; Lactoylglutathione lyase is also known as aldoketomutase and glyoxalase I. Glyoxylase I is a homodimer in many species. In some eukaryotes, including yeasts and plants, the orthologous protein carries a tandem duplication, is twice as long, and hits this model twice. [Central intermediary metabolism, Amino sugars, Energy metabolism, Other] Pssm-ID: 272886 Cd Length: 150 Bit Score: 165.75 E-value: 2.34e-51
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PRK10291 | PRK10291 | glyoxalase I; Provisional |
31-148 | 4.95e-39 | |||||
glyoxalase I; Provisional Pssm-ID: 182358 Cd Length: 129 Bit Score: 133.22 E-value: 4.95e-39
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PRK10291 | PRK10291 | glyoxalase I; Provisional |
160-285 | 4.74e-34 | |||||
glyoxalase I; Provisional Pssm-ID: 182358 Cd Length: 129 Bit Score: 120.51 E-value: 4.74e-34
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GlxI_Zn | cd07233 | Glyoxalase I that uses Zn(++) as cofactor; This family includes eukaryotic glyoxalase I that ... |
25-147 | 4.62e-27 | |||||
Glyoxalase I that uses Zn(++) as cofactor; This family includes eukaryotic glyoxalase I that prefers the divalent cation zinc as cofactor. Glyoxalase I (also known as lactoylglutathione lyase; EC 4.4.1.5) is part of the glyoxalase system, a two-step system for detoxifying methylglyoxal, a side product of glycolysis. This system is responsible for the conversion of reactive, acyclic alpha-oxoaldehydes into the corresponding alpha-hydroxyacids and involves 2 enzymes, glyoxalase I and II. Glyoxalase I catalyses an intramolecular redox reaction of the hemithioacetal (formed from methylglyoxal and glutathione) to form the thioester, S-D-lactoylglutathione. This reaction involves the transfer of two hydrogen atoms from C1 to C2 of the methylglyoxal, and proceeds via an ene-diol intermediate. Glyoxalase I has a requirement for bound metal ions for catalysis. Eukaryotic glyoxalase I prefers the divalent cation zinc as cofactor, whereas Escherichia coil and other prokaryotic glyoxalase I uses nickel. However, eukaryotic Trypanosomatid parasites also use nickel as a cofactor, which could possibly be explained by acquiring their GLOI gene by horizontal gene transfer. Human glyoxalase I is a two-domain enzyme and it has the structure of a domain-swapped dimer with two active sites located at the dimer interface. In yeast, in various plants, insects and Plasmodia, glyoxalase I is four-domain, possibly the result of a further gene duplication and an additional gene fusing event. Pssm-ID: 319900 [Multi-domain] Cd Length: 142 Bit Score: 102.79 E-value: 4.62e-27
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GloA | COG0346 | Catechol 2,3-dioxygenase or related enzyme, vicinal oxygen chelate (VOC) family [Secondary ... |
23-151 | 2.40e-26 | |||||
Catechol 2,3-dioxygenase or related enzyme, vicinal oxygen chelate (VOC) family [Secondary metabolites biosynthesis, transport and catabolism]; Pssm-ID: 440115 [Multi-domain] Cd Length: 125 Bit Score: 100.07 E-value: 2.40e-26
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Glyoxalase | pfam00903 | Glyoxalase/Bleomycin resistance protein/Dioxygenase superfamily; |
24-146 | 1.21e-25 | |||||
Glyoxalase/Bleomycin resistance protein/Dioxygenase superfamily; Pssm-ID: 395724 [Multi-domain] Cd Length: 121 Bit Score: 98.29 E-value: 1.21e-25
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GloA | COG0346 | Catechol 2,3-dioxygenase or related enzyme, vicinal oxygen chelate (VOC) family [Secondary ... |
159-285 | 1.07e-24 | |||||
Catechol 2,3-dioxygenase or related enzyme, vicinal oxygen chelate (VOC) family [Secondary metabolites biosynthesis, transport and catabolism]; Pssm-ID: 440115 [Multi-domain] Cd Length: 125 Bit Score: 95.83 E-value: 1.07e-24
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GLOD4_N | cd08358 | N-terminal domain of human glyoxalase domain-containing protein 4 and similar proteins; ... |
23-149 | 9.87e-23 | |||||
N-terminal domain of human glyoxalase domain-containing protein 4 and similar proteins; Uncharacterized subfamily of the vicinal oxygen chelate (VOC) superfamily contains human glyoxalase domain-containing protein 4 and similar proteins. VOC is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319946 Cd Length: 127 Bit Score: 90.89 E-value: 9.87e-23
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GlxI_Zn | cd07233 | Glyoxalase I that uses Zn(++) as cofactor; This family includes eukaryotic glyoxalase I that ... |
158-276 | 9.02e-22 | |||||
Glyoxalase I that uses Zn(++) as cofactor; This family includes eukaryotic glyoxalase I that prefers the divalent cation zinc as cofactor. Glyoxalase I (also known as lactoylglutathione lyase; EC 4.4.1.5) is part of the glyoxalase system, a two-step system for detoxifying methylglyoxal, a side product of glycolysis. This system is responsible for the conversion of reactive, acyclic alpha-oxoaldehydes into the corresponding alpha-hydroxyacids and involves 2 enzymes, glyoxalase I and II. Glyoxalase I catalyses an intramolecular redox reaction of the hemithioacetal (formed from methylglyoxal and glutathione) to form the thioester, S-D-lactoylglutathione. This reaction involves the transfer of two hydrogen atoms from C1 to C2 of the methylglyoxal, and proceeds via an ene-diol intermediate. Glyoxalase I has a requirement for bound metal ions for catalysis. Eukaryotic glyoxalase I prefers the divalent cation zinc as cofactor, whereas Escherichia coil and other prokaryotic glyoxalase I uses nickel. However, eukaryotic Trypanosomatid parasites also use nickel as a cofactor, which could possibly be explained by acquiring their GLOI gene by horizontal gene transfer. Human glyoxalase I is a two-domain enzyme and it has the structure of a domain-swapped dimer with two active sites located at the dimer interface. In yeast, in various plants, insects and Plasmodia, glyoxalase I is four-domain, possibly the result of a further gene duplication and an additional gene fusing event. Pssm-ID: 319900 [Multi-domain] Cd Length: 142 Bit Score: 88.54 E-value: 9.02e-22
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Glyoxalase | pfam00903 | Glyoxalase/Bleomycin resistance protein/Dioxygenase superfamily; |
158-280 | 2.31e-18 | |||||
Glyoxalase/Bleomycin resistance protein/Dioxygenase superfamily; Pssm-ID: 395724 [Multi-domain] Cd Length: 121 Bit Score: 79.03 E-value: 2.31e-18
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GLOD4_N | cd08358 | N-terminal domain of human glyoxalase domain-containing protein 4 and similar proteins; ... |
161-282 | 7.79e-17 | |||||
N-terminal domain of human glyoxalase domain-containing protein 4 and similar proteins; Uncharacterized subfamily of the vicinal oxygen chelate (VOC) superfamily contains human glyoxalase domain-containing protein 4 and similar proteins. VOC is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319946 Cd Length: 127 Bit Score: 75.09 E-value: 7.79e-17
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PLN03042 | PLN03042 | Lactoylglutathione lyase; Provisional |
158-282 | 1.58e-16 | |||||
Lactoylglutathione lyase; Provisional Pssm-ID: 215548 Cd Length: 185 Bit Score: 75.63 E-value: 1.58e-16
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PLN02367 | PLN02367 | lactoylglutathione lyase |
158-282 | 7.26e-16 | |||||
lactoylglutathione lyase Pssm-ID: 177995 Cd Length: 233 Bit Score: 75.04 E-value: 7.26e-16
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PLN02367 | PLN02367 | lactoylglutathione lyase |
29-146 | 8.43e-16 | |||||
lactoylglutathione lyase Pssm-ID: 177995 Cd Length: 233 Bit Score: 75.04 E-value: 8.43e-16
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PLN03042 | PLN03042 | Lactoylglutathione lyase; Provisional |
1-147 | 3.65e-15 | |||||
Lactoylglutathione lyase; Provisional Pssm-ID: 215548 Cd Length: 185 Bit Score: 72.16 E-value: 3.65e-15
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VOC | cd06587 | vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed ... |
27-146 | 1.15e-14 | |||||
vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC is found in a variety of structurally related metalloproteins, including the type I extradiol dioxygenases, glyoxalase I and a group of antibiotic resistance proteins. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). Type I extradiol dioxygenases catalyze the incorporation of both atoms of molecular oxygen into aromatic substrates, which results in the cleavage of aromatic rings. They are key enzymes in the degradation of aromatic compounds. Type I extradiol dioxygenases include class I and class II enzymes. Class I and II enzymes show sequence similarity; the two-domain class II enzymes evolved from a class I enzyme through gene duplication. Glyoxylase I catalyzes the glutathione-dependent inactivation of toxic methylglyoxal, requiring zinc or nickel ions for activity. The antibiotic resistance proteins in this family use a variety of mechanisms to block the function of antibiotics. Bleomycin resistance protein (BLMA) sequesters bleomycin's activity by directly binding to it. Whereas, three types of fosfomycin resistance proteins employ different mechanisms to render fosfomycin inactive by modifying the fosfomycin molecule. Although the proteins in this superfamily are functionally distinct, their structures are similar. The difference among the three dimensional structures of the three types of proteins in this superfamily is interesting from an evolutionary perspective. Both glyoxalase I and BLMA show domain swapping between subunits. However, there is no domain swapping for type 1 extradiol dioxygenases. Pssm-ID: 319898 [Multi-domain] Cd Length: 112 Bit Score: 68.71 E-value: 1.15e-14
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VOC | cd06587 | vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed ... |
159-280 | 1.84e-14 | |||||
vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC is found in a variety of structurally related metalloproteins, including the type I extradiol dioxygenases, glyoxalase I and a group of antibiotic resistance proteins. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). Type I extradiol dioxygenases catalyze the incorporation of both atoms of molecular oxygen into aromatic substrates, which results in the cleavage of aromatic rings. They are key enzymes in the degradation of aromatic compounds. Type I extradiol dioxygenases include class I and class II enzymes. Class I and II enzymes show sequence similarity; the two-domain class II enzymes evolved from a class I enzyme through gene duplication. Glyoxylase I catalyzes the glutathione-dependent inactivation of toxic methylglyoxal, requiring zinc or nickel ions for activity. The antibiotic resistance proteins in this family use a variety of mechanisms to block the function of antibiotics. Bleomycin resistance protein (BLMA) sequesters bleomycin's activity by directly binding to it. Whereas, three types of fosfomycin resistance proteins employ different mechanisms to render fosfomycin inactive by modifying the fosfomycin molecule. Although the proteins in this superfamily are functionally distinct, their structures are similar. The difference among the three dimensional structures of the three types of proteins in this superfamily is interesting from an evolutionary perspective. Both glyoxalase I and BLMA show domain swapping between subunits. However, there is no domain swapping for type 1 extradiol dioxygenases. Pssm-ID: 319898 [Multi-domain] Cd Length: 112 Bit Score: 68.32 E-value: 1.84e-14
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VOC | COG3324 | Lactoylglutathione lyase-related enzyme, vicinal oxygen chelate (VOC) family [General function ... |
153-275 | 2.74e-10 | |||||
Lactoylglutathione lyase-related enzyme, vicinal oxygen chelate (VOC) family [General function prediction only]; Pssm-ID: 442553 [Multi-domain] Cd Length: 119 Bit Score: 56.95 E-value: 2.74e-10
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CatE | COG2514 | Catechol-2,3-dioxygenase [Secondary metabolites biosynthesis, transport and catabolism]; |
24-181 | 2.85e-10 | |||||
Catechol-2,3-dioxygenase [Secondary metabolites biosynthesis, transport and catabolism]; Pssm-ID: 442004 [Multi-domain] Cd Length: 141 Bit Score: 57.28 E-value: 2.85e-10
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MMCE | cd07249 | Methylmalonyl-CoA epimerase (MMCE); MMCE, also called methylmalonyl-CoA racemase (EC 5.1.99.1) ... |
156-281 | 1.23e-08 | |||||
Methylmalonyl-CoA epimerase (MMCE); MMCE, also called methylmalonyl-CoA racemase (EC 5.1.99.1) interconverts (2R)-methylmalonyl-CoA and (2S)-methylmalonyl-CoA. MMCE has been found in bacteria, archaea, and in animals. In eukaryotes, MMCE is an essential enzyme in a pathway that converts propionyl-CoA to succinyl-CoA, and is important in the breakdown of odd-chain length fatty acids, branched-chain amino acids, and other metabolites. In bacteria, MMCE participates in the reverse pathway for propionate fermentation, glyoxylate regeneration, and the biosynthesis of polyketide antibiotics. MMCE is closely related to glyoxalase I and type I extradiol dioxygenases. Pssm-ID: 319912 [Multi-domain] Cd Length: 127 Bit Score: 52.19 E-value: 1.23e-08
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ED_TypeI_classII_N | cd16360 | N-terminal domain of type I, class II extradiol dioxygenases; This family contains the ... |
27-147 | 2.26e-07 | |||||
N-terminal domain of type I, class II extradiol dioxygenases; This family contains the N-terminal non-catalytic domain of type I, class II extradiol dioxygenases. Dioxygenases catalyze the incorporation of both atoms of molecular oxygen into substrates using a variety of reaction mechanisms, resulting in the cleavage of aromatic rings. Two major groups of dioxygenases have been identified according to the cleavage site; extradiol enzymes cleave the aromatic ring between a hydroxylated carbon and an adjacent non-hydroxylated carbon, whereas intradiol enzymes cleave the aromatic ring between two hydroxyl groups. Extradiol dioxygenases are classified into type I and type II enzymes. Type I extradiol dioxygenases include class I and class II enzymes. These two classes of enzymes show sequence similarity; the two-domain class II enzymes evolved from a class I enzyme through gene duplication. The extradiol dioxygenases represented in this family are type I, class II enzymes, and are composed of the N- and C-terminal domains of similar structure fold, resulting from an ancient gene duplication. The active site is located in a funnel-shaped space of the C-terminal domain. A catalytically essential metal, Fe(II) or Mn(II), presents in all the enzymes in this family. Pssm-ID: 319967 Cd Length: 111 Bit Score: 48.47 E-value: 2.26e-07
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SgaA_N_like | cd07247 | N-terminal domain of Streptomyces griseus SgaA and similar domains; SgaA suppresses the growth ... |
163-275 | 4.52e-07 | |||||
N-terminal domain of Streptomyces griseus SgaA and similar domains; SgaA suppresses the growth disturbances caused by high osmolarity and a high concentration of A-factor, a microbial hormone, during the early growth phase in Streptomyces griseus. A-factor (2-isocapryloyl-3R-hydroxymethyl-gamma-butyrolactone) controls morphological differentiation and secondary metabolism in Streptomyces griseus. It is a chemical signaling molecule that at a very low concentration acts as a switch for yellow pigment production, aerial mycelium formation, streptomycin production, and streptomycin resistance. The structure and amino acid sequence of SgaA are closely related to a group of antibiotics resistance proteins, including bleomycin resistance protein, mitomycin resistance protein, and fosfomycin resistance proteins. SgaA might also function as a streptomycin resistance protein. Pssm-ID: 319911 [Multi-domain] Cd Length: 114 Bit Score: 47.64 E-value: 4.52e-07
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VOC_like | cd07262 | uncharacterized subfamily of vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate ... |
159-278 | 2.09e-06 | |||||
uncharacterized subfamily of vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319923 [Multi-domain] Cd Length: 121 Bit Score: 46.07 E-value: 2.09e-06
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CatE | COG2514 | Catechol-2,3-dioxygenase [Secondary metabolites biosynthesis, transport and catabolism]; |
159-275 | 2.42e-06 | |||||
Catechol-2,3-dioxygenase [Secondary metabolites biosynthesis, transport and catabolism]; Pssm-ID: 442004 [Multi-domain] Cd Length: 141 Bit Score: 46.10 E-value: 2.42e-06
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VOC | COG3324 | Lactoylglutathione lyase-related enzyme, vicinal oxygen chelate (VOC) family [General function ... |
24-151 | 3.50e-06 | |||||
Lactoylglutathione lyase-related enzyme, vicinal oxygen chelate (VOC) family [General function prediction only]; Pssm-ID: 442553 [Multi-domain] Cd Length: 119 Bit Score: 45.40 E-value: 3.50e-06
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GLOD4_C | cd16357 | C-terminal domain of human glyoxalase domain-containing protein 4 and similar proteins; ... |
158-203 | 3.22e-05 | |||||
C-terminal domain of human glyoxalase domain-containing protein 4 and similar proteins; Uncharacterized subfamily of the vicinal oxygen chelate (VOC) superfamily contains human glyoxalase domain-containing protein 4 and similar proteins. VOC is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319964 Cd Length: 114 Bit Score: 42.16 E-value: 3.22e-05
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VOC_like | cd07264 | uncharacterized subfamily of vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate ... |
158-275 | 1.23e-04 | |||||
uncharacterized subfamily of vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319925 [Multi-domain] Cd Length: 118 Bit Score: 40.78 E-value: 1.23e-04
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HppD | COG3185 | 4-hydroxyphenylpyruvate dioxygenase and related hemolysins [Amino acid transport and ... |
91-282 | 7.89e-04 | |||||
4-hydroxyphenylpyruvate dioxygenase and related hemolysins [Amino acid transport and metabolism, General function prediction only]; Pssm-ID: 442418 [Multi-domain] Cd Length: 333 Bit Score: 40.26 E-value: 7.89e-04
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GLOD5 | cd07253 | Human glyoxalase domain-containing protein 5 and similar proteins; Uncharacterized subfamily ... |
23-146 | 9.90e-04 | |||||
Human glyoxalase domain-containing protein 5 and similar proteins; Uncharacterized subfamily of VOC family contains human glyoxalase domain-containing protein 5 and similar proteins. The vicinal oxygen chelate (VOC) superfamily is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319916 [Multi-domain] Cd Length: 123 Bit Score: 38.36 E-value: 9.90e-04
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MMCE | cd07249 | Methylmalonyl-CoA epimerase (MMCE); MMCE, also called methylmalonyl-CoA racemase (EC 5.1.99.1) ... |
32-148 | 1.82e-03 | |||||
Methylmalonyl-CoA epimerase (MMCE); MMCE, also called methylmalonyl-CoA racemase (EC 5.1.99.1) interconverts (2R)-methylmalonyl-CoA and (2S)-methylmalonyl-CoA. MMCE has been found in bacteria, archaea, and in animals. In eukaryotes, MMCE is an essential enzyme in a pathway that converts propionyl-CoA to succinyl-CoA, and is important in the breakdown of odd-chain length fatty acids, branched-chain amino acids, and other metabolites. In bacteria, MMCE participates in the reverse pathway for propionate fermentation, glyoxylate regeneration, and the biosynthesis of polyketide antibiotics. MMCE is closely related to glyoxalase I and type I extradiol dioxygenases. Pssm-ID: 319912 [Multi-domain] Cd Length: 127 Bit Score: 37.56 E-value: 1.82e-03
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PhnB | COG2764 | Zn-dependent glyoxalase, PhnB family [Energy production and conversion]; |
161-275 | 2.06e-03 | |||||
Zn-dependent glyoxalase, PhnB family [Energy production and conversion]; Pssm-ID: 442048 [Multi-domain] Cd Length: 118 Bit Score: 37.14 E-value: 2.06e-03
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VOC_like | cd07251 | uncharacterized subfamily of vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate ... |
32-146 | 4.96e-03 | |||||
uncharacterized subfamily of vicinal oxygen chelate (VOC) family; The vicinal oxygen chelate (VOC) superfamily is composed of structurally related proteins with paired beta.alpha.beta.beta.beta motifs that provide a metal coordination environment with two or three open or readily accessible coordination sites to promote direct electrophilic participation of the metal ion in catalysis. VOC domain is found in a variety of structurally related metalloproteins, including the bleomycin resistance protein, glyoxalase I, and type I ring-cleaving dioxygenases. A bound metal ion is required for protein activities for the members of this superfamily. A variety of metal ions have been found in the catalytic centers of these proteins including Fe(II), Mn(II), Zn(II), Ni(II) and Mg(II). The protein superfamily contains members with or without domain swapping. The proteins of this family share three conserved metal binding amino acids with the type I extradiol dioxygenases, which shows no domain swapping. Pssm-ID: 319914 [Multi-domain] Cd Length: 120 Bit Score: 36.12 E-value: 4.96e-03
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ED_TypeI_classII_C | cd08343 | C-terminal domain of type I, class II extradiol dioxygenases, catalytic domain; This family ... |
27-155 | 8.04e-03 | |||||
C-terminal domain of type I, class II extradiol dioxygenases, catalytic domain; This family contains the C-terminal, catalytic domain of type I, class II extradiol dioxygenases. Dioxygenases catalyze the incorporation of both atoms of molecular oxygen into substrates using a variety of reaction mechanisms, resulting in the cleavage of aromatic rings. Two major groups of dioxygenases have been identified according to the cleavage site; extradiol enzymes cleave the aromatic ring between a hydroxylated carbon and an adjacent non-hydroxylated carbon, whereas intradiol enzymes cleave the aromatic ring between two hydroxyl groups. Extradiol dioxygenases are classified into type I and type II enzymes. Type I extradiol dioxygenases include class I and class II enzymes. These two classes of enzymes show sequence similarity; the two-domain class II enzymes evolved from a class I enzyme through gene duplication. The extradiol dioxygenases represented in this family are type I, class II enzymes, and are composed of the N- and C-terminal domains of similar structure fold, resulting from an ancient gene duplication. The active site is located in a funnel-shaped space of the C-terminal domain. A catalytically essential metal, Fe(II) or Mn(II), presents in all the enzymes in this family. Pssm-ID: 319931 Cd Length: 132 Bit Score: 35.76 E-value: 8.04e-03
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