1.1.3.9: galactose oxidase
This is an abbreviated version!
For detailed information about galactose oxidase, go to the full flat file.
Word Map on EC 1.1.3.9
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1.1.3.9
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neuraminidase
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copper
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borohydride
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lymphocyte
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lectin
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sialic
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tritiated
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mitogen
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concanavalin
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glycolipids
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galactosyl
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glycoconjugates
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agglutinin
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nab3h4
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ganglioside
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dendroides
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phenoxyl
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hydrazide
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sialylation
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borotritide
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graminearum
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one-electron
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sialoglycoproteins
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sialidase
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galactosamine
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copper-containing
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n-acetylgalactosaminyl
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desialylated
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naio4
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synthesis
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lactoperoxidase
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galactose-containing
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degradation
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diagnostics
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molecular biology
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energy production
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analysis
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biotechnology
- 1.1.3.9
- neuraminidase
- copper
- borohydride
- lymphocyte
- lectin
-
sialic
-
tritiated
-
mitogen
-
concanavalin
- glycolipids
-
galactosyl
- glycoconjugates
- agglutinin
-
nab3h4
- ganglioside
- dendroides
-
phenoxyl
- hydrazide
-
sialylation
-
borotritide
- graminearum
-
one-electron
-
sialoglycoproteins
- sialidase
- galactosamine
-
copper-containing
-
n-acetylgalactosaminyl
-
desialylated
- naio4
- synthesis
- lactoperoxidase
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galactose-containing
- degradation
- diagnostics
- molecular biology
- energy production
- analysis
- biotechnology
Reaction
Synonyms
AOd, At1g14430, At1g19900, At1g67290, At1g75620, At3g53950, At3g57620, At5g19580, beta-galactose oxidase, D-galactose oxidase, F5K20_250, FgrGalOx, galactose 6-oxidase, galactose oxidase, GalOx, GAO, GAOA, GAOX, GLOX1, Glox2, Glox3, GLOX4, GLOX5, GLOX6, GO, GOase, RUBY, RUBY PARTICLES IN MUCILAGE
ECTree
1.1.3.9 galactose oxidaseAdvanced search results
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results (Activating Compound
Activating Compound on EC 1.1.3.9 - galactose oxidase
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ACTIVATING COMPOUND 
ORGANISM
UNIPROT
COMMENTARY 
LITERATURE
IMAGE
K3[Fe(CN)6]
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the inactive form of GOase can be reactivated by further reduction to form the active copper(I) complex or reformation of the radical by single-electron oxidation. In practice, only reoxidation, and not further reduction, of the inactive state is performed to ensure a fully active enzyme, typically using mild chemical oxidants such as potassium ferricyanide
additional information
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in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
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additional information
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substrate itself acts as a modifier, substrate activation
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additional information
in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
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additional information
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in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
-
additional information
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in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
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additional information
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the inactive form ofGO can be oxidized to the active radical by peroxidases
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additional information
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protein based single-electron oxidants such as peroxidases can regenerate the active radical center of the enzyme
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additional information
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the concentration and type of buffer is essential for the activity of GOase, which is significantly more active in sodium phosphate buffer than in other buffers investigated
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additional information
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in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
-
additional information
in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
-
additional information
-
in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
-
additional information
in the active form of GAO, the copper atom is at oxidation state +2 and the tyrosine is in a radical form. Reduction of the tyrosine radical generates the inactive form of GAO, which can be rescued by treating the inactive form with mild oxidants, such as, hexacyanoferrate (III), iridium (IV) chloride, molybdic cyanide, sodium periodate, potassium dichromate, or copper sulfate. Peroxidases can also enhance the action of GAO by oxidizing the inactive form to the active radical form
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