1.1.99.29: pyranose dehydrogenase (acceptor)
This is an abbreviated version!
For detailed information about pyranose dehydrogenase (acceptor), go to the full flat file.
Word Map on EC 1.1.99.29
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1.1.99.29
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agaricus
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meleagris
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basidiomycete
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cellobiose
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flavin-dependent
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synthesis
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bisporus
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biofuel production
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lignocellulose
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analysis
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pqq-dependent
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benzoquinone
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coprinopsis
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glucose-methanol-choline
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2-oxidase
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osmium
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pqq
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litter-decomposing
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quinohemoprotein
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ferricenium
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bioanode
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1.1.3.10
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biotechnology
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carbohydrate-active
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corynascus
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bioelectrochemical
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1,4-benzoquinone
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molecular biology
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wood-rotting
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bioelectrocatalysis
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degradation
- 1.1.99.29
- agaricus
- meleagris
-
basidiomycete
- cellobiose
-
flavin-dependent
- synthesis
- bisporus
- biofuel production
- lignocellulose
- analysis
-
pqq-dependent
- benzoquinone
-
coprinopsis
-
glucose-methanol-choline
-
2-oxidase
-
osmium
- pqq
-
litter-decomposing
-
quinohemoprotein
- ferricenium
-
bioanode
-
1.1.3.10
- biotechnology
-
carbohydrate-active
- corynascus
-
bioelectrochemical
- 1,4-benzoquinone
- molecular biology
-
wood-rotting
-
bioelectrocatalysis
- degradation
Reaction
Synonyms
AbPDH1, dehydrogenase, pyranose 2/3-, PDH, PDH AM, PDH AX, PDH1, PDH2, PDH3, pyranose 2-dehydrogenase, pyranose 2/3-dehydrogenase, pyranose 3-dehydrogenase, pyranose dehydrogenase, pyranose dehydrogenase 1, pyranose dehydrogenase 2, pyranose dehydrogenase 3, pyranose-quinone oxidoreductase, pyranose/acceptor oxidoreductase, pyranose:acceptor oxidoreductase, pyranose:quinone acceptor 2-oxidoreductase, quinone-dependent pyranose dehydrogenase
ECTree
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Engineering
Engineering on EC 1.1.99.29 - pyranose dehydrogenase (acceptor)
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H103A
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 10 compared to the wild type enzyme
H103Y
H512A
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 100000 compared to the wild type enzyme
H556A
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 100 compared to the wild type enzyme
H556N
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 1000 compared to the wild type enzyme
N175Q
N-glycosylation site knock out mutant with reduced activity compares to the wild type enzyme
N175Q/N252Q
N-glycosylation site knock out mutant with reduced activity compares to the wild type enzyme
N252Q
N-glycosylation site knock out mutant with reduced activity compares to the wild type enzyme
N75G
N-glycosylation site knock out mutant with reduced activity compares to the wild type enzyme
N75G/N175Q/N252Q
N-glycosylation site knock out mutant with reduced activity compares to the wild type enzyme
N75G/N252Q
N-glycosylation site knock out mutant with reduced activity compares to the wild type enzyme
Q392A
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 10 compared to the wild type enzyme
V511F
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 100 compared to the wild type enzyme
V511W
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 10 compared to the wild type enzyme
Y510A
the mutant shows a reduction in catalytic efficiency for glucose by a factor of 100 compared to the wild type enzyme
-
the mutant is still able to bind FAD (non-covalently) and perform catalysis but steady-state kinetic parameters for several substrates are negatively affected
H103Y
the mutant reveals a 5fold increase of the oxygen reactivity compared to the wild type enzyme