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Literature summary for 2.7.9.4 extracted from

  • Adegbaju, M.S.; Morenikeji, O.B.; Borrego, E.J.; Hudson, A.O.; Thomas, B.N.
    Differential evolution of alpha-glucan water dikinase (GWD) in plants (2020), Plants (Basel), 9, 1101 .
    View publication on PubMed

Molecular Weight [Da]

Molecular Weight [Da] Molecular Weight Maximum [Da] Comment Organism
118300
-
calculated from sequence Chromochloris zofingiensis
134156
-
calculated from sequence Oryza sativa Japonica Group
135517
-
calculated from sequence Auxenochlorella protothecoides
138500
-
calculated from sequence Manihot esculenta
140157
-
calculated from sequence Myagrum perfoliatum
140321
-
calculated from sequence Theobroma cacao
141040
-
calculated from sequence Citrus clementina
144304
-
calculated from sequence Malcolmia maritima
144354
-
calculated from sequence Brassica rapa
144770
-
calculated from sequence Porphyra umbilicalis
144811
-
calculated from sequence Arabidopsis thaliana
144939
-
calculated from sequence Capsella rubella
146156
-
calculated from sequence Gossypium hirsutum
146401
-
calculated Ricinus communis
146933
-
calculated from sequence Amborella trichopoda
149512
-
calculated from sequence Linum usitatissimum
150301
-
calculated from sequence Chondrus crispus
154082
-
calculated from sequence Triticum aestivum
154283
-
calculated from sequence Chlamydomonas reinhardtii
155592
-
calculated from sequence Fragaria vesca
156105
-
calculated from sequence Amaranthus hypochondriacus
156626
-
calculated from sequence Marchantia polymorpha
156915
-
calculated from sequence Malus domestica
157590
-
calculated from sequence Hordeum vulgare
159732
-
calculated from sequence Solanum chacoense
162600
-
calculated from sequence Brachypodium distachyon
163261
-
calculated from sequence Solanum tuberosum
163391
-
calculated from sequence Panicum miliaceum
163426
-
calculated from sequence Nicotiana tabacum
163484
-
calculated from sequence Helianthus annuus
163484
-
calculated from sequence Phaseolus vulgaris
163535
-
calculated from sequence Vigna unguiculata
163598
-
calculated from sequence Capsicum annuum
163761
-
calculated from sequence Glycine max
163791
-
calculated from sequence Solanum lycopersicum
163962
-
calculated from sequence Zea mays
164264
-
calculated from sequence Sorghum bicolor
164902
-
calculation from sequence Cucumis melo
165093
-
calculated from sequence Ananas comosus
165452
-
calculated from sequence Vitis vinifera
165508
-
calculated from sequence Coffea arabica
165710
-
calculated from sequence Carica papaya
169131
-
calculated from sequence Dioscorea alata
170633
-
calculated from sequence Sphagnum magellanicum
181353
-
calculated from sequence Musa acuminata subsp. malaccensis

Organism

Organism UniProt Comment Textmining
Amaranthus hypochondriacus
-
-
-
Amborella trichopoda
-
-
-
Ananas comosus A0A199UE45
-
-
Arabidopsis thaliana Q9STV0
-
-
Auxenochlorella protothecoides A0A087SJ57
-
-
Brachypodium distachyon
-
-
-
Brassica rapa
-
-
-
Capsella rubella
-
-
-
Capsicum annuum A0A2G2YEX8
-
-
Carica papaya
-
-
-
Chlamydomonas reinhardtii A0A2K3DIY0
-
-
Chondrus crispus R7QKK2
-
-
Chromochloris zofingiensis
-
-
-
Citrus clementina
-
-
-
Coffea arabica
-
-
-
Cucumis melo A0A1S3BEF3
-
-
Dioscorea alata
-
-
-
Fragaria vesca
-
-
-
Glycine max I1KXC2
-
-
Gossypium hirsutum
-
-
-
Helianthus annuus A0A251T3N7
-
-
Hordeum vulgare
-
-
-
Linum usitatissimum
-
-
-
Malcolmia maritima
-
-
-
Malus domestica
-
-
-
Manihot esculenta V9K6M5
-
-
Marchantia polymorpha A0A2R6X3K3
-
-
Musa acuminata subsp. malaccensis
-
-
-
Myagrum perfoliatum
-
-
-
Nicotiana tabacum A0A1S3YFK2
-
-
Oryza sativa Japonica Group XM_015787980.2
-
-
Panicum miliaceum A0A3L6S324
-
-
Phaseolus vulgaris V7C6L3
-
-
Physcomitrium patens
-
-
-
Porphyra umbilicalis
-
-
-
Ricinus communis XP_015579774.1
-
-
Selaginella moellendorffii
-
-
-
Solanum chacoense A0A0V0IZQ3
-
-
Solanum lycopersicum B5B3R3
-
-
Solanum tuberosum Q9AWA5
-
-
Sorghum bicolor C5Z316
-
-
Sphagnum magellanicum
-
-
-
Theobroma cacao A0A061FDU7
-
-
Triticum aestivum
-
-
-
Vigna unguiculata
-
-
-
Vitis vinifera D7TDL2
-
-
Zea mays A0A1D6LTL9
-
-

Substrates and Products (Substrate)

Substrates Comment Substrates Organism Products Comment (Products) Rev. Reac.
ATP + starch + H2O
-
Triticum aestivum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Hordeum vulgare AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Gossypium hirsutum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Vigna unguiculata AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Amaranthus hypochondriacus AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Linum usitatissimum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Physcomitrium patens AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Brassica rapa AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Carica papaya AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Malus domestica AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Sphagnum magellanicum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Fragaria vesca AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Coffea arabica AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Porphyra umbilicalis AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Solanum tuberosum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Citrus clementina AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Selaginella moellendorffii AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Capsella rubella AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Solanum lycopersicum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Arabidopsis thaliana AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Brachypodium distachyon AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Chromochloris zofingiensis AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Dioscorea alata AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Chondrus crispus AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Auxenochlorella protothecoides AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Chlamydomonas reinhardtii AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Marchantia polymorpha AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Manihot esculenta AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Ricinus communis AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Theobroma cacao AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Panicum miliaceum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Musa acuminata subsp. malaccensis AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Ananas comosus AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Sorghum bicolor AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Zea mays AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Oryza sativa Japonica Group AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Helianthus annuus AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Nicotiana tabacum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Capsicum annuum AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Solanum chacoense AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Vitis vinifera AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Cucumis melo AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Glycine max AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Phaseolus vulgaris AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Amborella trichopoda AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Malcolmia maritima AMP + phosphorylated starch + phosphate
-
?
ATP + starch + H2O
-
Myagrum perfoliatum AMP + phosphorylated starch + phosphate
-
?

Synonyms

Synonyms Comment Organism
alpha-glucan water dikinase
-
Triticum aestivum
alpha-glucan water dikinase
-
Hordeum vulgare
alpha-glucan water dikinase
-
Gossypium hirsutum
alpha-glucan water dikinase
-
Vigna unguiculata
alpha-glucan water dikinase
-
Amaranthus hypochondriacus
alpha-glucan water dikinase
-
Linum usitatissimum
alpha-glucan water dikinase
-
Physcomitrium patens
alpha-glucan water dikinase
-
Brassica rapa
alpha-glucan water dikinase
-
Carica papaya
alpha-glucan water dikinase
-
Malus domestica
alpha-glucan water dikinase
-
Sphagnum magellanicum
alpha-glucan water dikinase
-
Fragaria vesca
alpha-glucan water dikinase
-
Coffea arabica
alpha-glucan water dikinase
-
Porphyra umbilicalis
alpha-glucan water dikinase
-
Solanum tuberosum
alpha-glucan water dikinase
-
Citrus clementina
alpha-glucan water dikinase
-
Selaginella moellendorffii
alpha-glucan water dikinase
-
Capsella rubella
alpha-glucan water dikinase
-
Solanum lycopersicum
alpha-glucan water dikinase
-
Arabidopsis thaliana
alpha-glucan water dikinase
-
Brachypodium distachyon
alpha-glucan water dikinase
-
Chromochloris zofingiensis
alpha-glucan water dikinase
-
Dioscorea alata
alpha-glucan water dikinase
-
Chondrus crispus
alpha-glucan water dikinase
-
Auxenochlorella protothecoides
alpha-glucan water dikinase
-
Chlamydomonas reinhardtii
alpha-glucan water dikinase
-
Marchantia polymorpha
alpha-glucan water dikinase
-
Manihot esculenta
alpha-glucan water dikinase
-
Ricinus communis
alpha-glucan water dikinase
-
Theobroma cacao
alpha-glucan water dikinase
-
Panicum miliaceum
alpha-glucan water dikinase
-
Musa acuminata subsp. malaccensis
alpha-glucan water dikinase
-
Ananas comosus
alpha-glucan water dikinase
-
Sorghum bicolor
alpha-glucan water dikinase
-
Zea mays
alpha-glucan water dikinase
-
Oryza sativa Japonica Group
alpha-glucan water dikinase
-
Helianthus annuus
alpha-glucan water dikinase
-
Nicotiana tabacum
alpha-glucan water dikinase
-
Capsicum annuum
alpha-glucan water dikinase
-
Solanum chacoense
alpha-glucan water dikinase
-
Vitis vinifera
alpha-glucan water dikinase
-
Cucumis melo
alpha-glucan water dikinase
-
Glycine max
alpha-glucan water dikinase
-
Phaseolus vulgaris
alpha-glucan water dikinase
-
Amborella trichopoda
alpha-glucan water dikinase
-
Malcolmia maritima
alpha-glucan water dikinase
-
Myagrum perfoliatum
GWD
-
Triticum aestivum
GWD
-
Hordeum vulgare
GWD
-
Physcomitrium patens
GWD
-
Malus domestica
GWD
-
Fragaria vesca
GWD
-
Solanum tuberosum
GWD
-
Selaginella moellendorffii
GWD
-
Solanum lycopersicum
GWD
-
Brachypodium distachyon
GWD
-
Zea mays
GWD
-
Oryza sativa Japonica Group
GWD
-
Helianthus annuus
GWD
-
Solanum chacoense
GWD
-
Vitis vinifera
GWD
-
Cucumis melo
GWD
-
Glycine max
GWD
-
Phaseolus vulgaris
GWD1
-
Vigna unguiculata
GWD1
-
Amaranthus hypochondriacus
GWD1
-
Carica papaya
GWD1
-
Sphagnum magellanicum
GWD1
-
Coffea arabica
GWD1
-
Porphyra umbilicalis
GWD1
-
Chromochloris zofingiensis
GWD1
-
Dioscorea alata
GWD1
-
Chondrus crispus
GWD1
-
Auxenochlorella protothecoides
GWD1
-
Chlamydomonas reinhardtii
GWD1
-
Marchantia polymorpha
GWD1
-
Panicum miliaceum
GWD1
-
Musa acuminata subsp. malaccensis
GWD1
-
Ananas comosus
GWD1
-
Sorghum bicolor
GWD1
-
Nicotiana tabacum
GWD1
-
Capsicum annuum
GWD2
-
Gossypium hirsutum
GWD2
-
Linum usitatissimum
GWD2
-
Brassica rapa
GWD2
-
Citrus clementina
GWD2
-
Capsella rubella
GWD2
-
Arabidopsis thaliana
GWD2
-
Manihot esculenta
GWD2
-
Ricinus communis
GWD2
-
Theobroma cacao
GWD2
-
Amborella trichopoda
GWD2
-
Malcolmia maritima
GWD2
-
Myagrum perfoliatum

General Information

General Information Comment Organism
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Triticum aestivum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Hordeum vulgare
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Gossypium hirsutum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Vigna unguiculata
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Amaranthus hypochondriacus
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Linum usitatissimum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Physcomitrium patens
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Brassica rapa
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Carica papaya
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Malus domestica
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Sphagnum magellanicum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Fragaria vesca
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Coffea arabica
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Porphyra umbilicalis
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Solanum tuberosum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Citrus clementina
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Selaginella moellendorffii
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Capsella rubella
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Solanum lycopersicum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Arabidopsis thaliana
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Brachypodium distachyon
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Chromochloris zofingiensis
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Dioscorea alata
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Chondrus crispus
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Auxenochlorella protothecoides
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Chlamydomonas reinhardtii
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Marchantia polymorpha
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Manihot esculenta
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Ricinus communis
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Theobroma cacao
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Panicum miliaceum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Musa acuminata subsp. malaccensis
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Ananas comosus
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Sorghum bicolor
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Zea mays
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Oryza sativa Japonica Group
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Helianthus annuus
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Nicotiana tabacum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Capsicum annuum
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Solanum chacoense
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Vitis vinifera
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Cucumis melo
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Glycine max
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Phaseolus vulgaris
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Amborella trichopoda
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Malcolmia maritima
evolution significant diversity in the evolution of alpha-glucan, water dikinase enzymes across plant species may be evolutionarily advantageous according to the varying needs for phosphorylated stored starch between plants and environments. Computational approaches to compare the enzyme sequences of 48 plant species provide an insight into the evolutionary variation in catalytic activity of alpha-glucan, water dikinase among plants. Deleterious mutations are identified for some plants at various positions of the five aromatic amino acids, which are highly conserved in tandems of CBM45 and vital for binding of the enzymes to starch. These mutations may be responsible for altered carbohydrate binding activity of alpha-glucan, water dikinase in plants, thereby affecting phosphorylation of transit and stored starch Myagrum perfoliatum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Triticum aestivum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Hordeum vulgare
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Gossypium hirsutum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Vigna unguiculata
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Amaranthus hypochondriacus
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Linum usitatissimum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Physcomitrium patens
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Brassica rapa
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Carica papaya
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Malus domestica
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Sphagnum magellanicum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Fragaria vesca
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Coffea arabica
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Porphyra umbilicalis
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Solanum tuberosum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Citrus clementina
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Selaginella moellendorffii
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Capsella rubella
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Solanum lycopersicum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Arabidopsis thaliana
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Brachypodium distachyon
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Chromochloris zofingiensis
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Dioscorea alata
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Chondrus crispus
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Auxenochlorella protothecoides
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Chlamydomonas reinhardtii
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Marchantia polymorpha
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Manihot esculenta
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Ricinus communis
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Theobroma cacao
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Panicum miliaceum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Musa acuminata subsp. malaccensis
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Ananas comosus
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Sorghum bicolor
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Zea mays
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Oryza sativa Japonica Group
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Helianthus annuus
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Nicotiana tabacum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Capsicum annuum
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Solanum chacoense
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Vitis vinifera
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Cucumis melo
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Glycine max
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Phaseolus vulgaris
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Amborella trichopoda
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Malcolmia maritima
metabolism the enzyme catalyzes starch phosphorylation, an integral step in transitory starch degradation Myagrum perfoliatum