Application | Comment | Organism |
---|---|---|
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Bifidobacterium thermophilum |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Synechococcus sp. PCC 7002 |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria polysaccharea |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus geothermalis |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylotuvimicrobium alcaliphilum |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria subflava |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Cellulomonas carbonis |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Pseudarthrobacter chlorophenolicus |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas stellipolaris |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas macleodii |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiodurans |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiopugnans |
biotechnology | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylobacillus flagellatus |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Bifidobacterium thermophilum |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Synechococcus sp. PCC 7002 |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria polysaccharea |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus geothermalis |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylotuvimicrobium alcaliphilum |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria subflava |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Cellulomonas carbonis |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Pseudarthrobacter chlorophenolicus |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas stellipolaris |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas macleodii |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiodurans |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiopugnans |
drug development | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylobacillus flagellatus |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Bifidobacterium thermophilum |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Synechococcus sp. PCC 7002 |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria polysaccharea |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus geothermalis |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylotuvimicrobium alcaliphilum |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria subflava |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Cellulomonas carbonis |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Pseudarthrobacter chlorophenolicus |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas stellipolaris |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas macleodii |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiodurans |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiopugnans |
food industry | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylobacillus flagellatus |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Bifidobacterium thermophilum |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Synechococcus sp. PCC 7002 |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria polysaccharea |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus geothermalis |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylotuvimicrobium alcaliphilum |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Neisseria subflava |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Cellulomonas carbonis |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Pseudarthrobacter chlorophenolicus |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas stellipolaris |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Alteromonas macleodii |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiodurans |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Deinococcus radiopugnans |
synthesis | amylosucrase has great potential in the biotechnology and food industries, due to its multifunctional enzyme activities. It can synthesize alpha-1,4-glucans, like amylose, from sucrose as a sole substrate. It can also utilize various other molecules as acceptors. In addition, amylosucrase produces sucrose isomers such as turanose and trehalulose. It also efficiently synthesizes modified starch with increased ratios of slow digestive starch and resistant starch, and glucosylated functional compounds with increased water solubility and stability. It produces turnaose more efficiently than other carbohydrate-active enzymes. Amylose synthesized by amylosucrase forms microparticles and these can be utilized as biocompatible materials with various bio-applications, including drug delivery, chromatography, and bioanalytical sciences | Methylobacillus flagellatus |
Cloned (Comment) | Organism |
---|---|
cloned into an inducible expression system in Escherichia coli | Neisseria polysaccharea |
expression in Escherichia coli | Alteromonas stellipolaris |
expression in Escherichia coli | Alteromonas macleodii |
Organism | UniProt | Comment | Textmining |
---|---|---|---|
Alteromonas macleodii | B6F2H1 | - |
- |
Alteromonas macleodii KCTC 2957 | B6F2H1 | - |
- |
Alteromonas stellipolaris | B6F2G7 | - |
- |
Alteromonas stellipolaris KCTC 12195 | B6F2G7 | - |
- |
Bifidobacterium thermophilum | - |
- |
- |
Bifidobacterium thermophilum ATCC 25525 | - |
- |
- |
Cellulomonas carbonis | A0A0A0BUC7 | - |
- |
Cellulomonas carbonis T26 | A0A0A0BUC7 | - |
- |
Deinococcus geothermalis | Q1J0W0 | - |
- |
Deinococcus geothermalis DSM 11300 | Q1J0W0 | - |
- |
Deinococcus radiodurans | Q9RVT9 | - |
- |
Deinococcus radiodurans ATCC 13939 | Q9RVT9 | - |
- |
Deinococcus radiopugnans | A0A4P8XUU6 | - |
- |
Deinococcus radiopugnans ATCC 19172 | A0A4P8XUU6 | - |
- |
Methylobacillus flagellatus | Q1GY12 | - |
- |
Methylotuvimicrobium alcaliphilum | G4T024 | - |
- |
Methylotuvimicrobium alcaliphilum 20Z | G4T024 | - |
- |
Neisseria polysaccharea | Q9ZEU2 | - |
- |
Neisseria polysaccharea ATCC 43768 | Q9ZEU2 | - |
- |
Neisseria subflava | D3A730 | - |
- |
Neisseria subflava ATCC 49275 | D3A730 | - |
- |
Pseudarthrobacter chlorophenolicus | B8H6N5 | - |
- |
Pseudarthrobacter chlorophenolicus ATCC 700700 | B8H6N5 | - |
- |
Synechococcus sp. PCC 7002 | - |
- |
- |
Substrates | Comment Substrates | Organism | Products | Comment (Products) | Rev. | Reac. |
---|---|---|---|---|---|---|
sucrose + (+)-catechin | - |
Deinococcus geothermalis | D-fructose + (+)-catechin-3'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + (+)-catechin | - |
Deinococcus geothermalis DSM 11300 | D-fructose + (+)-catechin-3'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + (+)-catechin-3'-O-alpha-D-glucopyranoside | - |
Deinococcus geothermalis | D-fructose + (+)-catechin-3'-O-alpha-D-maltoside | - |
? | |
sucrose + (+)-catechin-3'-O-alpha-D-glucopyranoside | - |
Deinococcus geothermalis DSM 11300 | D-fructose + (+)-catechin-3'-O-alpha-D-maltoside | - |
? | |
sucrose + (+)-taxifolin | - |
Neisseria polysaccharea | D-fructose + (+)-taxifolin-4'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + (+)-taxifolin | - |
Neisseria polysaccharea ATCC 43768 | D-fructose + (+)-taxifolin-4'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + (-)-epicatechin | - |
Neisseria polysaccharea | D-fructose + (-)-epicatechin-3'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + (-)-epicatechin | - |
Neisseria polysaccharea ATCC 43768 | D-fructose + (-)-epicatechin-3'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + (-)-epicatechin-3'-O-alpha-D-glucopyranoside | - |
Neisseria polysaccharea | D-fructose + (-)-epicatechin-3'-O-alpha-D-maltoside | - |
? | |
sucrose + (-)-epicatechin-3'-O-alpha-D-glucopyranoside | - |
Neisseria polysaccharea ATCC 43768 | D-fructose + (-)-epicatechin-3'-O-alpha-D-maltoside | - |
? | |
sucrose + aesculetin | - |
Neisseria polysaccharea | D-fructose + aesculetin 7-alpha-D-glucopyranoside | - |
? | |
sucrose + aesculetin 7-alpha-D-glucopyranoside | - |
Neisseria polysaccharea | D-fructose + aesculetin 7-alpha-D-maltoside | - |
? | |
sucrose + aesculetin 7-alpha-D-maltoside | - |
Neisseria polysaccharea | D-fructose + aesculetin 7-alpha-D-maltotrioside | - |
? | |
sucrose + aesculin | - |
Neisseria polysaccharea | D-fructose + aesculin 4-alpha-glucoside | - |
? | |
sucrose + aesculin 4-alpha-glucoside | - |
Neisseria polysaccharea | D-fructose + aesculin 4-alpha-maltoside | - |
? | |
sucrose + aesculin 4-alpha-glucoside | - |
Neisseria polysaccharea ATCC 43768 | D-fructose + aesculin 4-alpha-maltoside | - |
? | |
sucrose + alpha-D-glucopyranosyl-(1->4)-salicin | - |
Neisseria polysaccharea | D-fructose + alpha-D-glucopyranosyl-(1->4)-alpha-D-glucopyranosyl-(1->4)-salicin | - |
? | |
sucrose + alpha-D-glucopyranosyl-(1->4)-salicin | - |
Deinococcus geothermalis | D-fructose + alpha-D-glucopyranosyl-(1->4)-alpha-D-glucopyranosyl-(1->4)-salicin | - |
? | |
sucrose + alpha-D-glucopyranosyl-(1->4)-salicin | - |
Deinococcus geothermalis DSM 11300 | D-fructose + alpha-D-glucopyranosyl-(1->4)-alpha-D-glucopyranosyl-(1->4)-salicin | - |
? | |
sucrose + arbutin | - |
Deinococcus geothermalis | D-fructose + 4-hydroxyphenyl beta-maltoside | - |
? | |
sucrose + arbutin | - |
Deinococcus geothermalis DSM 11300 | D-fructose + 4-hydroxyphenyl beta-maltoside | - |
? | |
sucrose + baicalein | - |
Deinococcus geothermalis | D-fructose + baicalein 6-O-alpha-D-glucopyranoside | - |
? | |
sucrose + baicalein | - |
Deinococcus geothermalis DSM 11300 | D-fructose + baicalein 6-O-alpha-D-glucopyranoside | - |
? | |
sucrose + daidzein diglucoside | - |
Deinococcus geothermalis | D-fructose + daidzein triglucoside | - |
? | |
sucrose + daidzin | - |
Neisseria polysaccharea | D-fructose + daidzein diglucoside | - |
? | |
sucrose + daidzin | - |
Deinococcus geothermalis | D-fructose + daidzein diglucoside | - |
? | |
sucrose + epicatechin-3'-O-alpha-D-maltoside | - |
Neisseria polysaccharea | D-fructose + (-)-epicatechin-3'-O-alpha-D-maltotrioside | - |
? | |
sucrose + epicatechin-3'-O-alpha-D-maltoside | - |
Neisseria polysaccharea ATCC 43768 | D-fructose + (-)-epicatechin-3'-O-alpha-D-maltotrioside | - |
? | |
sucrose + glycerol | - |
Methylobacillus flagellatus | D-fructose + (2R/S)-1-O-alpha-D-glucosyl-glycerol | - |
? | |
sucrose + glycerol | - |
Methylobacillus flagellatus | D-fructose + 2-O-alpha-D-glucosyl-glycerol | - |
? | |
sucrose + hydroquinone | - |
Deinococcus geothermalis | D-fructose + hydroquinone alpha-glucopyranoside | - |
? | |
sucrose + hydroquinone | - |
Cellulomonas carbonis | D-fructose + hydroquinone alpha-glucopyranoside | - |
? | |
sucrose + hydroquinone | - |
Cellulomonas carbonis T26 | D-fructose + hydroquinone alpha-glucopyranoside | - |
? | |
sucrose + isoquercitrin | - |
Deinococcus geothermalis | D-fructose + isoquercitrin glucoside | - |
? | |
sucrose + isoquercitrin diglucoside | - |
Deinococcus geothermalis | D-fructose + isoquercitrin triglucoside | - |
? | |
sucrose + isoquercitrin glucoside | - |
Deinococcus geothermalis | D-fructose + isoquercitrin diglucoside | - |
? | |
sucrose + luteolin | - |
Neisseria polysaccharea | D-fructose + luteolin-4'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + luteolin | - |
Deinococcus geothermalis | D-fructose + luteolin-4'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + phloretin | - |
Neisseria polysaccharea | D-fructose + phloretin-4'-O-alpha-D-glucopyranoside | - |
? | |
sucrose + phloretin-4'-O-alpha-D-glucopyranoside | - |
Neisseria polysaccharea | D-fructose + phloretin-4'-O-alpha-D-maltoside | - |
? | |
sucrose + phloretin-4'-O-alpha-D-maltoside | - |
Neisseria polysaccharea | D-fructose + phloretin-4'-O-alpha-D-maltotrioside | - |
? | |
sucrose + piceid | - |
Alteromonas macleodii | D-fructose + glucosyl-alpha-(1->4)-piceid | - |
? | |
sucrose + piceid | - |
Alteromonas macleodii KCTC 2957 | D-fructose + glucosyl-alpha-(1->4)-piceid | - |
? | |
sucrose + salicin | - |
Neisseria polysaccharea | D-fructose + alpha-D-glucopyranosyl-(1->4)-salicin | - |
? | |
sucrose + salicin | - |
Deinococcus geothermalis | D-fructose + alpha-D-glucopyranosyl-(1->4)-salicin | - |
? | |
sucrose + vanillin | - |
Neisseria polysaccharea | D-fructose + vanillin 4-alpha-D-glucopyranoside | - |
? | |
sucrose + zingerone | - |
Neisseria polysaccharea | D-fructose + zingerone 4-alpha-D-glucopyranoside | - |
? |
Subunits | Comment | Organism |
---|---|---|
dimer | - |
Deinococcus geothermalis |
dimer | - |
Deinococcus radiodurans |
dimer | - |
Deinococcus radiopugnans |
dimer | - |
Methylobacillus flagellatus |
monomer | - |
Neisseria polysaccharea |
monomer | - |
Methylotuvimicrobium alcaliphilum |
monomer | - |
Cellulomonas carbonis |
monomer | - |
Pseudarthrobacter chlorophenolicus |
Synonyms | Comment | Organism |
---|---|---|
AaAS | - |
Alteromonas stellipolaris |
ACAS | - |
Pseudarthrobacter chlorophenolicus |
AmAS | - |
Alteromonas macleodii |
BtAS | - |
Bifidobacterium thermophilum |
CcAS | - |
Cellulomonas carbonis |
DGAS | - |
Deinococcus geothermalis |
DRAS | - |
Deinococcus radiodurans |
DRpAS | - |
Deinococcus radiopugnans |
MaAS | - |
Methylotuvimicrobium alcaliphilum |
MFAS | - |
Methylobacillus flagellatus |
NPAS | - |
Neisseria polysaccharea |
NsAS | - |
Neisseria subflava |
SyAS | - |
Synechococcus sp. PCC 7002 |
Temperature Optimum [°C] | Temperature Optimum Maximum [°C] | Comment | Organism |
---|---|---|---|
30 | - |
- |
Synechococcus sp. PCC 7002 |
30 | - |
- |
Methylotuvimicrobium alcaliphilum |
35 | - |
- |
Neisseria polysaccharea |
40 | - |
- |
Cellulomonas carbonis |
40 | - |
- |
Deinococcus radiopugnans |
45 | - |
- |
Neisseria subflava |
45 | - |
- |
Pseudarthrobacter chlorophenolicus |
45 | - |
- |
Alteromonas macleodii |
45 | - |
- |
Methylobacillus flagellatus |
50 | - |
- |
Bifidobacterium thermophilum |
50 | - |
- |
Deinococcus geothermalis |
50 | - |
- |
Deinococcus radiodurans |
Temperature Stability Minimum [°C] | Temperature Stability Maximum [°C] | Comment | Organism |
---|---|---|---|
42.6 | - |
Tm-value | Pseudarthrobacter chlorophenolicus |
47.8 | - |
Tm-value | Cellulomonas carbonis |
48.1 | - |
Tm-value | Alteromonas macleodii |
50.6 | - |
Tm-value | Methylobacillus flagellatus |
50.7 | - |
Tm-value | Deinococcus radiopugnans |
51.5 | - |
Tm-value | Neisseria polysaccharea |
61.4 | - |
Tm-value | Deinococcus geothermalis |
pH Optimum Minimum | pH Optimum Maximum | Comment | Organism |
---|---|---|---|
6 | - |
- |
Bifidobacterium thermophilum |
6.5 | - |
- |
Synechococcus sp. PCC 7002 |
7 | - |
- |
Cellulomonas carbonis |
8 | - |
- |
Neisseria polysaccharea |
8 | - |
- |
Deinococcus geothermalis |
8 | - |
- |
Methylotuvimicrobium alcaliphilum |
8 | - |
- |
Neisseria subflava |
8 | - |
- |
Pseudarthrobacter chlorophenolicus |
8 | - |
- |
Alteromonas macleodii |
8 | - |
- |
Deinococcus radiodurans |
8 | - |
- |
Deinococcus radiopugnans |
8.5 | - |
- |
Methylobacillus flagellatus |