Novel Low-Temperature-Active Phytase from Erwinia carotovora var. carotovota ACCC 10276

文献类型: 外文期刊

第一作者: Huang Huoqing

作者: Huang Huoqing;Luo, Huiying;Wang, Yaru;Fu, Dawei;Shao, Na;Yang, Peilong;Meng, Kun;Yao, Bin

作者机构:

关键词: Aquaculture;low-temperature-active enzyme;Erwinia carotovora;phytase

期刊名称:JOURNAL OF MICROBIOLOGY AND BIOTECHNOLOGY ( 影响因子:2.351; 五年影响因子:2.65 )

ISSN: 1017-7825

年卷期: 2009 年 19 卷 10 期

页码:

收录情况: SCI

摘要: A phytase with high activity at low temperatures has great potential for feed applications, especially in aquaculture. Therefore, this study used a degenerate PCR and TAIL PCR to clone a phytase gene from Erwinia carotovora var. carotovota, the cause of soft rot of vegetables in the ground or during cold storage. The full-length 2.5-kb fragment included an open reading frame of 1,302 bp and encoded a putative phytase of 45.3 kDa with a 50%) amino acid identity to the Klebsiella pneumoniae phytase. The phytase contained the active site RHGXRXP and HD sequence motifs that are typical of histidine acid phosphatases. The enzyme was expressed in Escherichia coli, purified, and displayed the following characteristics: a high catalytic activity at low temperatures (retaining over 24% activity at 5 degrees C) and remarkably thermal lability (losing > 96% activity after incubation at 60 degrees C for 2 min). The optimal phytase activity occurred at pH 5.5 and similar to 40 degrees C, and the enzyme activity rapidly decreased above 40 degrees C. When compared with mesophilic counterparts, the phytase not only exhibited a high activity at a low temperature, but also had a low K-m and high k(cat). These temperature characteristics and kinetic parameters are consistent with low-temperature-active enzymes. To our knowledge, this would appear to be the first report of it low-temperature-active phytase and its heterogeneous expression.

分类号:

  • 相关文献

[1]Growth promoting effect of a transgenic Bacillus mucilaginosus on tobacco planting. Li, Xin,Wu, Zhiqiang,Li, Weidong,Yan, Ruixiang,Li, Li,Li, Jun,Li, Yihang,Li, Minggang.

[2]Assessment of the local environmental impact of intensive marine shellfish and seaweed farming-Application of the MOM system in the Sungo Bay, China. Zhang, Jihong,Fang, Jianguang,Wang, Wei,Jiang, Zengjie,Zhang, Jihong,Fang, Jianguang,Wang, Wei,Jiang, Zengjie,Hansen, Pia Kupka.

[3]Biochemical Characterization of a Psychrophilic Phytase from an Artificially Cultivable Morel Morchella importuna. Tang, Jie,Li, Xiaolin,Liu, Tianhai,Miao, Renyun,Huang, Zhongqian,Wang, Yong,Gan, Bingcheng,Peng, Weihong,Tan, Hao,Tang, Jie,Li, Xiaolin,Liu, Tianhai,Miao, Renyun,Huang, Zhongqian,Wang, Yong,Gan, Bingcheng,Peng, Weihong. 2017

[4]Transgenic rice expressing a novel phytase-lactoferricin fusion gene to improve phosphorus availability and antibacterial activity. Deng Li-hua,Weng Lu-shui,Deng Xiang-yang,Xiao Guo-ying,Wang Zuo-ping,Fu Xi-qin,Xin Ye-yun. 2017

[5]Phytase production by fermentation of recombinant Pichia pastoris in monosodium glutamate wastewater. Bai, Yingguo,Yang, Peilong,Wang, Yaru,Shi, Pengjun,Luo, Huiying,Meng, Kun,Wu, Bo,Yao, Bin.

[6]Catalytic efficiency of HAP phytases is determined by a key residue in close proximity to the active site. Fu, Dawei,Li, Zhongyuan,Huang, Huoqing,Yuan, Tiezheng,Shi, Pengjun,Luo, Huiying,Meng, Kun,Yang, Peilong,Yao, Bin.

[7]Effects of sodium gluconate and phytase on performance and bone characteristics in broiler chickers. Guo, Yanli,Shi, Yanghong,Li, Fadi,Zhen, Chen,Hao, Zhengli,Chen, Jilan.

[8]Vinegar production residue as substrates for phytase production by Aspergillus ficuum. Wang, Zhihong,Dong, Xiaofang,Tong, Jianming,Wu, Yingying,Zhang, Qi.

[9]Construction of transgenic Bacillus mucilaginosus strain with improved phytase secretion. Li, X,Yang, SH,Yu, XC,Jin, ZX,Li, WD,Li, L,Li, J,Li, MG.

[10]Effects of Replacing Fish Meal with Soybean Meal or Fermented and Phytase-Treated Soybean Meal Respectively, on Growth Performance, Feed Utilization, and Apparent Digestibility in Juvenile Turbot (Scophthalmus maximus L.). Zhang, Beili,He, Gen,Mai, Kangsen,Zhou, Huihui,Zhang, Beili,He, Gen,Mai, Kangsen,Zhou, Huihui,Wang, Xin,Pi, Xionge. 2016

[11]Development of a Rapid Immunochromatographic Lateral Flow Device Capable of Differentiating Phytase Expressed from Recombinant Aspergillus niger phyA2 and Genetically Modified Corn. Zhou, Xiaojin,Pu, Ling-Kui,Hui, Elizabeth,Zhang, Jun,Yu, Xiao-Lin,Tu, Zhiguan,Lin, Zhen,Zheng, Jian,Zhang, Jun,Liu, Oi,Liu, Oi,Zhane, Juan.

[12]Near-infrared reflectance Spectroscopy-based methods for phytase registration in feed industry. Yang, Haifeng,Lv, Xiaowen,Wang, Jing,Li, Junguo,Li, Hui,Qin, Yuchang.

[13]Improvement of Yersinia frederiksenii Phytase Performance by a Single Amino Acid Substitution. Fu, Dawei,Huang, Huoqing,Meng, Kun,Wang, Yaru,Luo, Huiying,Yang, Peilong,Yuan, Tiezheng,Yao, Bin.

[14]Purification, characterization, and cloning of a novel phytase with low pH optimum and strong proteolysis resistance from Aspergillus ficuum NTG-23. Zhang, G. Q.,Dong, X. F.,Wang, Z. H.,Zhang, Q.,Tong, J. M.,Wang, H. X.,Wang, H. X..

[15]High level expression of an acid-stable phytase from citrobacter freundii in pichia pastoris. Zhao, Wei,Xiong, Aisheng,Fu, Xiaoyan,Gao, Feng,Tian, Yongsheng,Peng, Rihe.

[16]Cloning, Overexpression, and Characterization of a Metagenome-Derived Phytase with Optimal Activity at Low pH. Wu, Xiang,Xie, Liyuan,Huang, Zhongqian,Gan, Bingcheng,Peng, Weihong,Tan, Hao,Wu, Xiang,Xie, Liyuan,Huang, Zhongqian,Gan, Bingcheng,Peng, Weihong.

[17]Enhancing the Thermal Resistance of a Novel Acidobacteria-Derived Phytase by Engineering of Disulfide Bridges. Miao, Renyun,Liu, Tianhai,Cao, Xuelian,Wu, Xiang,Xie, Liyuan,Huang, Zhongqian,Peng, Weihong,Gan, Bingcheng,Tan, Hao,Miao, Renyun,Liu, Tianhai,Cao, Xuelian,Wu, Xiang,Xie, Liyuan,Huang, Zhongqian,Peng, Weihong,Gan, Bingcheng.

[18]Identification and characterization of a mesophilic phytase highly resilient to high-temperatures from a fungus-garden associated metagenome. Wu, Xiang,Xie, Liyuan,Huang, Zhongqian,Peng, Weihong,Gan, Bingcheng,Tan, Hao,Wu, Xiang,Xie, Liyuan,Huang, Zhongqian,Peng, Weihong,Gan, Bingcheng.

[19]A Novel Phytase Derived from an Acidic Peat-Soil Microbiome Showing High Stability under Acidic Plus Pepsin Conditions. .

[20]Effects of a thermostable phytase on the growth performance and bone mineralization of broilers. Tang, H. O.,Gao, X. H.,Ji, F.,Tong, S.,Li, X. J.. 2012

作者其他论文 更多>>