数字农科院2.0

Identification of Bovine Casein Phosphorylation Using Titanium Dioxide Enrichment in Combination with Nano Electrospray Ionization Tandem Mass Spectrometry

文献类型: 外文期刊

作者: Li Shan-shan;Wang Jia-qi;Wei Hong-yang;Yang Yong-xin;Bu Deng-pan;Zhang Le-ying;Zhou Ling-yun

作者机构:

关键词: bovine milk casein;phosphorylation;mass spectrometry;titanium dioxide enrichment

期刊名称: JOURNAL OF INTEGRATIVE AGRICULTURE

ISSN: 2095-3119

年卷期: 2012 年 11 卷 3 期

页码:

收录情况: SCI

摘要: Protein phosphorylation is an important post-translational modification that regulates milk protein structure and function. The objective of this study was to analyze the presence of phosphorylated casein. Bovine milk proteins were first separated by SDS polyacrylamide gel electrophoresis. After in gels digestion and extraction, phosphorylated peptides were enriched by titanium dioxide and identified by ultra performance liquid chromatography coupled with nano electrospray ionization tandem mass spectrometry. This method ensured the identification of 20 phosphorylated peptides, including 7 phosphorylated forms of alpha(s1)-casein, 8 alpha(s2)-casein, and 5 beta-casein. Eight phosphorylated sites derived from 3 alpha(s1)-caseins, 3 alpha(s2)-caseins, and 2 beta-caseins were also identified, and localized on residues Ser(61), Ser(63) and Ser(130) in alpha(s1)-casein; Thr(145), Ser(146) and Ser(158) in alpha(s2)-casein; and Ser(50) and Thr(56) in beta-casein. These findings provide valuable information for investigating casein phosphorylation of the bovine milk.

分类号:

  • 相关文献

[1]Identification of bovine casein phosphorylation using TiO2 enrichment in combination with nano-ESI-MS/MS. Li, S. S.,Yang, Y. X.,Wang, J. Q.,Bu, D. P.,Wei, H. Y.,Zhang, L. Y.,Zhou, L. Y.. 2010

[2]Exploring the diversity of plant proteome. Yanmei Chen,Yi Wang,Jun Yang,Wenbin Zhou,Shaojun Dai. 2021

[3]Impact of chiral tebuconazole on the flavor components and color attributes of Merlot and Cabernet Sauvignon wines at the enantiomeric level. Zhao S., Li M., Simal-Gandara J.,田健., Chen J., Dai X., Kong Z.. 2022

[4]Comparative analysis of muscle phosphoproteome induced by salt curing. Wang, Zhenyu,Zhang, Caixia,Li, Zheng,Shen, Qingwu,Zhang, Dequan,Shen, Qingwu,Wang, Zhenyu.

[5]Calcium-dependent protein kinase 21 phosphorylates 14-3-3 proteins in response to ABA signaling and salt stress in rice. Chen, Yixing,Zhou, Xiaojin,Chang, Shu,Chu, Zhilin,Wang, Hanmeng,Han, Shengcheng,Wang, Yingdian,Zhou, Xiaojin.

[6]Effects of phosphorylation on mu-calpain activity at different incubation temperature. Du, Manting,Li, Xin,Li, Zheng,Wang, Ying,Li, Guixia,Zhang, Dequan,Shen, Qingwu.

[7]Identification of in vivo protein phosphorylation sites in human pathogen Schistosoma japonicum by a phosphoproteomic approach. Luo, Rong,Zhou, Chunjing,Lin, Jiaojiao,Yang, Dehao,Shi, Yaojun,Cheng, Guofeng.

[8]Arabidopsis cytosolic glutamine synthetase AtGLN1;1 is a potential substrate of AtCRK3 involved in leaf senescence. Li, RJ,Hua, W,Lu, YT.

[9]Quantitative phosphoproteomic analysis of early seed development in rice (Oryza sativa L.). Qiu, Jiehua,Hou, Yuxuan,Tong, Xiaohong,Wang, Yifeng,Lin, Haiyan,Liu, Qing,Zhang, Wen,Li, Zhiyong,Zhang, Jian,Nallamilli, Babi R..

[10]Phosphorylation inhibits the activity of mu-calpain at different incubation temperatures and Ca2+ concentrations in vitro. Du, Manting,Li, Xin,Li, Zheng,Li, Meng,Gao, Lingling,Zhang, Dequan,Du, Manting.

[11]Revealing phosphorylation regulatory networks during embryogenesis of honey bee worker and drone (Apis mellifera). Beibei Ma,Chuan Ma,Jianke Li,Yu Fang. 2022

[12]Phosphorylation and acetylation responses of glycolytic enzymes in meat to different chilling rates. Yuqiang Bai,Chi Ren,Chengli Hou,Li Chen,Zhenyu Wang,Xin Li,Dequan Zhang. 2023

[13]BIN2 phosphorylates the Thr280 of CO to restrict its function in promoting Arabidopsis flowering. Ju L.,Dong H.,Yang R.,Jing Y.,Zhang Y.,Liu L.,Zhu Y.,Chen K.-M.,Ping J.,Sun J.. 2023

[14]Soluble starch synthase enzymes in cereals: An updated review. Ahsan Irshad,Huijun Guo,Shoaib Ur Rehman,Xueqing Wang,Chaojie Wang,Ali Raza,Chunyun Zhou,Yuting Li,Luxiang Liu. 2021

[15]Fus3, as a Critical Kinase in MAPK Cascade, Regulates Aflatoxin Biosynthesis by Controlling the Substrate Supply in Aspergillus flavus, Rather than the Cluster Genes Modulation. Longxue Ma,Xu Li,Fuguo Xing,Junning Ma,Xiaoyun Ma,Yiran Jiang. 2022

[16]The Modulation of Sucrose Nonfermenting 1-Related Protein Kinase 2.6 State by Persulfidation and Phosphorylation: Insights from Molecular Dynamics Simulations. Li, Miaomiao,Wu, Ting,Wang, Shuhan,Duan, Tianqi,Huang, Siqi,Xie, Yanjie. 2023

[17]Quantitative phosphoproteomics analyses reveal the regulatory mechanisms related to frozen-thawed sperm capacitation and acrosome reaction in yak (Bos grunniens). Zhang R.,Liang C.,Guo X.,Bao P.,Pei J.,Wu F.,Yin M.,Chu M.,Yan P.. 2022

[18]OsHSD2 interaction with and phosphorylation by OsCPK21 is essential for lipid metabolism during rice caryopsis development. Zhilin Chu,Hanmeng Wang,Yinxing Wang,Shu Chang,Shenghua Jia,Lu Pang,Chao Xi,Jin Liu,Heping Zhao,Xiaojin Zhou,Shengcheng Han,Yingdian Wang. 2022

[19]Mycobacterium tuberculosis RKIP (Rv2140c) dephosphorylates ERK/NF-κB upstream signaling molecules to subvert macrophage innate immune response. M. A. Abo-Kadoum,Mohammed Assad,Moure UAE,Stech A.E. Nzaou,Zhen Gong,Asmaa Moaaz,Samson Teweldebrhan,Adel Eltoukhy,Ai Xuefeng,Yu Chen,Jianping Xie. 2021

[20]The protein phosphatase 2C clade A TaPP2CA interact with calcium-dependent protein kinases, TaCDPK5/TaCDPK9-1, that phosphorylate TabZIP60 transcription factor from wheat (Triticum aestivum L.). Lina Zhang,Liting Wang,Xue Chen,Lijuan Zhao,Xingyan Liu,Yinghong Wang,Guofan Wu,Chuan Xia,Lichao Zhang,Xiuying Kong. 2022

作者其他论文 更多>>