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利用酵母双杂交技术筛选p12~(CDK2AP1)新的相互作用蛋白Nbp及生物信息学分析
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摘要
癌是严重威胁人类健康,甚至致人死亡的恶性疾病,其发病率逐年增高,并有年轻化的趋势,一直以来都是医学领域中研究的重要课题之一。口腔癌的发生率高,在世界范围内口腔癌的发生率排在所有癌的第六位,且由于发病部位特殊,严重影响病人的外形和功能,甚至威胁患者生命。近年来在分子水平上研究癌的发生机制及其与癌基因、抑癌基因的相互作用关系已成为研究癌的发病机制及基因治疗的主要方向之一。目前的研究成果已经指出,癌的发生与癌基因的表达和抑癌基因的失表达密切相关。CDK2AP1(cyclin dependent kinase 2 associating protein 1)基因就是一个与口腔癌发病有关的候选抑癌基因。CDK2AP1基因原称DOC-1基因(deleted in oral cancer-1,口腔癌缺失-1),于1995年被Todd等人在仓鼠口腔癌模型中发现、分离并证实的一个候选抑癌基因,p12~(CDK2AP1)蛋白是其编码蛋白,具有抑制癌细胞生长的作用。人类CDK2AP1基因位于染色体12q24,编码115个氨基酸,其表达蛋白p12~(CDK2AP1)分子量为12.4kDa。在利用仓鼠模型对CDK2AP1的研究中发现,CDK2AP1可以诱导仓鼠口腔中恶性角化细胞凋亡。其表达蛋白p12~(CDK2AP1)通过下调CDK2(细胞周期依赖性蛋白激酶2)的活性和表达水平进而减弱对Rb基因的抑制,起到抑制癌细胞生长的作用。在鳞状细胞癌细胞中异位表达P12CDK2AP1蛋白后,其与CDK2和DNA-polymeraseα(DNA聚合酶α)结合,抑制了这两种酶的活性,使细胞的恶性表型发生转变。目前,关于p12~(CDK2AP1)蛋白在人口腔鳞癌中的表达显著降低甚至缺失的机理尚不完全清楚,与其相互作用蛋白及其发挥作用的蛋白网络尚不明确。
     本研究采用酵母双杂交技术在正常人肝cDNA文库中筛选与p12~(CDK2AP1)蛋白相互作用的蛋白质,从而发现与p12~(CDK2AP1)蛋白相互作用的相关蛋白,利用生物信息学手段分析预测互作蛋白的性质类型,为进一步阐明CDK2AP1基因作用的机理,研究CDK2AP1的功能,揭示p12~(CDK2AP1)蛋白的作用网络奠定基础。
     实验目的:
     本课题研究的目的是通过酵母双杂交技术在正常人肝cDNA文库中筛选与p12~(CDK2AP1)蛋白相互作用的蛋白质,从而进一步研究p12~(CDK2AP1)蛋白在口腔癌缺失中的相关蛋白及作用网络。利用生物信息学手段分析互作蛋白的性质类型。通过研究p12~(CDK2AP1)蛋白与互作蛋白的相互作用关系,为进一步阐明CDK2AP1基因作用的机理奠定基础。
     实验方法:
     1、优化已有的酵母双杂交筛选工作体系,使其进一步高效准确,为后续筛选提供有利条件。
     2、利用分子克隆的方法重组针对p12~(CDK2AP1)蛋白的酵母双杂交诱饵质粒,并验证其实用性。同时扩增正常人肝cDNA文库,为下一步进行p12~(CDK2AP1)蛋白的相互作用蛋白筛选奠定基础。
     3、利用酵母双杂交技术在正常人肝cDNA文库中筛选与p12~(CDK2AP1)蛋白相互作用的蛋白。
     4、使用生物信息学技术相关数据库和软件预测和分析互作蛋白的信息。包括互作蛋白的物种分类、基因组定位、互作蛋白的理化性质、跨膜特性、亚细胞定位、信号肽表达、二级结构、可能的功能基序和功能位点以及可能的同源蛋白之间的同源性比对。
     实验结果:
     利用酵母双杂交的方法,在正常人肝组织cDNA文库中发现了一个与p12~(CDK2AP1)蛋白有相互作用的新的蛋白质(GENE ID LOC93622、hypothetical protein BC006130),长度为119个氨基酸,暂时命名为Nbp(New binding protein,新结合蛋白)。通过酵母双杂交回转实验及NCBI blast,排除实验结果假阳性、酵母蛋白干扰、去除非编码区,确定该段cDNA序列为人类DNA,DNA序列符合率100%,染色体定位于人类4号染色体。发现其染色体定位、核酸序列、氨基酸序列MORF4蛋白(mortality factor 4)相似,可能与MRG(Mortality Related Genes)蛋白家族有一定的关系。利用生物信息学的方法,分析预测了Nbp蛋白的理化性质、二级结构、亚细胞定位、信号肽分泌以及其氨基酸序列中存在的可能的功能位点。
     实验结论:
     利用酵母双杂交技术成功筛选出了一个与p12~(CDK2AP1)蛋白相互作用的新的蛋白质Nbp,通过生物信息学方法预测了Nbp蛋白的理化性质、二级结构、亚细胞定位、信号肽分泌以及其氨基酸序列中存在的可能的功能位点。利用分子克隆技术成功重组了Nbp蛋白的真核表达质粒,为继续深入研究CDKAP1基因、p12~(CDK2AP1)蛋白及其互作蛋白的功能和作用网络奠定了基础。
Cancer is a serious threat to human health and even the deadly malignant disease, its incidence increased year by year as well as a young trend, and cancer has always been one of the important topics in medicine. Oral cancer ranking sixth in the world cancer incidence, and because of it's special area, oral cancer seriously impact the of patients' life and survive. In recent years, tumors mechanism and research with cancer gene, tumor-suppressor genes interacting relationship at the molecular level has become one of the main direction in tumor pathogenesis and gene therapy research . Current research results have indicated that the occurrence of cancer and cancer gene expression and tumor-suppressor genes lost expression are closely related. CDK2AP1 (cyclin associating protein kinase 2 dependent gene is a 1) is an oral cancer incidence relevant candidate tumor-suppressor gene. CDK2AP1 gene originally called DOC - 1 (deleted in oral cancer-1), which was found, separated and the confirmed as a candidate for tumor-suppressor genes by Todd in 1995 in oral cancer model in hamsters. P12CDK2AP1 protein is its coding protein, has the role of suppress tumor growth. CDK2AP1 gene is located in 12q24 human chromosomes, coding 115 amino acids, its expression protein p12~(CDK2AP1) the molecular weight of 12.4 kDa. In the research of CDK2AP1 in hamster model, CDK2AP1 can induce cell apoptosis of the oral malignant keratinocyte .Through down-regulating CDK2 (cut protein cell cycle dependence protein kinase 2) activity and the expression level, its expression p12~(CDK2AP1) weaken the Rb gene suppression, plays the role of inhibiting tumor cell growth. In squamous cell cancer cells ectopic expression, after the P12CDK2AP1 protein with CDK2 and DNA - polymerase alpha (DNA polymerases alpha) union, it inhibit the these two kinds of enzyme activity and change the malignant cell phenotype . At present, mechanism study of significantly reduced even lack of p12~(CDK2AP1) protein expression in oral squamous cell carcinoma the was not reported, and its interaction proteins and its protein network still not very clear.
     Our study adopts yeast two-hybrid technology to screen protein interact with p12~(CDK2AP1) in normal liver double cDNA library, thus to find p12~(CDK2AP1) protein interactions with the related factors, then we adopts bioinformatics analysis and prediction by means of interaction proteins, to further illustrate different types of CDK2AP1 genetic mechanism of the effects of CDK2AP1, research p12~(CDK2AP1) protein function, reveal the role of foundation network.
     Objective:
     The purpose of this research is through yeast hybrid technology in normal liver double cDNA library screening and p12~(CDK2AP1) protein in the interaction of protein, thus further research p12~(CDK2AP1) protein in the related factors, and lack of oral role network. Use bioinformatics method analysis of the different types of interaction proteins. To further illustrate CDK2AP1 genetic mechanism of the effects lay the foundation.
     Method:
     1, optimize existing yeast two-hybrid screening work system, make its further effective and accurate, provide favorable conditions for the subsequent screening.
     2, use molecular cloning p12~(CDK2AP1) protein in the reorganization of yeast two-hybrid bait plasmid, and verify its practicability. Meanwhile lay the foundation by amplify normal liver cDNA library for further p12~(CDK2AP1) protein interaction proteins screening .
     3, use yeast two-hybrid technology to screen protein interact with p12~(CDK2AP1) protein in normal liver cDNA library.
     4, using the method of molecular clone to restructure the original nuclear expression plasmid of the interaction proteins and induce its expression. Restructure p12~(CDK2AP1) protein eukaryotic expression plasmid expressing, and induce its expression.
     5, use bioinformatics technology related database and software to forecast and analyze the information of interaction proteins. Including interactions protein species classification, genome positioning, physical and chemical properties of interactions, transmembrane characteristics, sub-cellular localization, signal peptide expression, secondary structure, the possible functions of the base sequence and function of homologous protein and the possible sites between than the homology.
     Results:
     Using the yeast two-hybrid method, we found a new protein (GENE ID LOC93622、hypothetical protein BC006130), interact with p12~(CDK2AP1) protein in normal liver cDNA libraries, the protein with length of 119 amino acids, temporarily named Nbp. Through the yeast two-hybrid rotary experiment and NCBI blast, excluding experimental results of false positive, yeast protein interference, wipe off none-coding areas and confirmed its cDNA sequence a human DNA pac with 100% coincidence rate in DNA sequence, the chromosomal locates in human chromosome 4. We find the chromosomal location, nucleic acid sequence, MORF4 protein (amino acid sequence mortality factor 4) similar, may be related to MORF MRG (those with a certain't) protein family . Using the method of bioinformatics we analyzed and predicted the physical and chemical properties, secondary structure, sub-cellular localization, signal peptide secretion and its existing in the amino acid sequence of the possible functions of the site of Nbp protein. And we successfully reorganized the Nbp protein eukaryotic expression plasmid.
     Conclusion:
     Using the yeast two-hybrid method, we successfully found a new protein Nbp interact with p12~(CDK2AP1), through bioinformatic, we predicted the physical and chemical properties, secondary structure, sub-cellular localization, signal peptide secretion and its existing in the amino acid sequence of the possible functions of the site of Nbp protein. Using molecular cloning, we successfully reorganized Nbp protein eukaryotic expression plasmids, laid a foundation for further research on CDK2AP1 genes, p12~(CDK2AP1) protein and their interactions, protein function and role network .
引文
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