麦氏黑穗病菌ADE6基因同源物的破坏

M. Heidenreich, A. Budde, An Zhiqiang, S. Leong
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Department of Bacteriology, University of Wisconsin, Madison, WI 53706. USDA, ARS CCRU, Madison, WI 53726. Department of Plant Pathology, University of Wisconsin, Madison, WI, 53706 Fungal Genetics Reports 55:40-43 A putative homolog of the Sacharromyces cereviseae ADE6 and Escherichia coli purL genes is identified near a multigenic complex, which contains two genes, sid1 and sid2, involved in a siderophore biosynthetic pathway in Ustilago maydis. The putative ADE6 homolog was mutated by targeted gene disruption. The resulting mutant strains demonstrated a requirement for exogenous adenine, indicating that the U. maydis ade6 homolog is required for purine biosynthesis. Ustilago maydis is the causal agent of corn smut disease. Under conditions of iron stress, this fungus produces cyclic peptides, siderophores, for the purpose of iron acquisition (Leong and Winkelmann, 1998). The limits of this gene cluster were investigated by systematically analyzing the sequence of the flanking DNA. The Ustilago genomic sequence of the region downstream of sid1 sequence showed a predicted 1402 amino acid polypeptide encoding a probable ade6 gene (http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162), and having 55.7% similarity to the translated purL gene of E. coliB, and 54.2% similarity with the translated ADE6 gene of Saccharomyces cerevisiae. These genes encode formylglycineamide ribonucleotide synthetase, which catalyzes the fourth step in the purine biosynthetic pathway (Schendel et. al., 1989). Information contained in the S. cerevisiae Genbank sequence submission 557019 indicated that disruption of this gene leads to an adenine-requiring phenotype. To determine whether the predicted ade6 gene is required for purine biosynthesis, the gene was disrupted by insertion of a cassette encoding hygromycin phosphotransferase. Materials and Methods The HindlII-NruI fragment containing the 5’ region of the putative ade6 gene was derived from an 8.2 kb HindIII fragment of pSid1, a cosmid clone that contains a Sau3A partial digest of a region of the genome of Ustilago strain 518 (Wang et. al., 1989), Table 1. The 8.2 kb HindIII fragment was initially cloned into pUC18 followed by deletion of SmaI-NruI and internal NruI-NruI fragments to yield the 2.5 kb cloned HindIII-NruI insert (Fig. 1). Plasmid DNA isolation from E. coli was performed using the alkaline lysis protocol (Maniatis et. al., 1982). U. maydis chromosomal DNA isolation was performed by the glass bead technique (Voisard et. al., 1993). Restriction enzyme digestions were carried out as suggested by the manufacturer (New England Biolabs). E. coli transformation was carried out using the calcium shock method (Maniatis et. al., 1982). U. maydis transformation was performed as described (Voisard et. al., 1993). Radiolabeling, DNA ligation and synthesis were carried out as using standard procedures (Maniatis et. al., 1982). Colony and Southern hybridizations were performed as described (Holden et. al., 1989). The translated sequences were aligned pairwise using the Lipman Pearson Method in Lasergene 7.1 (DNAstar, Madison) and by multiple alignment using Clustal W in Lasergene 7.1 (DNAstar, Madison) with the translated sequence of ade6 generated in this study, a hypothetical Ade6 protein in the Ustilago genome (http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162), E. coli PurL, and yeast Ade6. Strain Relevant Characteristics Source U. maydis #521 (FGSC 9914) wild type a1b1 Robin Holliday, National Institute for Medical Research, Mill Hill, Great Britain U. maydis #518 (FGSC 9914) wild type a2b2 Robin Holliday, National Institute for Medical Research, Mill Hill, Great Britain Table 1. 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The resulting mutant strains demonstrated a requirement for exogenous adenine, indicating that the U. maydis ade6 homolog is required for purine biosynthesis. Authors M. L. Heidenreich, A. D. Budde, An Zhiqiang, and S. A. Leong This regular paper is available in Fungal Genetics Reports: https://newprairiepress.org/fgr/vol55/iss1/10 40 Fungal Genetics Reports Disruption of a Yeast ADE6 Gene Homolog in Ustilago maydis Heidenreich, M. L., Budde, A. D., Zhiqiang, An,and Leong, S. A. Department of Bacteriology, University of Wisconsin, Madison, WI 53706. USDA, ARS CCRU, Madison, WI 53726. Department of Plant Pathology, University of Wisconsin, Madison, WI, 53706 Fungal Genetics Reports 55:40-43 A putative homolog of the Sacharromyces cereviseae ADE6 and Escherichia coli purL genes is identified near a multigenic complex, which contains two genes, sid1 and sid2, involved in a siderophore biosynthetic pathway in Ustilago maydis. The putative ADE6 homolog was mutated by targeted gene disruption. The resulting mutant strains demonstrated a requirement for exogenous adenine, indicating that the U. maydis ade6 homolog is required for purine biosynthesis. Ustilago maydis is the causal agent of corn smut disease. Under conditions of iron stress, this fungus produces cyclic peptides, siderophores, for the purpose of iron acquisition (Leong and Winkelmann, 1998). The limits of this gene cluster were investigated by systematically analyzing the sequence of the flanking DNA. The Ustilago genomic sequence of the region downstream of sid1 sequence showed a predicted 1402 amino acid polypeptide encoding a probable ade6 gene (http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162), and having 55.7% similarity to the translated purL gene of E. coliB, and 54.2% similarity with the translated ADE6 gene of Saccharomyces cerevisiae. These genes encode formylglycineamide ribonucleotide synthetase, which catalyzes the fourth step in the purine biosynthetic pathway (Schendel et. al., 1989). Information contained in the S. cerevisiae Genbank sequence submission 557019 indicated that disruption of this gene leads to an adenine-requiring phenotype. To determine whether the predicted ade6 gene is required for purine biosynthesis, the gene was disrupted by insertion of a cassette encoding hygromycin phosphotransferase. Materials and Methods The HindlII-NruI fragment containing the 5’ region of the putative ade6 gene was derived from an 8.2 kb HindIII fragment of pSid1, a cosmid clone that contains a Sau3A partial digest of a region of the genome of Ustilago strain 518 (Wang et. al., 1989), Table 1. The 8.2 kb HindIII fragment was initially cloned into pUC18 followed by deletion of SmaI-NruI and internal NruI-NruI fragments to yield the 2.5 kb cloned HindIII-NruI insert (Fig. 1). 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引用次数: 3

摘要

在一个多基因复合体附近发现了酿酒酵母ADE6和大肠杆菌purL基因的同源性,该复合体包含两个基因sid1和sid2,这些基因参与了麦氏黑穗病菌的铁载体生物合成途径。假定的ADE6同源物因靶向基因破坏而发生突变。由此产生的突变株显示出对外源性腺嘌呤的需求,这表明U. maydis ade6同源物是嘌呤生物合成所必需的。作者M. L. Heidenreich, a . D. Budde, An Zhiqiang, and S. a . Leong这篇论文可以在真菌遗传学报告中找到:https://newprairiepress.org/fgr/vol55/iss1/10 40真菌遗传学报告:酵母ADE6基因同源物在Ustilago maydis Heidenreich, M. L. Budde, a . D, Zhiqiang, An,and Leong, S. a .细菌学系,威斯康星大学麦迪逊分校,WI 53706。美国农业部农业研究中心,威斯康辛州麦迪逊53726。在麦氏黑穗病菌(Ustilago maydis)的铁载体生物合成途径中,一个含有sid1和sid2两个基因的多基因复合体附近发现了一个假定的同源基因,该基因与酿酒sacharroomyces cereviseae ADE6和Escherichia coli purL基因具有同源性。假定的ADE6同源物因靶向基因破坏而发生突变。由此产生的突变株显示出对外源性腺嘌呤的需求,这表明U. maydis ade6同源物是嘌呤生物合成所必需的。玉米黑穗病是玉米黑穗病的病原。在铁胁迫条件下,这种真菌产生环状肽,铁载体,以获取铁(Leong和Winkelmann, 1998)。通过系统分析该基因簇的侧翼DNA序列,探讨了该基因簇的局限性。sid1序列下游区域的黑穗病菌基因组序列显示一个预测的1402氨基酸多肽,编码一个可能的ade6基因(http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162),与大肠杆菌(E. coliB)翻译的purL基因相似度为55.7%,与酿酒酵母(Saccharomyces cerevisiae)翻译的ade6基因相似度为54.2%。这些基因编码甲酰甘氨酸酰胺核糖核苷酸合成酶,催化嘌呤生物合成途径的第四步(Schendel et. al., 1989)。cerevisiae Genbank序列提交557019中包含的信息表明,该基因的破坏导致需要腺嘌呤的表型。为了确定预测的ade6基因是否为嘌呤生物合成所必需,通过插入编码湿霉素磷酸转移酶的磁带来破坏该基因。包含ade6基因5 '区的hindli - nrui片段来源于pSid1的8.2 kb的HindIII片段,pSid1是一个cosmid克隆,包含Ustilago菌株518基因组区域的Sau3A部分消化(Wang et. al., 1989),表1。8.2 kb的HindIII片段最初被克隆到pUC18中,然后删除SmaI-NruI和内部NruI-NruI片段,得到2.5 kb的克隆HindIII- nrui插入片段(图1)。使用碱性裂解方案从大肠杆菌中分离质粒DNA (Maniatis et. al., 1982)。用玻璃球技术进行了美氏菌染色体DNA分离(Voisard et al., 1993)。按照制造商(New England Biolabs)的建议进行限制性内切酶消化。大肠杆菌转化采用钙休克法进行(Maniatis et. al., 1982)。美国maydis的转变按照描述进行(Voisard et. al., 1993)。放射性标记、DNA连接和合成按照标准程序进行(Maniatis等人,1982年)。按照描述进行群体杂交和南方杂交(Holden et. al., 1989)。翻译序列使用Lasergene 7.1 (DNAstar, Madison)的Lipman Pearson方法进行成对比对,并使用Lasergene 7.1 (DNAstar, Madison)的Clustal W与本研究生成的ade6翻译序列、Ustilago基因组(http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162)中假设的ade6蛋白、大肠杆菌PurL和酵母ade6进行多重比对。菌株相关特征来源U. maydis #521 (FGSC 9914)野生型a1b1 Robin Holliday,英国米尔希尔国家医学研究所,U. maydis #518 (FGSC 9914)野生型a2b2 Robin Holliday,英国米尔希尔国家医学研究所真菌菌株1 Heidenreich等人:黑穗病菌ADE6基因同源物的破坏新草原出版社,2017
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Disruption of a Yeast ADE6 Gene Homolog in Ustilago maydis
A putative homolog of the Sacharromyces cereviseae ADE6 and Escherichia coli purL genes is identified near a multigenic complex, which contains two genes, sid1 and sid2, involved in a siderophore biosynthetic pathway inUstilago maydis. The putative ADE6 homolog was mutated by targeted gene disruption. The resulting mutant strains demonstrated a requirement for exogenous adenine, indicating that the U. maydis ade6 homolog is required for purine biosynthesis. Authors M. L. Heidenreich, A. D. Budde, An Zhiqiang, and S. A. Leong This regular paper is available in Fungal Genetics Reports: https://newprairiepress.org/fgr/vol55/iss1/10 40 Fungal Genetics Reports Disruption of a Yeast ADE6 Gene Homolog in Ustilago maydis Heidenreich, M. L., Budde, A. D., Zhiqiang, An,and Leong, S. A. Department of Bacteriology, University of Wisconsin, Madison, WI 53706. USDA, ARS CCRU, Madison, WI 53726. Department of Plant Pathology, University of Wisconsin, Madison, WI, 53706 Fungal Genetics Reports 55:40-43 A putative homolog of the Sacharromyces cereviseae ADE6 and Escherichia coli purL genes is identified near a multigenic complex, which contains two genes, sid1 and sid2, involved in a siderophore biosynthetic pathway in Ustilago maydis. The putative ADE6 homolog was mutated by targeted gene disruption. The resulting mutant strains demonstrated a requirement for exogenous adenine, indicating that the U. maydis ade6 homolog is required for purine biosynthesis. Ustilago maydis is the causal agent of corn smut disease. Under conditions of iron stress, this fungus produces cyclic peptides, siderophores, for the purpose of iron acquisition (Leong and Winkelmann, 1998). The limits of this gene cluster were investigated by systematically analyzing the sequence of the flanking DNA. The Ustilago genomic sequence of the region downstream of sid1 sequence showed a predicted 1402 amino acid polypeptide encoding a probable ade6 gene (http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162), and having 55.7% similarity to the translated purL gene of E. coliB, and 54.2% similarity with the translated ADE6 gene of Saccharomyces cerevisiae. These genes encode formylglycineamide ribonucleotide synthetase, which catalyzes the fourth step in the purine biosynthetic pathway (Schendel et. al., 1989). Information contained in the S. cerevisiae Genbank sequence submission 557019 indicated that disruption of this gene leads to an adenine-requiring phenotype. To determine whether the predicted ade6 gene is required for purine biosynthesis, the gene was disrupted by insertion of a cassette encoding hygromycin phosphotransferase. Materials and Methods The HindlII-NruI fragment containing the 5’ region of the putative ade6 gene was derived from an 8.2 kb HindIII fragment of pSid1, a cosmid clone that contains a Sau3A partial digest of a region of the genome of Ustilago strain 518 (Wang et. al., 1989), Table 1. The 8.2 kb HindIII fragment was initially cloned into pUC18 followed by deletion of SmaI-NruI and internal NruI-NruI fragments to yield the 2.5 kb cloned HindIII-NruI insert (Fig. 1). Plasmid DNA isolation from E. coli was performed using the alkaline lysis protocol (Maniatis et. al., 1982). U. maydis chromosomal DNA isolation was performed by the glass bead technique (Voisard et. al., 1993). Restriction enzyme digestions were carried out as suggested by the manufacturer (New England Biolabs). E. coli transformation was carried out using the calcium shock method (Maniatis et. al., 1982). U. maydis transformation was performed as described (Voisard et. al., 1993). Radiolabeling, DNA ligation and synthesis were carried out as using standard procedures (Maniatis et. al., 1982). Colony and Southern hybridizations were performed as described (Holden et. al., 1989). The translated sequences were aligned pairwise using the Lipman Pearson Method in Lasergene 7.1 (DNAstar, Madison) and by multiple alignment using Clustal W in Lasergene 7.1 (DNAstar, Madison) with the translated sequence of ade6 generated in this study, a hypothetical Ade6 protein in the Ustilago genome (http://mips.gsf.de/genre/proj/ustilago/singleGeneReport.html?entry=um05162), E. coli PurL, and yeast Ade6. Strain Relevant Characteristics Source U. maydis #521 (FGSC 9914) wild type a1b1 Robin Holliday, National Institute for Medical Research, Mill Hill, Great Britain U. maydis #518 (FGSC 9914) wild type a2b2 Robin Holliday, National Institute for Medical Research, Mill Hill, Great Britain Table 1. Fungal Strains 1 Heidenreich et al.: Disruption of a Yeast ADE6 Gene Homolog in Ustilago maydis Published by New Prairie Press, 2017
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