{"title":"Cloning and expression of human interferon-beta: from bc to ac.","authors":"W Fiers","doi":"","DOIUrl":null,"url":null,"abstract":"<p><p>In 1963 I started the Laboratory of Molecular Biology (LMB) at the University of Ghent. Molecular Biology was then a new scientific discipline. Nucleic acids (NA) could be sequenced, manipulated, and recombined to form genetic information which never before had existed. Cloning of DNA-segments allowed multiplying a single molecule a billion-fold. By 1975 recombinant DNA-technology had sufficiently progressed that one could start the pursuit of a medically important goal. Our choice was to go for Interferon, a mysterious substance which could protect against viral infection, and might possibly be used as an anti-cancer agent if available in unlimited quantities. Fortunately, Piet De Somer, then Rector of the KUL, was one of the pioneers in interferon research. He encouraged his young colleague Erik De Clercq to collaborate with us. Erik brought extensive interferon expertise and reagents to the collaboration. But molecular biologists work with NA and interferon is a protein. There was a missing link which was provided by Jean Content of the Brussels Pasteur Institute. Jean had developed a system to convert interferon mRNA into protein, which was send to Leuven for quantification. This close collaboration between 3 laboratories led in January 1980 to the cloning of the human fibroblast, now interferon-beta, gene, and to the primary structure of the protein. However, 2 months earlier, Tadatsugu Taniguchi had succeeded already to obtain such a clone. But we were the first to express the clone in E. coli, and this was the definite proof that the cloned gene coded for human interferon-beta.</p>","PeriodicalId":76790,"journal":{"name":"Verhandelingen - Koninklijke Academie voor Geneeskunde van Belgie","volume":"71 1-2","pages":"43-50"},"PeriodicalIF":0.0000,"publicationDate":"2009-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Verhandelingen - Koninklijke Academie voor Geneeskunde van Belgie","FirstCategoryId":"1085","ListUrlMain":"","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
In 1963 I started the Laboratory of Molecular Biology (LMB) at the University of Ghent. Molecular Biology was then a new scientific discipline. Nucleic acids (NA) could be sequenced, manipulated, and recombined to form genetic information which never before had existed. Cloning of DNA-segments allowed multiplying a single molecule a billion-fold. By 1975 recombinant DNA-technology had sufficiently progressed that one could start the pursuit of a medically important goal. Our choice was to go for Interferon, a mysterious substance which could protect against viral infection, and might possibly be used as an anti-cancer agent if available in unlimited quantities. Fortunately, Piet De Somer, then Rector of the KUL, was one of the pioneers in interferon research. He encouraged his young colleague Erik De Clercq to collaborate with us. Erik brought extensive interferon expertise and reagents to the collaboration. But molecular biologists work with NA and interferon is a protein. There was a missing link which was provided by Jean Content of the Brussels Pasteur Institute. Jean had developed a system to convert interferon mRNA into protein, which was send to Leuven for quantification. This close collaboration between 3 laboratories led in January 1980 to the cloning of the human fibroblast, now interferon-beta, gene, and to the primary structure of the protein. However, 2 months earlier, Tadatsugu Taniguchi had succeeded already to obtain such a clone. But we were the first to express the clone in E. coli, and this was the definite proof that the cloned gene coded for human interferon-beta.
1963年,我在根特大学创办了分子生物学实验室(LMB)。分子生物学当时是一门新兴的科学学科。核酸(NA)可以被测序、操纵和重组,从而形成以前从未存在过的遗传信息。克隆dna片段可以使单个分子增殖十亿倍。到1975年,重组dna技术已经取得了足够的进步,人们可以开始追求一个重要的医学目标。我们的选择是干扰素,这是一种神秘的物质,可以防止病毒感染,如果可以无限量地获得,可能会被用作抗癌剂。幸运的是,当时的荷兰国立大学校长Piet De Somer是干扰素研究的先驱之一。他鼓励他的年轻同事埃里克·德·克勒克与我们合作。Erik为合作带来了丰富的干扰素专业知识和试剂。但是分子生物学家使用NA干扰素是一种蛋白质。布鲁塞尔巴斯德研究所的Jean Content提供了一个缺失的环节。Jean开发了一个将干扰素mRNA转化为蛋白质的系统,并将其送到鲁汶进行定量分析。1980年1月,3个实验室的密切合作成功克隆了人类成纤维细胞,即现在的干扰素- β基因,并确定了该蛋白质的初级结构。然而,2个月前,谷口忠津已经成功地获得了这样的克隆。但我们是第一个在大肠杆菌中表达克隆的人,这是克隆基因编码人类干扰素的明确证据。