MOLECULAR STRUCTURE OF ANIMAL VIRUSES AND CELLS BY COMPUTATIONAL ANALYSIS

复杂的大分子过程和结构组织 使用病毒系统模拟正常的、感染的和转化的细胞。 计算机被用来研究核酸和蛋白质序列， 体现了生命系统的信息。 发展了蛋白质和核酸的计算机分析， 与生物化学、病毒学和生物医学技术相结合， 电子显微镜下的小核糖核酸病毒，腺病毒， 人类免疫缺陷病毒。 图形表示揭示 同源性和反向互补性与数值方法相结合 为了帮助预测二级结构、剪接、启动子和 核酸分子中的重组。 开发了计算机程序 本地和其他地方的应用程序的矢量和大规模并行 超级计算机、小型计算机和图形工作站， 序列分析和结构预测。 评估方法 使用蒙特卡罗模拟预测的意义，进化 比较和生化数据。 基因和蛋白质的作用是 通过与已知函数序列数据库的比较推导出， 结构

Complex macromolecular processes and the structural organization of normal, infected and transformed cells are modeled using viral systems. Computers are used to study nucleic acid and protein sequences that embody the information of living systems. Computer analyses of proteins and nucleic acids are developed and implemented in conjunction with techniques of biochemistry, virology, and electron microscopy on sequences of picornaviruses, adenoviruses, and human immunodeficiency viruses. Graphic representations revealing homology, and reverse complementarity are coupled with numerical methods to aid the prediction of secondary structure, splicing, promoters, and recombination in nucleic acid molecules. Computer programs are developed locally and elsewhere for application on vector and massively parallel supercomputers, minicomputers and graphic workstations to perform sequence analysis and structure predictions. Methods to assess the significance of predictions use Monte Carlo simulations, evolutionary comparisons and biochemical data. Roles for genes and proteins are deduced by comparison with databases of sequences of known function and structure.