...
首页> 外文期刊>Journal of computational and theoretical nanoscience >Coarse-Grained Elastic Models of Protein Structures for Understanding Their Mechanics and Dynamics
【24h】

Coarse-Grained Elastic Models of Protein Structures for Understanding Their Mechanics and Dynamics

机译:蛋白质结构的粗粒弹性模型,用于了解其力学和动力学

获取原文
获取原文并翻译 | 示例
   

获取外文期刊封面封底 >>

       

摘要

An insight into mechanics and/or dynamics of protein structure is a key to understanding the biological function of protein. For gaining insight into protein mechanics and/or protein dynamics, atomistic simulation such as molecular dynamics has been extensively employed. In spite of its accurate prediction of protein mechanics and/or protein dynamics, atomistic simulation exhibits the computational limitation for large protein complex, which performs the function through dynamics and/or mechanics in the time-scale of micro-second to second regime that is currently inaccessible with atomistic simulation. In this article, we review the current state-of-art coarse-grained modeling of large protein structures for description of the mechanics and/or dynamics of such structures. Specifically, we have considered the Go model as well as the Elastic Network Model (ENM) for studying not only the large protein dynamics but also the protein mechanics. Further, we review the currently suggested, various types of ENMs such as REACH (Realistic Extended Algorithm viaCovariance Hessian) network model, heterogeneous ENM, Minimalist Network Model, and coarsegrained ENM, and their potential in predicting the large protein dynamics and/or protein mechanics. This review suggests that current state-of-art coarse-grained network model has enabled us to gain insight into large protein dynamics or mechanics currently inaccessible with atomistic simulations.
机译:深入了解蛋白质结构的力学和/或动力学是了解蛋白质生物学功能的关键。为了深入了解蛋白质力学和/或蛋白质动力学,已广泛采用原子模拟,例如分子动力学。尽管精确地预测了蛋白质力学和/或蛋白质动力学,但是原子模拟仍显示出对大型蛋白质复合物的计算限制,该复合物通过动力学和/或力学在微秒至第二阶段的时间范围内执行功能。原子模拟目前无法访问。在本文中,我们将对当前大型蛋白质结构的粗粒度建模进行回顾,以描述此类结构的力学和/或动力学。具体而言,我们考虑了Go模型以及弹性网络模型(ENM),不仅用于研究大型蛋白质动力学,而且用于研究蛋白质力学。此外,我们回顾了当前建议的各种类型的ENM,例如REACH(通过协方差Hessian的现实扩展算法)网络模型,异构ENM,极简网络模型和粗粒度ENM,以及它们在预测大蛋白动力学和/或蛋白力学方面的潜力。这项审查表明,当前最先进的粗粒度网络模型使我们能够洞悉原子模拟无法使用的大型蛋白质动力学或力学。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号