A visual computing environment for very large scale biomolecular modeling

M. Zeller, James C. Phillips, A. Dalke, W. Humphrey, K. Schulten, Thomas S. Huang, V. Pavlovic, Yunxin Zhao, Zion Lo, Stephen M. Chu, Rajeev Sharma
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引用次数: 20

Abstract

Knowledge of the complex molecular structures of living cells is being accumulated at a tremendous rate. Key technologies enabling this success have been, high performance computing and powerful molecular graphics applications, but the technology is beginning to seriously lag behind challenges posed by the size and number of new structures and by the emerging opportunities in drug design and genetic engineering. A visual computing environment is being developed which permits interactive modeling of biopolymers by linking a 3D molecular graphics program with an efficient molecular dynamics simulation program executed on remote high-performance parallel computers. The system will be ideally suited for distributed computing environments, by utilizing both local 3D graphics facilities and the peak capacity of high-performance computers for the purpose of interactive biomolecular modeling. To create an interactive 3D environment three input methods will be explored: (1) a six degree of freedom "mouse" for controlling the space shared by the model and the user; (2) voice commands monitored through a microphone and recognized by a speech recognition interface; (3) hand gestures, detected through cameras and interpreted using computer vision techniques. Controlling 3D graphics connected to real time simulations and the use of voice with suitable language semantics, as well as hand gestures, promise great benefits for many types of problem solving environments. Our focus on structural biology takes advantage of existing sophisticated software, provides concrete objectives, defines a well-posed domain of tasks and offers a well-developed vocabulary for spoken communication.
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一个用于大规模生物分子建模的可视化计算环境
关于活细胞复杂分子结构的知识正在以惊人的速度积累。实现这一成功的关键技术是高性能计算和强大的分子图形应用,但该技术开始严重落后于新结构的大小和数量以及药物设计和基因工程中出现的机会所带来的挑战。目前正在开发一种可视化计算环境,通过将3D分子图形程序与在远程高性能并行计算机上执行的高效分子动力学模拟程序连接起来,实现生物聚合物的交互式建模。该系统将非常适合分布式计算环境,通过利用本地3D图形设施和高性能计算机的峰值容量来进行交互式生物分子建模。为了创建一个交互式的3D环境,我们将探索三种输入方法:(1)一个六自由度的“鼠标”,用于控制模型和用户共享的空间;(2)通过麦克风监控并通过语音识别接口识别的语音命令;(3)手势,通过相机检测并使用计算机视觉技术进行解释。控制连接到实时模拟的3D图形,使用具有适当语言语义的语音以及手势,为许多类型的问题解决环境带来了巨大的好处。我们对结构生物学的关注利用了现有的复杂软件,提供了具体的目标,定义了一个良好的任务领域,并为口语交流提供了一个良好的词汇。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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