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Accelerated visualization of transparent molecular surfaces in molecular dynamics

机译:分子动力学中透明分子表面的可视化

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The reactivity of the biomolecular structures is highly influenced by their structural features. Thus, studying these features along with the exploration of their dynamic behavior helps to understand the processes ongoing in living cells. This can be reached by the visual representation of these processes as visualization is one of the most natural ways to convey such information. However, none of the currently available techniques provides the biochemists with an intuitive real-time representation of the dynamic movements of molecules and precise geometrical based extraction of their structural features performed instantly. In this paper we introduce such a technique enabling the user to compute and also to visualize the molecular surface along with inner voids. To obtain a better insight into the molecule, our technique enables to visualize the molecular surface transparently. The opacity can be adjusted by changing user-defined parameters in order to enhance the perception of the surfaces of inner voids. All integrated algorithms run in real-time which gives the user a big variety of exploration possibilities. The importance of our approach is even amplified with respect to the fact that currently the size of molecular dynamics simulations is increasing dramatically and offline rendering thus becomes impracticable. The usability of our technique was evaluated by the domain experts.
机译:生物分子结构的反应性受到它们的结构特征的高度影响。因此,研究这些特征随着它们的动态行为的探索有助于了解在活细胞中持续的过程。这可以通过这些过程的视觉表示可以达到,因为可视化是传达此类信息的最自然方式之一。然而,目前任何可用的技术都没有提供具有直观实时表示的分子动态运动的直观实时表示,并且基于精确的基于几何的提取它们的结构特征即时进行。在本文中,我们介绍这样一种技术,使用户能够计算和将分子表面与内部空隙一起观察。为了获得更好的深入了解分子,我们的技术能够透明地可视化分子表面。可以通过改变用户定义的参数来调整不透明度,以增强内部空隙的表面的感知。所有集成算法都在实时运行,使用户提供了大量的探索可能性。关于目前分子动力学模拟的尺寸急剧和离线渲染因此变得不切实际,我们的方法甚至扩增了我们的方法。因此变得不切实际。我们技术的可用性由域专家评估。

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