虚拟现实技术在纳米尺度上提高采油过程的可视化

J. M. D. Almeida, C. R. Miranda
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引用次数: 1

摘要

这项工作通过将分子动力学(MD)模拟与游戏虚拟现实(VR)技术相结合,在纳米尺度上提供了油气相关系统和提高采收率(EOR)过程的沉浸式可视化。主要目标是在分子水平上了解油/盐水/岩石界面,并在原子尺度上确定潜在的提高采收率机制。在这种沉浸式体验中,用户可以直接交互并增强其对EOR应用程序原子环境的感知。基于纳米颗粒在油-盐水界面、油-盐水在二氧化硅纳米孔和方解石-盐水-油界面的MD计算,经验涵盖了纳米eor、纳米ior和纳米低盐工艺。MD模拟是用Lammps封装进行的。可视化是通过HTC Vive和Oculus Rift虚拟现实耳机与Nomad VR和Unitymol软件完成的。对于Nomad VR来说,轨迹之前是从Lammps分子动力学模拟中保存的,而对于Unitymol来说,Lammps的模拟是通过iMD(交互式MD)插件实时执行的。用户可以使用Nomad VR可视化和导航轨迹。此外,Unitymol还允许用户在VR体验期间实时对选定的分子施加力。作为比较手段,还使用基于手机的VR头显和Nomad VR应用程序进行了可视化。我们的演示表明,虚拟现实与分子模拟相结合,可以成为一种有趣而有吸引力的方式,以提高公众对纳米尺度的感知。此外,它是一种新兴的工具,可以表征、提高对纳米系统和EOR方法的理解,并提供分子见解,还可以与石油和天然气行业正在进行的数字化过程相结合。
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Virtual Reality for Visualization of Enhanced Oil Recovery Processes at Nanoscale
This work provides an immersive visualization of oil & gas relevant systems and enhanced oil recovery (EOR) processes at the nanoscale by coupling molecular dynamics (MD) simulations with gamming virtual reality (VR) technologies. The main objective is to understand oil/brine/rock interfaces at molecular level and identify the underlying EOR mechanisms at the atomic scale. Within this immersive experience, the user can directly interact and enhance its perception of atomic environment for EOR applications. The experiences cover nano-EOR, nano-IOR and low-salt processes at nanoscale based on MD calculations of nanoparticles at oil-brine interfaces, oil-brine at silica nanopores and calcite-brine-oil interfaces, respectively. The MD simulations are performed with the Lammps package. The visualizations were done with an HTC Vive and Oculus Rift virtual reality headsets with the Nomad VR and Unitymol software. For the Nomad VR, the trajectories are previously saved from a Lammps molecular dynamics simulation, whereas, for the Unitymol, the simulation with Lammps is performed on-the-fly through the iMD (interactive MD) plugin. The user can visualize and navigate through the trajectories using the Nomad VR. Furthermore, the Unitymol also allows the user apply forces on selected molecules on real time during the VR experience. As means of comparison, the visualization was also performed with cell-phone based VR headsets with the Nomad VR application. Our demonstrations show that VR combined with molecular simulations can be an interesting and attractive way to improve the perception of the nanoscale for the general public. Additionally, it is an emergent tool to characterize, improve the understanding and provide molecular insights about nanosystems and the EOR methods, and also to be integrated with on-going digitalization processes within the oil & gas industry.
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