Computational approaches for analysis and design of complex multiphase flow systems

对基于仿真的工程科学(SBES)的兴趣已经从最初的好奇成倍增长，成为未来最有前途的研究领域之一。随着计算机速度和性能的迅速提高，SBES正成为学术界和工业界研究的一个关键和中心课题。SBES提供了极好的前景，将加拿大大学的研究推向国际科学的前沿，同时提高加拿大制造公司的盈利能力和竞争力。在许多情况下，自然和工程系统的复杂性源于它们的多尺度和多相性质(例如，混合过程、微流体系统、乳状液、血液流动、石油和天然气提取、污染物传输等)。我们对这些复杂的流动缺乏了解，阻碍了我们实现改善加拿大人民福利所需的革命性设计的突破的能力。目标这项提议的长期目标是概括先进的知识和诀窍，以便简化格子玻尔兹曼方法(LBM)的获取和使用，以改善与工业相关的多相流系统的性能。高性能计算的第一个研究轴将开发一个用于多相流模拟的新的开源框架。将利用统一的编程方法和生产力工具来推动生产力和采用我们的科学研究。这将为建立解决未来工业需求所需的SBES工具提供坚实的基础。多相流数值方法研究的第二个轴线将提供开放获取的信息资源，使工业界更容易考虑多相流模拟，并将其纳入其分析和设计实践。新的、改进的、高效的多相流模型的发展也将使我们处于有利地位，以应对新的挑战。第三个应用轴应用于我们对两类具有工业意义的多相流问题的研究。对多孔介质和静态混合器中复杂多相流系统的分析和设计将被探索，以展示我们方法的范围和广度。解决工业复杂性问题的第三个轴心也将显著增加我们研究的影响，因为这些工具和方法将公之于众。总而言之，这一三轴开源开放获取战略旨在实现广泛的知名度，并围绕拟议的研究计划发展一个强大的SBES科学社区。

Interest for Simulation-Based Engineering Science (SBES) has grown exponentially from a curiosity to become one of the most promising areas of future research. With the rapidly increasing speed and performance of computers, SBES is becoming a key and central topic in both academic and industrial research. SBES offers excellent perspectives to propel Canadian university research to the forefront of international science while improving the profitability and competitiveness of Canadian manufacturing companies. In many instances, the complexity of natural and engineered systems arises from their multiscale and multiphase nature (e.g., mixing processes, microfluidic systems, emulsions, blood flows, oil and gas extraction, contaminants transport, to name a few). Our poor understanding of these complex flows hampers our ability to achieve the breakthrough to revolutionary design needed to improve the welfare of the Canadian populations. GOAL The long-term goal of this proposal is to encapsulate advanced knowledge and know-how in order to simplify access to and use of the Lattice Boltzmann Method (LBM) to improve the performance of multiphase flow systems relevant to industry. A FIRST axis of research on high-performance computing will develop a novel open-source framework for the simulation of multiphase flows. A unified programming approach and productivity tools will be leveraged to drive productivity and the adoption of our scientific research. This will provide a strong foundation on which to build SBES tools needed to tackle future industrial needs. A SECOND axis of research on numerical methods for multiphase flows will provide open-access information resources to make it easier for industry to consider and include multiphase flow simulations in their analysis and design practices. The development of new improved and efficient multiphase flow models will also place us in a favorable position to deal with new challenges. A THIRD axis on applications applies our research on two classes of multiphase flows problems that are of industrial relevance. The analysis and design of complex multiphase flow systems in porous media and static mixers will be explored to demonstrate the scope and breadth of our approach. The third axis addressing problems of industrial complexity will also significantly increase the impact of our research as these tools and approaches will be made publicly available. Together, this three-axis open-source open-access strategy aims to achieve a broad visibility and to develop a strong SBES scientific community around the proposed research program.