首页> 外文期刊>Journal of Hydrology >Groundwater Visualisation System (GVS): A software framework for integrated display and interrogation of conceptual hydrogeological models, data and time-series animation
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Groundwater Visualisation System (GVS): A software framework for integrated display and interrogation of conceptual hydrogeological models, data and time-series animation

机译:地下水可视化系统(GVS):用于综合显示和询问概念性水文地质模型,数据和时间序列动画的软件框架

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Management of groundwater systems requires realistic conceptual hydrogeological models as a framework for numerical simulation modelling, but also for system understanding and communicating this to stakeholders and the broader community. To help overcome these challenges we developed GVS (Groundwater Visualisation System), a stand-alone desktop software package that uses interactive 3D visualisation and animation techniques. The goal was a user-friendly groundwater management tool that could support a range of existing real-world and pre-processed data, both surface and subsurface, including geology and various types of temporal hydrological information. GVS allows these data to be integrated into a single conceptual hydrogeological model. In addition, 3D geological models produced externally using other software packages, can readily be imported into GVS models, as can outputs of simulations (e.g. piezometric surfaces) produced by software such as MODFLOW or FEFLOW. Boreholes can be integrated, showing any down-hole data and properties, including screen information, intersected geology, water level data and water chemistry. Animation is used to display spatial and temporal changes, with time-series data such as rainfall, standing water levels and electrical conductivity, displaying dynamic processes. Time and space variations can be presented using a range of contouring and colour mapping techniques, in addition to interactive plots of time-series parameters. Other types of data, for example, demographics and cultural information, can also be readily incorporated. The GVS software can execute on a standard Windows or Linux-based PC with a minimum of 2. GB RAM, and the model output is easy and inexpensive to distribute, by download or via USB/DVD/CD.Example models are described here for three groundwater systems in Queensland, northeastern Australia: two unconfined alluvial groundwater systems with intensive irrigation, the Lockyer Valley and the upper Condamine Valley, and the Surat Basin, a large sedimentary basin of confined artesian aquifers. This latter example required more detail in the hydrostratigraphy, correlation of formations with drillholes and visualisation of simulation piezometric surfaces. Both alluvial system GVS models were developed during drought conditions to support government strategies to implement groundwater management. The Surat Basin model was industry sponsored research, for coal seam gas groundwater management and community information and consultation. The "virtual" groundwater systems in these 3D GVS models can be interactively interrogated by standard functions, plus production of 2D cross-sections, data selection from the 3D scene, rear end database and plot displays. A unique feature is that GVS allows investigation of time-series data across different display modes, both 2D and 3D. GVS has been used successfully as a tool to enhance community/stakeholder understanding and knowledge of groundwater systems and is of value for training and educational purposes. Projects completed confirm that GVS provides a powerful support to management and decision making, and as a tool for interpretation of groundwater system hydrological processes. A highly effective visualisation output is the production of short videos (e.g. 2-5. min) based on sequences of camera 'fly-throughs' and screen images. Further work involves developing support for multi-screen displays and touch-screen technologies, distributed rendering, gestural interaction systems. To highlight the visualisation and animation capability of the GVS software, links to related multimedia hosted online sites are included in the references.
机译:地下水系统的管理需要现实的概念性水文地质模型,作为数值模拟模型的框架,也需要系统的理解并将其传达给利益相关者和更广泛的社区。为了帮助克服这些挑战,我们开发了GVS(地下水可视化系统),这是一个使用交互式3D可视化和动画技术的独立桌面软件包。目标是提供一种用户友好的地下水管理工具,该工具可以支持一系列现有的现实世界和预处理数据,包括地表和地下数据,包括地质和各种类型的时间水文信息。 GVS允许将这些数据集成到单个概念水文地质模型中。另外,使用其他软件包在外部生成的3D地质模型可以很容易地导入到GVS模型中,例如由MODFLOW或FEFLOW之类的软件生成的模拟输出(例如测压表面)也可以轻松导入。可以集成钻孔,显示任何井下数据和属性,包括筛查信息,相交的地质,水位数据和水化学信息。动画用于显示空间和时间变化,并具有时间序列数据(例如降雨,积水和电导率),并显示动态过程。除了时间序列参数的交互图以外,还可以使用一系列轮廓和颜色映射技术来显示时间和空间变化。其他类型的数据,例如人口统计和文化信息,也可以很容易地合并。 GVS软件可以在具有至少2 GB RAM的标准Windows或基于Linux的PC上执行,并且通过下载或通过USB / DVD / CD分发模型输出既简单又便宜,这里描述了示例模型澳大利亚东北部昆士兰州的三个地下水系统:两个集约灌溉的无限制冲积地下水系统,洛克耶河谷和康达明河上游谷地,以及苏拉特盆地,这是一个大型承压自流含水层的沉积盆地。后一个示例在水文地层学,地层与钻孔的关联以及模拟测压表面的可视化方面需要更多细节。两种冲积系统GVS模型都是在干旱条件下开发的,以支持政府实施地下水管理的策略。苏拉特盆地模型是行业赞助的研究,用于煤层气地下水管理以及社区信息和咨询。这些3D GVS模型中的“虚拟”地下水系统可以通过标准功能进行交互查询,还可以生成2D横截面,从3D场景中选择数据,后端数据库和绘图显示。 GVS的独特功能是可以研究2D和3D不同显示模式下的时间序列数据。 GVS已成功用作增强社区/利益相关者对地下水系统的了解和知识的工具,对于培训和教育目的具有重要意义。已完成的项目证实,GVS为管理和决策提供了有力的支持,并作为解释地下水系统水文过程的工具。高效的可视化输出是根据摄像机“穿越”和屏幕图像的序列制作短视频(例如2-5分钟)。进一步的工作涉及开发对多屏显示和触摸屏技术,分布式渲染,手势交互系统的支持。为了突出GVS软件的可视化和动画功能,参考文献中包含指向相关的多媒体托管在线站点的链接。

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