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所在平台: Udemy |
课程主页: https://www.udemy.com/course/flood-hydrologic-modeling-using-openflows-aulageo/
课程评论：没有评论
课程名称：洪水：使用OpenFlows进行水文建模 - AulaGEO 概述：本课程旨在教授学生如何使用FLOOD软件，通过准确可靠的洪水风险分析数据建模和模拟极端事件。FLOOD是专为城市、河流和沿海地区的洪水风险分析和缓解而设计的洪水建模软件。学员将利用空间分布的数值模型快速模拟所有水文和水力过程，从而支持应急计划和绿色创新设计。课程采用多尺度的1D/2D方法，支持洪水预警系统（FEWS）应用。 在本课程中，您将学习以下内容： 1. **缓解城市洪水**：了解城市洪水对居民的风险、财产和基础设施的损害，以及对城市服务的影响。学习创建高效解决方案，提高城市排水系统的韧性，并实施缓解措施，例如低影响开发和绿色倡议，详细模拟以识别排水系统中的瓶颈和热点。 2. **预防河流洪水**：计算河流流量，评估和优化水库运营，以减少河流洪水造成的损害，以气候变化为背景设计和改进应急结构和洪水抗御土地利用策略。 3. **建模海洋洪水**：通过动态建模与海洋洪水相关的复杂过程，找到定义和改善风暴潮及海啸保护计划的准确解决方案。 4. **分析洪水淹没区域**：计算淹没区域的范围，估计基于水柱高度和峰值流速的洪水危险，使用OpenFlows SewerGEMS模拟地表和暴雨水流。 5. **实现真实情境、动画和可视化**：使用集成的可视化能力探索和展示模型结果，包括生成结果的平滑动画，帮助相关利益方更好地理解洪水事件的风险、影响及可能的缓解措施。 6. **构建和管理水力模型**：利用导入许多知名外部数据格式，最大化地理空间和工程数据的投资回报，快速启动模型构建过程，并有效管理模型，专注于做出最佳工程决策。 课程结构包括从基础知识入手的各个环节，如引入已有模型、项目结构导航、数据可视化、模型模拟、城市流量及流域模拟等。 通过该课程，您将掌握洪水建模的重要技能，以应对日益严重的洪水风险，推动更好的城市和区域水资源管理。
This is a course to learn the use of FLOOD, a software to model and simulate extreme events using accurate and reliable flood risk analysis dataFLOOD is flood modeling software for analyzing and mitigating flood risk in urban, riverine, and coastal areas. Using spatially distributed numerical models, users can quickly simulate all hydrological and hydraulic processes to support emergency planning and green-initiative design. Apply a multi-scale 1D/2D approach to support flood early warning systems (FEWS).In this course you will learn the use of a software specialized in this features:Mitigate urban floodingUrban flooding poses risks to residents, damages property and infrastructure, and disrupts urban services. Create efficient solutions that increase the resilience of urban drainage systems and implement mitigation measures, such as low-impact development and green initiatives. Mitigate these issues by producing detailed simulations to identify bottlenecks and hotspots that hinder the capacity of stormwater drainage systems.Prevent riverine floodingCalculate river flow to understand, evaluate, and optimize reservoir operations to minimize and prevent damages from riverine floods. Design and improve emergency structures and outline flood-resilient land use strategies, all within a climate change context. #AuaGEO Simulate the exchange of water between the river flow and (sub)surface flow based on hydraulic gradients. Produce inundation maps, flood risk maps, and hazard maps that address riverine flows, river defense capacity, and large-scale land use changes. Estimate the drainage network from topographic maps and to interpolate cross sections in space.Model coastal floodingCoastal flooding can be caused by high tides, storm surges, and tsunamis, sometimes in combination with insufficient urban drainage capacity or high upstream river flows. Dynamically model complex array of processes related to coastal flooding to find accurate solutions for defining and improving storm surge and tsunami protection plans.Analyze flood inundation areasCalculate the extent of flooded areas and estimate the flood hazard based on water column heights and peak flow velocities. Easily integrate models generated with OpenFlows SewerGEMS to simulate surface and stormwater flow. Create scenarios and make comparisons among different alternatives to rapidly find the best solution for flood risk mitigation.Add real-world context, animation, and visualizationExplore and present model results using a wide range of integrated visualization capabilities, including the option to make smooth, continuous animations of the obtained results. Help stakeholders better understand the risks and impacts of flooding events and potential mitigation actions with integrated 3D reality models. Bring simulations to life by generating realistic visualizations of flood events using LumenRT.Build and manage hydraulic modelsLeverage and import many well-known external data formats to maximize ROI on geospatial and engineering data. Jumpstart the model building process and manage models effectively to keep focus on making the best engineering decisions.#AulaGEO CONTENTEXISTING WORKSPACELesson 1 Introduction Lesson 2 Importing an Existing Model Lesson 3 Navigation through Project Structure Lesson 4 Visualizing Mapped Data Lesson 5 Model Simulation Lesson 6 Visualizing Time Series Output Lesson 7 1D Model Node or Pipe Files Lesson 8 Visualizing Mapped Output NEW WORKSPACE FROM SCRATCHLesson 9 Creating New Workspace Lesson 10 Importing Digital Terrain Lesson 11 Grid Creation Lesson 12 Smooth Digital Terrain Lesson 13 Simulation Setting Lesson 14 Time Series Data URBAN FLOW SIMULATIONLesson 15 Introduction Lesson 16 Getting Started Lesson 17 Review Existing Information Lesson 18 Grid for Digital Terrain Lesson 19 Delimiting the Study Area Lesson 20 Defining Grid Data for Surface Roughness Coefficient Lesson 21 Defining Grid Data for Surface Permeability Lesson 22 Creating a New Domain Lesson 23 Importing the Inlets Shapefile into OpenFlows FLOOD Lesson 24 Setting Time Series Reports for Stormwater Network Elements WATERSHED SIMULATIONLesson 25 Importing Existing Workspace Lesson 26 Review Existing Project Lesson 27 Rainfall-Runoff Simulation in Watershed Lesson 28 Topographic Grid Data Lesson 29 Computational Grid Lesson 30Terrain Grid and Smooth GridLesson 31 River Burn In Lesson 32 Remove Depressions Lesson 33 Domain Association & Water Delineation Lesson 34 Cross Sections of the Drainage Network Lesson 35 Configuring New Simulation Lesson 36 Time Series Data Lesson 37 Simulation and Results BENTLEY HYDROLICS AND HYDROLOGY PRODUCTSLesson 38 All Products
