|
所在平台: Udemy |
课程主页: https://www.udemy.com/course/openfoam-beginner-core-courses/
课程评论：没有评论
**课程名称：OpenFOAM 入门核心课程** **课程概述：** 计算流体动力学（CFD）是利用数值方法求解复杂的流体动力学和传热方程的高级工具。OpenFOAM 是一个开源免费的 CFD 求解器，拥有世界上最大的社区。尽管其功能强大，但学习曲线陡峭是其主要的缺点。本课程旨在帮助初学者降低学习和使用这一强大工具的门槛。 在本课程中，您将通过循序渐进的理论讲解和实际操作，亲身体验 OpenFOAM 的使用。课程将以简单直观的方式讲解与 CFD 模拟设置相关的核心理论，帮助您将其应用于实际问题。您无需具备 Linux 或其他编程基础，课程中将讲解与 OpenFOAM 操作相关的基础 Linux 命令，并分享一些高效的编程技巧。 **课程内容结构：** 本课程分为五个部分： 1. **引言：** 介绍 CFD 和 OpenFOAM 的基本概念。 2. **核心知识：** 深入讲解 OpenFOAM 的核心理论和基本操作。 3. **实用案例：** 通过一系列具有代表性的案例，展示 OpenFOAM 的应用。 4. **进阶理论：** 探讨一些更深入的理论知识，以提升您的理解。 5. **“真实”应用：** 介绍更贴近实际工作流程的应用场景。 **课程重点：** 课程将重点关注以下方面： * **基础“教程”案例文件夹：** 熟悉 OpenFOAM 的案例结构。 * **网格生成：** 使用 `blockMesh` 和 `snappyHexMesh` 进行网格划分。 * **几何编辑：** 利用 Blender 进行几何建模。 * **后处理：** 学习如何可视化和分析仿真结果。 * **湍流模型：** 理解和应用各种湍流模型。 * **格式与算法理论：** 掌握数值格式和算法的基本原理。 * **“真实世界”工作流程：** 了解实际的 CFD 工作流程。
Computational Fluid Dynamics (CFD) is an advanced tools to solve complex fluid dynamic and heat transfer equations using numerical method. OpenFOAM is an open-source and free to use CFD solver with the largest community in the world. Despite its powerful capability, its major drawback is the step learning process. By making this course, I hope I can reduce the effort of new learners to start learning using this amazing and powerful tool.In this course, you will get hands-on experience using OpenFOAM following the core theories related to the setting used in the simulation simply and intuitively, so you can use it for your applications. You don't have to have basic LINUX or other programming experience before this course; we will explain some basic useful LINUX commands only related to the operation of OpenFOAM, and some efficient programming tricks will be also explained during the course. This course will be separated into five parts (1) introduction, (2) core knowledge, (3) useful cases, (4) some advanced theories, and (5) More "realistic" applications.with the focus on the basic "tutorial" case folder, meshing using blockMesh and snappyHexMesh, geometry editing using Blender, post-processing, turbulent modeling, scheme and algorithm theory, and some "real-world" workflow.
