LBM
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LBM
Overview :
This product is a project based on the Lattice Boltzmann Method (LBM), a numerical technique for computational fluid dynamics that describes macroscopic fluid behavior by simulating the motion of microscopic particles. Its significance lies in its ability to efficiently simulate complex fluid systems, such as multiphase flow and flow in porous media. Key advantages include high computational efficiency, relatively simple boundary condition handling, and ease of parallelization. The project, hosted on GitHub, is open-source and suitable for researchers and students for fluid dynamics simulation research and learning. It is intended for research and academic use and is currently free.
Target Users :
The target audience primarily includes researchers in fluid dynamics, students in related university disciplines, and developers interested in computational fluid dynamics. For researchers, this model can assist in simulating complex fluid systems, verifying theories and hypotheses. For students, it serves as an excellent tool for learning and understanding numerical methods in fluid dynamics, enhancing knowledge through practical application. For developers, it provides an open-source code base for development and improvement, applicable to related engineering and research projects.
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Use Cases
1. Simulating fluid flow in microfluidic chips, analyzing the mixing and transport processes of liquids within the chip.
2. Studying the flow and diffusion phenomena of different gases in the atmosphere, providing data support for environmental science.
3. Simulating blood flow in blood vessels, assisting research and analysis in the biomedical field.
Features
1. Performs fluid dynamics simulation based on the Lattice Boltzmann Method, enabling numerical calculation of various types of fluid flow.
2. Handles multiphase flow problems, simulating the interaction and flow characteristics between different phases.
3. Applicable to fluid flow simulation in porous media, analyzing fluid motion in complex structures.
4. Provides flexible boundary condition settings to adapt to different simulation scenarios and needs.
5. Supports parallel computing to improve simulation efficiency and handle large-scale simulation tasks.
6. Can be used for teaching and research purposes, helping students and researchers understand and study fluid dynamics phenomena.
7. Provides a certain code structure and algorithm implementation to facilitate secondary development and extension by users.
8. Visualizes simulation results, intuitively displaying the movement and distribution of fluids.
How to Use
1. Access the project's GitHub page (https://github.com/gojasper/LBM) and download the project code.
2. Configure the relevant development environment based on your needs and computer configuration, such as installing necessary programming language environments (depending on the project's actual situation) and dependent libraries.
3. Read the project's documentation and instructions to understand the code structure and functions of each part.
4. Set appropriate parameters according to simulation requirements, such as fluid physical properties and boundary conditions.
5. Run the code to start the fluid dynamics simulation calculation.
6. Wait for the simulation calculation to complete and analyze and process the results.
7. If necessary, adjust the parameters based on the simulation results and rerun the simulation to obtain more satisfactory results.
8. You can conduct secondary development and expansion of the code based on your research and application needs.
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