Discover the innovative technology of TwinMesh and how it revolutionizes the field of meshing.
Introduction to TwinMesh
TwinMesh is a revolutionary meshing technology that has transformed the field of mesh generation. It is specifically designed for the simulation of positive displacement machines, such as pumps, compressors, and motors.
With TwinMesh, engineers can accurately model the complex geometry and flow behavior of these machines, allowing for more accurate simulations and analysis. This technology enables engineers to optimize the performance, efficiency, and reliability of positive displacement machines, leading to significant advancements in various industries.
The simulation workflow starts with generating the grid for the machine with TwinMesh. The stator component could be meshed with Ansys meshing and combined. The preprocessing and simulation can be performed with Ansys tools such as CFX-Pre and Solve. The simulation results can be post-processed with Ansys tools such as CFD-Post or EnSight (Figure 1).
Figure 1. Simulation Workflow
Applications of TwinMesh
TwinMesh has a wide range of applications across different industries. Its advanced meshing capabilities and tailored algorithms make it an ideal choice for simulating various positive displacement machines. Here are some key applications of TwinMesh:
Figure 2. Available Types of Machines in TwinMesh
Advantages of TwinMesh
TwinMesh offers several advantages over traditional meshing methods, making it the preferred choice for simulating positive displacement machines. Here are some key advantages of TwinMesh:
- Accurate Meshing: TwinMesh provides highly accurate meshing of positive displacement machines, capturing the complex geometry such as small gaps/clearances and flow behavior with precision. This accuracy leads to more reliable simulation results and better understanding of machine performance.
- Efficient Mesh Generation: TwinMesh employs advanced algorithms and techniques to generate meshes efficiently. This reduces computational costs and allows for faster simulations, enabling engineers to iterate and optimize designs more quickly.
- Easy-to-Use Interface: TwinMesh features a user-friendly interface that makes meshing of positive displacement machines intuitive and straightforward. Engineers with varying levels of meshing experience can quickly learn and utilize TwinMesh to its full potential.
- Compatibility with Simulation Software: TwinMesh is compatible with popular simulation software, such as ANSYS, STAR-CCM+, and COMSOL. This seamless integration allows engineers to easily import TwinMesh-generated meshes into their simulation environment, streamlining the simulation workflow.
- Optimization Capabilities: TwinMesh enables engineers to perform optimization studies on positive displacement machines. By modifying the geometry and other parameters, engineers can identify the optimal design that maximizes performance, efficiency, and reliability.
These advantages make TwinMesh a powerful tool for engineers and researchers who are looking to enhance the simulation and analysis of positive displacement machines. Its accuracy, efficiency, and user-friendly interface contribute to improved product development and optimization in various industries.
Sample Application: 2D Lobe Pump
To illustrate the capabilities of TwinMesh, let's consider a sample application: the simulation of a 2D lobe pump. Lobe pumps are commonly used in industries such as oil and gas, food processing, and pharmaceuticals.
The TwinMesh workflow (Figure 3) is as follows: (1) import the rotor geometry, (2) define the rotors 1 and 2 (difference in colors), (3) define the circular cases for both rotors, (4) create the interface on the current rotor position, (5) generate grid, and (6) grid quality check. Depending on the appearance of the interface and the quality of the mesh at the current rotor position, the interface and grid should be generated for the other rotor positions that the simulation is considered.
Figure 3. Summary of TwinMesh Workflow
Please follow the attached video for further details of TwinMesh, and the 2D Lobe Pump application from mesh generation to the postprocessing.
May 22, 2024