Car steering knuckle reverse design
The use of 3D scanning technology can improve the efficiency of industrial parts design and production. Take the automobile steering knuckle as an example. The steering knuckle is an important component in the automobile steering system, and its design accuracy has a direct impact on vehicle handling performance. Traditional measurement tools are inefficient and difficult to guarantee accuracy, but with the help of 3D scanning technology, every subtle feature and curve of complex parts can be accurately restored. Through steps such as scanning, model processing, reverse modeling and optimization, high-precision reverse modeling can be achieved and save time and costs. The advantages of this technology include precise restoration, increased efficiency, cost savings and sustainable innovation.
1. Scanning phase
Use Revopoint MINI2 3D scanner to comprehensively scan the car's steering knuckle to generate dense and complete three-dimensional point cloud data. During the scanning process, pay attention to adjusting the position and angle of the device to ensure that all feature areas are not missed, and follow the optimal scanning distance and lighting conditions to obtain the highest quality data.
Use Revopoint MINI2 3D scanner to comprehensively scan the car's steering knuckle to generate dense and complete three-dimensional point cloud data. During the scanning process, pay attention to adjusting the position and angle of the device to ensure that all feature areas are not missed, and follow the optimal scanning distance and lighting conditions to obtain the highest quality data.
2. Model processing
Revo Scan software has powerful point cloud cleaning, alignment, fusion, denoising and other functions. It can transform messy point cloud data into a smooth and continuous triangular mesh model, laying a solid foundation for subsequent modeling.
Revo Scan software has powerful point cloud cleaning, alignment, fusion, denoising and other functions. It can transform messy point cloud data into a smooth and continuous triangular mesh model, laying a solid foundation for subsequent modeling.
3. Reverse modeling
Use surface reconstruction tools to create precise geometric features based on the processed mesh model, and further build a parametric solid model to ensure that the model has full expression of design intent and flexibility for later modifications.
Use surface reconstruction tools to create precise geometric features based on the processed mesh model, and further build a parametric solid model to ensure that the model has full expression of design intent and flexibility for later modifications.
4. Check optimization
Conduct dimensional inspection, GD&T (Geometric Dimension and Tolerance) annotation, tolerance analysis, etc. on the model obtained through reverse engineering to ensure that all indicators of the model meet the design specifications and manufacturing requirements. If necessary, model correction and optimization are performed until production standards are reached.
Conduct dimensional inspection, GD&T (Geometric Dimension and Tolerance) annotation, tolerance analysis, etc. on the model obtained through reverse engineering to ensure that all indicators of the model meet the design specifications and manufacturing requirements. If necessary, model correction and optimization are performed until production standards are reached.
