3D Surface Reconstruction and Volume Approximation via the meshless methods
By: T. Li , M. Lei , James Snead and more
Potential Business Impact:
Builds 3D shapes from messy dots.
In this paper, we propose several mathematical models for 3D surface reconstruction and volume estimation from a set of scattered cloud data. Three meshless methods including the interpolation-based method by RBF, PDE-based approach by Kansa's method and the Method of Fundamental Solutions are employed and compared. For the optimal recovery of the surfaces, the selection of free parameters in related PDE models are further studied and analyzed. Besides, several criteria like distance are employed in above methods instead of the classical parameter lambda determination strategy, which leads to a more reliable reconstruction performance. Finally, the volume estimation of 3D irregular objects is proposed based on the optimal reconstructed geometric models via proposed meshless methods. Numerous numerical examples are presented to demonstrate the effectiveness of the proposed surface reconstruction methods and the volume estimation strategy.
Similar Papers
Improving the accuracy of meshless methods via resolving power optimisation using multiple kernels
Numerical Analysis
Improves computer simulations of messy, fast-moving fluids.
An Overview of Meshfree Collocation Methods
Numerical Analysis
Solves hard math problems without drawing grids.
Interpolation-based reproducing kernel particle method
Numerical Analysis
Lets computers model tough material changes easily.