Manufactured Solutions for the Method-of-Moments Implementation of the Electric-Field Integral Equation
arXiv:2012.08681 · doi:10.1016/j.jcp.2021.110538
Abstract
Though the method-of-moments implementation of the electric-field integral equation plays an important role in computational electromagnetics, it provides many code-verification challenges due to the different sources of numerical error. In this paper, we provide an approach through which we can apply the method of manufactured solutions to isolate and verify the solution-discretization error. We accomplish this by manufacturing both the surface current and the Green's function. Because the arising equations are poorly conditioned, we reformulate them as a set of constraints for an optimization problem that selects the solution closest to the manufactured solution. We demonstrate the effectiveness of this approach for cases with and without coding errors.
References in corpus (4)
- On a Refinement-Free Calderón Multiplicative Preconditioner for the Electric Field Integral Equation
- Code-Verification Techniques for Hypersonic Reacting Flows in Thermochemical Nonequilibrium
- Symmetric Triangle Quadrature Rules for Arbitrary Functions
- Characterization and Integration of the Singular Test Integrals in the Method-of-Moments Implementation of the Electric-Field Integral Equation
Cited by in corpus (8)
- Nonintrusive Manufactured Solutions for Non-Decomposing Ablation in Two Dimensions
- Code-Verification Techniques for the Method-of-Moments Implementation of the Electric-Field Integral Equation
- Code-Verification Techniques for the Method-of-Moments Implementation of the Magnetic-Field Integral Equation
- Code-Verification Techniques for the Method-of-Moments Implementation of the Combined-Field Integral Equation
- Manufactured Solutions for an Electromagnetic Slot Model
- Code-Verification Techniques for an Arbitrary-Depth Electromagnetic Slot Model
- Code Verification for Practically Singular Equations
- Code-Verification Techniques for Particle-in-Cell Simulations with Direct Simulation Monte Carlo Collisions