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Learning-Based Approaches to Current Identification from Magnetic Sensors.
Sami Barmada1, Paolo Di Barba2, Alessandro Formisano3
1Department of Energy, Systems, Territory and Construction Engineering (DESTEC), University of Pisa, 56122 Pisa, Italy.
Estimating electric currents via magnetic fields is an Electromagnetic Inverse Problem (EIP). This study compares classical regularization with behavioral models, finding similar results when applied systematically to linear EIPs.
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Area of Science:
- Electrical Engineering
- Computational Electromagnetics
- Applied Mathematics
Background:
- Direct electric current measurement is often infeasible due to accessibility or technical constraints.
- Magnetic field measurements near current sources can estimate currents, but this involves solving an Electromagnetic Inverse Problem (EIP).
- Traditional EIP solutions rely on regularization schemes, while behavioral approaches offer an alternative without strict adherence to physical laws.
Purpose of the Study:
- To systematically investigate the impact of learning parameters in behavioral models for reconstructing Electromagnetic Inverse Problems (EIPs).
- To compare the performance of behavioral approaches against established regularization techniques for linear EIPs.
- To provide a benchmark for evaluating different methodologies in EIP modeling.
Main Methods:
- A benchmark linear Electromagnetic Inverse Problem (EIP) was utilized for practical illustration.
- Classical regularization methods were applied to estimate source currents from magnetic field data.
- Behavioral modeling approaches were employed, analyzing the influence of various learning parameters.
- Analogous correcting actions were developed for behavioral models, mirroring classical regularization techniques.
Main Results:
- Both classical regularization and behavioral models, when appropriately adjusted, can achieve comparable results in solving linear EIPs.
- The study demonstrates that learning parameters in behavioral models play a crucial role in the accuracy of EIP reconstruction.
- Systematic comparison highlights the strengths and weaknesses of both classical and neural network-based approaches for EIPs.
Conclusions:
- Behavioral models offer a viable alternative to classical regularization for solving Electromagnetic Inverse Problems (EIPs), particularly when physical constraints are challenging.
- Careful control and understanding of learning parameters are essential for the successful application of behavioral approaches in EIP reconstruction.
- The findings suggest that neural network-based methods can achieve results similar to traditional techniques, opening avenues for further research in data-driven inverse problem solutions.