
Developed a robust toroidal magnetic field model for the paulgessinger/acts repository, focusing on simulation fidelity and reproducibility within ACTS-based workflows. The implementation used C++ and Python, leveraging Biot-Savart law to enable configurable parameters such as radii, current, and coil count. Python bindings were added for seamless integration, and the feature was incorporated into the build system using CMake with conditional compilation to maintain modularity. End-to-end examples in Python demonstrated usage and validation, supporting quick adoption in GeoModel and Geant4 simulations. The work emphasized clean integration, flexible configuration, and realistic modeling for efficient evaluation of magnetic field configurations.
Monthly performance summary for 2026-01 focused on delivering a robust toroidal magnetic field model for the ACTS-based suite, with Python bindings and end-to-end example coverage. The work emphasizes business value (simulation fidelity, reproducibility, and quicker evaluation of magnetic configurations) and technical achievement (clean integration into build and examples, with configurable parameters).
Monthly performance summary for 2026-01 focused on delivering a robust toroidal magnetic field model for the ACTS-based suite, with Python bindings and end-to-end example coverage. The work emphasizes business value (simulation fidelity, reproducibility, and quicker evaluation of magnetic configurations) and technical achievement (clean integration into build and examples, with configurable parameters).

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