
Hao Wu enhanced the amrvac/AGILE-experimental repository by developing and integrating advanced radiative cooling and hyperbolic thermal conduction modules, focusing on device-ready execution and cross-physics portability. Using Fortran, CUDA, and OpenACC, Hao refactored radiation handling for extensibility, improved build system configuration to support HD, MHD, and FFHD modules, and strengthened CI pipelines for robust testing. The work addressed device-side data management, deep-copy semantics, and CUDA-specific bugs, ensuring stable performance across heterogeneous hardware. Hao’s contributions demonstrated depth in computational physics and scientific computing, delivering maintainable, extensible solutions that improved both the fidelity and reliability of physics simulations.

In September 2025, AGILE-experimental advanced radiation models and build pipelines were enhanced to support new physics modules, improve CUDA robustness, and strengthen CI/testing. The work focused on refactoring radiation handling for extensibility, updating the build/configuration pipeline for HD/MHD/FFHD, and fixing CUDA-specific issues to improve stability across devices.
In September 2025, AGILE-experimental advanced radiation models and build pipelines were enhanced to support new physics modules, improve CUDA robustness, and strengthen CI/testing. The work focused on refactoring radiation handling for extensibility, updating the build/configuration pipeline for HD/MHD/FFHD, and fixing CUDA-specific issues to improve stability across devices.
August 2025 (2025-08) delivered core physics enhancements for AGILE-experimental with FFHD integration and device-ready cross-physics execution. Key work included introducing a radiative cooling physics module and its integration with FFHD, extending FFHD with hyperbolic thermal conduction, and establishing a device-ready configuration baseline. These efforts improved physics fidelity, cross-physics portability on heterogeneous hardware, and test coverage, while addressing performance and deployment reliability. Notable engineering improvements included fixing OpenACC directive issues, relocating rc_fl from physics to mod_rc, and ensuring device-side data handling and deep-copy semantics for cooling tables.
August 2025 (2025-08) delivered core physics enhancements for AGILE-experimental with FFHD integration and device-ready cross-physics execution. Key work included introducing a radiative cooling physics module and its integration with FFHD, extending FFHD with hyperbolic thermal conduction, and establishing a device-ready configuration baseline. These efforts improved physics fidelity, cross-physics portability on heterogeneous hardware, and test coverage, while addressing performance and deployment reliability. Notable engineering improvements included fixing OpenACC directive issues, relocating rc_fl from physics to mod_rc, and ensuring device-side data handling and deep-copy semantics for cooling tables.
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