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Physics Validation CI

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🔱 Technical Overview & Engineering Design

This repository serves as the Automated Physics Validation Engine for the gprMax GSoC project. The core objective is to bridge the gap between high-performance kernel optimization and physics integrity. By leveraging a Dockerized CI/CD pipeline, we ensure that every code modification is automatically verified against stringent electromagnetic wave standards.



🚀 Automated NRMSE Physics Logic

Unlike traditional software testing, physics-based software requires a Quantitative Validation Layer. Our system implements an automated Python-based kernel that executes the following workflow:

  • Data Acquisition: The pipeline extracts raw wave data from the simulation output files generated by the parallelized gprMax kernels.
  • Error Quantification: We calculate the Normalized Root Mean Square Error (NRMSE) to detect even the slightest deviations in wave propagation. This is critical when scaling to 100 Parallel Pads, as minor floating-point errors can accumulate.
  • Threshold Enforcement: The CI/CD workflow is configured with a Strict-Fail Policy. If the NRMSE exceeds 2%, the build is flagged, preventing inaccurate physics from reaching the production branch.


🔱 Implementation Details

1. Physics Kernel Logic:

The validation script ensures model convergence using the following mathematical approach:

RMSE = √mean((ref - sim)²)

<strong>NRMSE = RMSE / (max(ref) - min(ref))</strong>


2. CI/CD Workflow (GitHub Actions):

The pipeline operates on a Fail-Safe mechanism to prevent regression in kernel optimization.



📊 Project Roadmap & Execution

Milestone Task Description Status
01 Basic GitHub Actions Setup COMPLETED
02 NRMSE Physics Logic Integration COMPLETED
03 Automated Artifact Generation 🔄 IN_PROGRESS
04 Parallel Pad Simulation Scaling 📅 PLANNED


🔱 Infrastructure & Scalability Dashboard

To handle the computational load of 100+ parallel simulations, the infrastructure is built on Cloud-Native principles. By containerizing the entire environment, we achieve:

Scalability: Supporting dynamic scaling from 10 to 100 replicas using orchestration logic, ensuring smooth execution on AWS/GCP without resource stalling. Persistence: A dedicated MySQL backend tracks the historical NRMSE performance across different development sprints.


"Ensuring Physics Precision at Scale."


Built with Passion by Pratik Sharma | GSoC 2026 Contributor

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Scalable GPR simulation infrastructure featuring automated NRMSE physics validation and high-performance container orchestration.

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