intel-canary

To prevent hardcoded ARM-specific NEON intrinsics from breaking macOS Intel x86_64 builds, use static portability linting to detect architecture-specific regressions across the codebase and CMake build system. This enforces SIMD portability before changes reach CI.

Managing macOS cross-architecture CI workflows without blocking releases is achieved by orchestrating Tier 0-3 validation workflows. This ensures Intel portability gates are checked independently, preventing silent regressions in universal binary support from halting the main pipeline.

Static portability linting identifies improper CMake processor checks by analyzing the build system configuration for architecture-gated SIMD issues. It detects hardcoded architecture assumptions, ensuring cross-architecture compliance and preventing x86_64 regressions in the build wiring.

Yes, you need Python3, yamllint, and actionlint to validate universal binary compliance. These dependencies execute the cross-architecture linting scripts and verify CI workflow configurations required for Tier 0-3 Intel portability validation.

You need to run cross-architecture build gates for SIMD optimizations when modifying cross-arch build wiring or adding SIMD instructions. This verifies that new optimizations do not introduce hardcoded ARM dependencies or break Intel-based macOS compatibility.

Your universal binary CI pipeline fails on x86_64 targets after SIMD updates because architecture-specific regressions or hardcoded ARM-specific NEON intrinsics were introduced. Static portability linting identifies these issues before they trigger cross-architecture build failures.