
Contributed to NVIDIA/CUDALibrarySamples by developing and enhancing high-performance computing samples focused on cuBLASLt and GPU-accelerated linear algebra. Delivered new features such as expanded algorithm search spaces, FP8 custom-finding, and block-scaling samples for matrix multiplication, with careful attention to correctness and maintainability. Applied C++ and CUDA to refactor internal tooling, streamline sample initialization, and improve test coverage for transposed and precision-specific workloads. Addressed bugs related to matrix ordering and parameter handling, ensuring compatibility with cuBLAS and cuSOLVER. The work enabled more robust benchmarking, easier onboarding for contributors, and facilitated future optimizations in GPU computing and library development.
Month: 2025-04 Key features delivered: - Enhanced TestBench for cuBLASLt: added transposition options (transa/transb) and leading-dimension support (lda, ldb, ldc, ldd) across cuBLASLt samples; included a refactor of the TestBench constructor to simplify initialization and removed unnecessary includes in sample mains. - Block-scaling sample for FP8 matrix multiplication on Hopper: introduced a new block-scaling sample, with a new sample directory and helper updates to support new scaling modes, enabling testing and demonstration of block-scaling capabilities. Major bugs fixed: - No major bugs fixed this month. Focus was on feature delivery and code maintainability improvements (refactors and cleanup that reduce maintenance risk). Overall impact and accomplishments: - Expanded cuBLASLt testing and demonstration capabilities across architectures, improving evaluation accuracy for transposed layouts and FP8 workloads. - Streamlined sample initialization paths and reduced boilerplate, accelerating onboarding for testers and contributors and lowering maintenance burden. Technologies/skills demonstrated: - C++ and CUDA-based test bench design, cuBLASLt API integration, sample development, architecture-specific FP8 support, code refactoring, and maintainability improvements.
Month: 2025-04 Key features delivered: - Enhanced TestBench for cuBLASLt: added transposition options (transa/transb) and leading-dimension support (lda, ldb, ldc, ldd) across cuBLASLt samples; included a refactor of the TestBench constructor to simplify initialization and removed unnecessary includes in sample mains. - Block-scaling sample for FP8 matrix multiplication on Hopper: introduced a new block-scaling sample, with a new sample directory and helper updates to support new scaling modes, enabling testing and demonstration of block-scaling capabilities. Major bugs fixed: - No major bugs fixed this month. Focus was on feature delivery and code maintainability improvements (refactors and cleanup that reduce maintenance risk). Overall impact and accomplishments: - Expanded cuBLASLt testing and demonstration capabilities across architectures, improving evaluation accuracy for transposed layouts and FP8 workloads. - Streamlined sample initialization paths and reduced boilerplate, accelerating onboarding for testers and contributors and lowering maintenance burden. Technologies/skills demonstrated: - C++ and CUDA-based test bench design, cuBLASLt API integration, sample development, architecture-specific FP8 support, code refactoring, and maintainability improvements.
February 2025 monthly summary: Delivered significant enhancements to cuBLASLt and LtSgemmCustomFind samples, focusing on performance tuning, correctness, and maintainability. Key outcomes include expanded algorithm search space and CGA support for LtSgemmCustomFind, introduction of a new FP8 custom-finding sample, and multiple correctness fixes. Internal tooling refinements improved maintainability and extensibility across cuBLASLt and LtSgemmCustomFind. Business value: increased throughput potential for GEMM workloads, more robust and versatile sample suite for developers, and streamlined tooling to enable faster experimentation and future optimizations.
February 2025 monthly summary: Delivered significant enhancements to cuBLASLt and LtSgemmCustomFind samples, focusing on performance tuning, correctness, and maintainability. Key outcomes include expanded algorithm search space and CGA support for LtSgemmCustomFind, introduction of a new FP8 custom-finding sample, and multiple correctness fixes. Internal tooling refinements improved maintainability and extensibility across cuBLASLt and LtSgemmCustomFind. Business value: increased throughput potential for GEMM workloads, more robust and versatile sample suite for developers, and streamlined tooling to enable faster experimentation and future optimizations.

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