
Worked on the ROCm/aiter repository to deliver high-performance deep learning kernels and quantization tooling for large language models and Mixture of Experts (MoE) workloads. Developed and optimized Triton and CUDA kernels for attention mechanisms, matrix multiplication, and quantization, including FP8, INT4, and MXFP4 formats, targeting efficient inference and training on AMD GPUs. Enhanced kernel configurability and observability through JSON-based configuration and integrated logging, while maintaining code quality with systematic refactoring and robust testing. Addressed stability and CI reliability by implementing compiler workarounds and test synchronization. Leveraged Python, C++, and Triton to support scalable, hardware-adaptive AI model deployment.
In April 2026, delivered Mixture of Experts (MoE) integration in Triton for ROCm/aiter with a16w4 optimization, established performance benchmarks, and implemented unit-test improvements to ensure scalable AI workloads and robust memory management. This work enhances throughput and efficiency for MoE workloads on AMD GPUs and provides a solid foundation for upcoming AI model optimizations. Collaboration included resolving PR review issues and co-authoring with Rahul Batra (PR #2770).
In April 2026, delivered Mixture of Experts (MoE) integration in Triton for ROCm/aiter with a16w4 optimization, established performance benchmarks, and implemented unit-test improvements to ensure scalable AI workloads and robust memory management. This work enhances throughput and efficiency for MoE workloads on AMD GPUs and provides a solid foundation for upcoming AI model optimizations. Collaboration included resolving PR review issues and co-authoring with Rahul Batra (PR #2770).
Monthly summary for 2025-09: Delivered stability and performance work in ROCm/aiter with Triton and JAX integration. Focused on test reliability and kernel-level enhancements to support future ML workloads. Key outcomes include a temporary workaround for a known Triton compiler bug that stabilizes a8w8 tests, Triton kernel enhancements with JAX integration and performance improvements (quantization, attention, fused kernels), and repository updates to support the JAX-Triton path and correct arch information. Demonstrated skills in Triton kernel work, JAX integration, benchmarking, and cross-team collaboration to deliver business value through more reliable tests and faster kernels.
Monthly summary for 2025-09: Delivered stability and performance work in ROCm/aiter with Triton and JAX integration. Focused on test reliability and kernel-level enhancements to support future ML workloads. Key outcomes include a temporary workaround for a known Triton compiler bug that stabilizes a8w8 tests, Triton kernel enhancements with JAX integration and performance improvements (quantization, attention, fused kernels), and repository updates to support the JAX-Triton path and correct arch information. Demonstrated skills in Triton kernel work, JAX integration, benchmarking, and cross-team collaboration to deliver business value through more reliable tests and faster kernels.
In ROCm/aiter during 2025-08, I focused on stabilizing Triton-related tests, expanding kernel observability, and increasing configurability to support diverse hardware. The month delivered operational test reliability improvements, enhanced debugging capabilities, and reduced test noise, laying groundwork for more robust performance across platforms. Overall impact: Improved CI reliability and faster feedback loops; reduced flaky failures; better maintainability and adaptability for future hardware and configurations. Technologies/skills demonstrated include CUDA cache management, test synchronization, test pruning for CI stability, Triton kernel instrumentation, and JSON-based configuration for dynamic hardware settings.
In ROCm/aiter during 2025-08, I focused on stabilizing Triton-related tests, expanding kernel observability, and increasing configurability to support diverse hardware. The month delivered operational test reliability improvements, enhanced debugging capabilities, and reduced test noise, laying groundwork for more robust performance across platforms. Overall impact: Improved CI reliability and faster feedback loops; reduced flaky failures; better maintainability and adaptability for future hardware and configurations. Technologies/skills demonstrated include CUDA cache management, test synchronization, test pruning for CI stability, Triton kernel instrumentation, and JSON-based configuration for dynamic hardware settings.
July 2025 monthly summary for ROCm/aiter focusing on business value, stability, and cross-hardware readiness. Delivered a unified quantization API with int8/fp8 support and MoE integration, stabilized MHA operations, introduced JSON-based kernel parameter configuration for flexible cross-hardware tuning, and added GEMM logging for observability. These efforts improve quantization performance and accuracy, numerical stability in attention mechanisms, kernel configurability across platforms, and operational debugging capabilities.
July 2025 monthly summary for ROCm/aiter focusing on business value, stability, and cross-hardware readiness. Delivered a unified quantization API with int8/fp8 support and MoE integration, stabilized MHA operations, introduced JSON-based kernel parameter configuration for flexible cross-hardware tuning, and added GEMM logging for observability. These efforts improve quantization performance and accuracy, numerical stability in attention mechanisms, kernel configurability across platforms, and operational debugging capabilities.
June 2025 ROCm/aiter performance and reliability update. Focused on licensing hygiene, kernel-level performance, and model-architecture stability to deliver business value through compliant software, higher throughput, and more reliable CI. Work spanned licensing standardization, Triton GEMM/FP4-FP8 enhancements, MHA robustness improvements, and MoE refactor with configuration enhancements.
June 2025 ROCm/aiter performance and reliability update. Focused on licensing hygiene, kernel-level performance, and model-architecture stability to deliver business value through compliant software, higher throughput, and more reliable CI. Work spanned licensing standardization, Triton GEMM/FP4-FP8 enhancements, MHA robustness improvements, and MoE refactor with configuration enhancements.
Month: 2025-05 In May 2025, the ROCm/aiter effort delivered robust performance gains and correctness improvements for large-language-model workloads, with a focus on stable attention behavior, accelerated attention paths, and hardware-optimized kernels. Key work included restoring the correct attention scaling behavior, expanding RoPE and attention acceleration via Triton kernels with caching, and introducing MXFP4 quantization tooling and MoE support optimized for AMD hardware. Code quality improvements and test improvements underpin longer-term stability and portability, enabling more reliable benchmarking and faster iteration. Overall impact: higher inference throughput, improved numerical stability in attention, broader hardware support, and a cleaner, more maintainable codebase that supports future performance optimizations.
Month: 2025-05 In May 2025, the ROCm/aiter effort delivered robust performance gains and correctness improvements for large-language-model workloads, with a focus on stable attention behavior, accelerated attention paths, and hardware-optimized kernels. Key work included restoring the correct attention scaling behavior, expanding RoPE and attention acceleration via Triton kernels with caching, and introducing MXFP4 quantization tooling and MoE support optimized for AMD hardware. Code quality improvements and test improvements underpin longer-term stability and portability, enabling more reliable benchmarking and faster iteration. Overall impact: higher inference throughput, improved numerical stability in attention, broader hardware support, and a cleaner, more maintainable codebase that supports future performance optimizations.
April 2025 ROCm/aiter monthly summary: Key features delivered: - MoE kernel performance improvements: persistent kernel and GeLU fused kernel with tests (commits: fd04daa96176cb4845c462bfc7d3d534ab72dbee; 93400220602a675f680e44103a0c271c41a5ad84). - Backward propagation support for Triton Multi-Head Attention: backward kernel and training gradients (commit fca75fffaf80c57b72f249469e5134ca7d659262). - Per-token quantization for Paged Attention Decode: per-token scales with new Triton kernels (commit c84c61b799a218f069acf801ccc2b8821fefc22f). - GEMM kernel optimizations and benchmark improvements: a16w16 and a8w8 blockscale variants, quantization improvements; benchmarks updated (commit 432348b8b5a8f5c315acb73f702cdded220f99ba). - RMSNorm performance benchmarking and optimization: forward pass benchmarking and memory allocation optimization (torch.empty_like); bench_rmsnorm.py (commit e6ce3837a35917d285af826e30785897d072a4a3). Major bugs fixed: - Disable failing Quant GQA test in Triton PA Decode module to unblock development (commit 50c4c8cadbb86299d57dcc5041138232cd5e216b). - Fixed import paths for Triton benchmarks in the aiter repo to ensure proper module loading (commit db0c9a98ebe43b13870a0e8865984aa14cfe579e). Impact and accomplishments: - Substantial performance and training capability improvements across MoE, MHA, and attention mechanisms; improved memory efficiency and quantization readiness; stabilized CI with targeted test and import fixes. Technologies/skills demonstrated: - Triton kernel development, GEMM optimizations, per-token quantization, PyTorch memory management, benchmarking, and training support.
April 2025 ROCm/aiter monthly summary: Key features delivered: - MoE kernel performance improvements: persistent kernel and GeLU fused kernel with tests (commits: fd04daa96176cb4845c462bfc7d3d534ab72dbee; 93400220602a675f680e44103a0c271c41a5ad84). - Backward propagation support for Triton Multi-Head Attention: backward kernel and training gradients (commit fca75fffaf80c57b72f249469e5134ca7d659262). - Per-token quantization for Paged Attention Decode: per-token scales with new Triton kernels (commit c84c61b799a218f069acf801ccc2b8821fefc22f). - GEMM kernel optimizations and benchmark improvements: a16w16 and a8w8 blockscale variants, quantization improvements; benchmarks updated (commit 432348b8b5a8f5c315acb73f702cdded220f99ba). - RMSNorm performance benchmarking and optimization: forward pass benchmarking and memory allocation optimization (torch.empty_like); bench_rmsnorm.py (commit e6ce3837a35917d285af826e30785897d072a4a3). Major bugs fixed: - Disable failing Quant GQA test in Triton PA Decode module to unblock development (commit 50c4c8cadbb86299d57dcc5041138232cd5e216b). - Fixed import paths for Triton benchmarks in the aiter repo to ensure proper module loading (commit db0c9a98ebe43b13870a0e8865984aa14cfe579e). Impact and accomplishments: - Substantial performance and training capability improvements across MoE, MHA, and attention mechanisms; improved memory efficiency and quantization readiness; stabilized CI with targeted test and import fixes. Technologies/skills demonstrated: - Triton kernel development, GEMM optimizations, per-token quantization, PyTorch memory management, benchmarking, and training support.
March 2025 focused on delivering precision options and performance enhancements in ROCm/aiter, while stabilizing test reliability and maintaining a clean baseline around Triton integrations. Key features delivered include INT4 quantization support for MoE kernel and a Triton-based forward kernel for MHA with FP8 support, complemented by targeted test enhancements. Major stability work involved disabling problematic Triton quantization tests to preserve CI reliability and reverting an unstable Triton AOT merge to a known-good baseline, laying groundwork for future improvements.
March 2025 focused on delivering precision options and performance enhancements in ROCm/aiter, while stabilizing test reliability and maintaining a clean baseline around Triton integrations. Key features delivered include INT4 quantization support for MoE kernel and a Triton-based forward kernel for MHA with FP8 support, complemented by targeted test enhancements. Major stability work involved disabling problematic Triton quantization tests to preserve CI reliability and reverting an unstable Triton AOT merge to a known-good baseline, laying groundwork for future improvements.
February 2025 performance summary for ROCm/aiter. Delivered core MoE acceleration and quantization capabilities that directly enable higher throughput, lower latency, and more cost-efficient MoE deployments. Key work included a fused Mixture of Experts (MoE) kernel implemented in Triton for accelerated MoE operations, with an alignment helper for token distribution across experts and a dedicated block-size alignment kernel, supported by a testsuite to ensure correctness. Additionally, introduced FP8/INT8 quantization support by refactoring MoE kernels and adding new Triton kernels, enabling lower-precision inference/training with validated accuracy against PyTorch implementations.
February 2025 performance summary for ROCm/aiter. Delivered core MoE acceleration and quantization capabilities that directly enable higher throughput, lower latency, and more cost-efficient MoE deployments. Key work included a fused Mixture of Experts (MoE) kernel implemented in Triton for accelerated MoE operations, with an alignment helper for token distribution across experts and a dedicated block-size alignment kernel, supported by a testsuite to ensure correctness. Additionally, introduced FP8/INT8 quantization support by refactoring MoE kernels and adding new Triton kernels, enabling lower-precision inference/training with validated accuracy against PyTorch implementations.

Overview of all repositories you've contributed to across your timeline