
Andrey Guskov developed and optimized deep learning GPU kernels for the oneDNN repository, focusing on Intel GPU architectures. Over 16 months, he delivered features such as quantized GEMM enhancements, gated MLP primitives, and robust convolution support, while also addressing critical bugs in kernel initialization and memory handling. His work combined C++ and OpenCL with advanced JIT compilation and low-level optimization, modernizing kernel naming and architecture support. Andrey expanded test coverage using CMake and Google Test Framework, improving reliability and regression safety. His engineering demonstrated depth in performance tuning, maintainability, and validation, enabling more accurate and efficient AI workloads on Intel hardware.
Month: 2026-03 | OneDNN (oneapi-src/oneDNN) monthly summary. Key features delivered: - Gated MLP Core Integration and Performance Enhancements: integrated gated_mlp into the build, added a separate microkernel with horizontal fusion, and provided a dedicated test executable to improve modularity and testing of gated MLP. Commits: 377261abeaf5d760f7a16d9462c4105b52b0a7eb; e8093fe059f0486e8a53254db0236195820efeaf; c1fc4a75956468a66519f3858aa019f662654fd9. Major bugs fixed: - Gated MLP Tests Improvements and Reliability Enhancements included fixes for quantization handling, refactoring of random value generation for memory descriptors/data types, and hiding gated_mlp debug output to improve test reliability and clarity. Commits: 47ca4737efea018a8fec991cab400c509f790cf0; 0d15b1b53dbb3e139069a624dcb9df9f9b450efe; 9accadaaf7d493f09df2db261c15e3f516952325. Overall impact and accomplishments: - Delivered modular gated MLP integration with testability improvements in oneDNN, enabling more reliable performance tuning and faster iteration on gated MLP work. - Strengthened test reliability and clarity, reducing noise and improving confidence in model-level changes. Technologies/skills demonstrated: - Build-system integration (CMake) for gated MLP components. - GPU kernel development (ukernel-based horizontal fusion) and performance-oriented microkernel design. - Test infrastructure evolution (separate test executable, verbosity-controlled output) for better maintainability and visibility. Business value: - Accelerates gated MLP adoption and optimization within oneDNN, decreases risk for future changes, and improves release confidence through robust testing and modular architecture.
Month: 2026-03 | OneDNN (oneapi-src/oneDNN) monthly summary. Key features delivered: - Gated MLP Core Integration and Performance Enhancements: integrated gated_mlp into the build, added a separate microkernel with horizontal fusion, and provided a dedicated test executable to improve modularity and testing of gated MLP. Commits: 377261abeaf5d760f7a16d9462c4105b52b0a7eb; e8093fe059f0486e8a53254db0236195820efeaf; c1fc4a75956468a66519f3858aa019f662654fd9. Major bugs fixed: - Gated MLP Tests Improvements and Reliability Enhancements included fixes for quantization handling, refactoring of random value generation for memory descriptors/data types, and hiding gated_mlp debug output to improve test reliability and clarity. Commits: 47ca4737efea018a8fec991cab400c509f790cf0; 0d15b1b53dbb3e139069a624dcb9df9f9b450efe; 9accadaaf7d493f09df2db261c15e3f516952325. Overall impact and accomplishments: - Delivered modular gated MLP integration with testability improvements in oneDNN, enabling more reliable performance tuning and faster iteration on gated MLP work. - Strengthened test reliability and clarity, reducing noise and improving confidence in model-level changes. Technologies/skills demonstrated: - Build-system integration (CMake) for gated MLP components. - GPU kernel development (ukernel-based horizontal fusion) and performance-oriented microkernel design. - Test infrastructure evolution (separate test executable, verbosity-controlled output) for better maintainability and visibility. Business value: - Accelerates gated MLP adoption and optimization within oneDNN, decreases risk for future changes, and improves release confidence through robust testing and modular architecture.
February 2026 performance summary for oneDNN (oneapi-src/oneDNN). Delivered GPU-focused features and critical stability fixes, with significant impact on performance, reliability, and resource usage across the Intel GPU stack.
February 2026 performance summary for oneDNN (oneapi-src/oneDNN). Delivered GPU-focused features and critical stability fixes, with significant impact on performance, reliability, and resource usage across the Intel GPU stack.
January 2026 monthly summary for oneDNN (oneapi-src/oneDNN): Delivered GPU-focused improvements and stability fixes that enhance performance and reliability on Intel Gen GPUs. Implemented interleaved block handling in 2D send operations to improve GPU throughput. Stabilized register allocation by prohibiting deletion in ngen_register_scope_t, reducing potential GPU instability. These changes strengthen the GPU execution path for deep learning workloads and showcase effective JIT/memory-path optimizations.
January 2026 monthly summary for oneDNN (oneapi-src/oneDNN): Delivered GPU-focused improvements and stability fixes that enhance performance and reliability on Intel Gen GPUs. Implemented interleaved block handling in 2D send operations to improve GPU throughput. Stabilized register allocation by prohibiting deletion in ngen_register_scope_t, reducing potential GPU instability. These changes strengthen the GPU execution path for deep learning workloads and showcase effective JIT/memory-path optimizations.
Month: 2025-12 — oneDNN monthly summary focusing on GPU concatenation validation and test coverage. Focused on delivering a targeted feature enhancement to improve reliability of GPU concat operations through expanded testing coverage. No major bugs reported this month. Overall impact: strengthened GPU path reliability and regression safety via extended benchdnn test coverage, enabling earlier detection of issues and more trustworthy performance claims. Technologies/skills demonstrated: test-driven development for GPU workflows, benchdnn test infrastructure integration, internal padding handling validation, and strong commit traceability.
Month: 2025-12 — oneDNN monthly summary focusing on GPU concatenation validation and test coverage. Focused on delivering a targeted feature enhancement to improve reliability of GPU concat operations through expanded testing coverage. No major bugs reported this month. Overall impact: strengthened GPU path reliability and regression safety via extended benchdnn test coverage, enabling earlier detection of issues and more trustworthy performance claims. Technologies/skills demonstrated: test-driven development for GPU workflows, benchdnn test infrastructure integration, internal padding handling validation, and strong commit traceability.
Month 2025-11 monthly summary for oneapi-src/oneDNN: Delivered targeted JIT and testing improvements for Intel GPU, improving user experience, debugging clarity, and data-type coverage. The work focused on reducing noisy errors in JIT GEMM, adding kernel information formatting, expanding benchdnn tests for matmul clipping and conv u8 weights, and fixing u8/s8 interaction in JIT for Intel GPU convolution, resulting in stronger reliability and reduced support overhead.
Month 2025-11 monthly summary for oneapi-src/oneDNN: Delivered targeted JIT and testing improvements for Intel GPU, improving user experience, debugging clarity, and data-type coverage. The work focused on reducing noisy errors in JIT GEMM, adding kernel information formatting, expanding benchdnn tests for matmul clipping and conv u8 weights, and fixing u8/s8 interaction in JIT for Intel GPU convolution, resulting in stronger reliability and reduced support overhead.
2025-10 monthly summary for oneDNN development. Focused on delivering GPU kernel enhancements and improved diagnostics that drive performance, reliability, and scalability on Intel GPU architectures. Key work centered on GEMM and convolution paths, with improvements to batching, compatibility, and runtime tooling.
2025-10 monthly summary for oneDNN development. Focused on delivering GPU kernel enhancements and improved diagnostics that drive performance, reliability, and scalability on Intel GPU architectures. Key work centered on GEMM and convolution paths, with improvements to batching, compatibility, and runtime tooling.
September 2025 monthly summary for developer work across two OneDNN repositories. Focused on expanding test coverage, stabilizing GPU kernels, and enhancing quantized GEMM accuracy with real-world data scenarios. Delivered targeted features and fixed a critical kernel initialization bug, enabling more reliable benchmarking and hardware issue detection. The work strengthened validation capabilities, improved reliability of GPU-accelerated paths, and demonstrated proficiency across GPU-level debugging, JIT tuning, and benchdnn workflow.
September 2025 monthly summary for developer work across two OneDNN repositories. Focused on expanding test coverage, stabilizing GPU kernels, and enhancing quantized GEMM accuracy with real-world data scenarios. Delivered targeted features and fixed a critical kernel initialization bug, enabling more reliable benchmarking and hardware issue detection. The work strengthened validation capabilities, improved reliability of GPU-accelerated paths, and demonstrated proficiency across GPU-level debugging, JIT tuning, and benchdnn workflow.
August 2025 (uxlfoundation/oneDNN) focused on Intel GPU backend improvements: delivered performance-enhancing GEMM/Matmul precomputed reductions and fixed a correctness issue in global pooling. The GEMM enhancements pass precomputed reductions to the gemm kernel, with support for 32-bit reductions and dual k-groups in the JIT, enabling more efficient matrix multiplications on Intel GPUs. The global pooling initialization bug was fixed by sourcing the initial value from the input tensor with proper mb and oc offsets, increasing correctness and stability of pooling operations. These changes improve runtime efficiency for AI workloads on Intel hardware and strengthen the backend's reliability for production models.
August 2025 (uxlfoundation/oneDNN) focused on Intel GPU backend improvements: delivered performance-enhancing GEMM/Matmul precomputed reductions and fixed a correctness issue in global pooling. The GEMM enhancements pass precomputed reductions to the gemm kernel, with support for 32-bit reductions and dual k-groups in the JIT, enabling more efficient matrix multiplications on Intel GPUs. The global pooling initialization bug was fixed by sourcing the initial value from the input tensor with proper mb and oc offsets, increasing correctness and stability of pooling operations. These changes improve runtime efficiency for AI workloads on Intel hardware and strengthen the backend's reliability for production models.
July 2025: GPU-focused performance and accuracy enhancements in uxlfoundation/oneDNN. Delivered two key features that optimize GPU workloads and tighten kernel precision: 1) GPU Ref Sum Performance Optimization reduces synchronization overhead in the ref_sum primitive for generic GPU paths (when not using DNNL_SYCL_CUDA), boosting throughput in applicable builds; 2) GEMM JIT Kernel Accuracy and Flexibility Enhancement refactors the GEMM JIT to support precomputed reductions with fp16 and adds a quantization parameter flag to control use of precomputed reductions, improving accuracy and kernel selection on Intel GPUs. These changes collectively raise performance, precision, and deployment flexibility across GPU backends.
July 2025: GPU-focused performance and accuracy enhancements in uxlfoundation/oneDNN. Delivered two key features that optimize GPU workloads and tighten kernel precision: 1) GPU Ref Sum Performance Optimization reduces synchronization overhead in the ref_sum primitive for generic GPU paths (when not using DNNL_SYCL_CUDA), boosting throughput in applicable builds; 2) GEMM JIT Kernel Accuracy and Flexibility Enhancement refactors the GEMM JIT to support precomputed reductions with fp16 and adds a quantization parameter flag to control use of precomputed reductions, improving accuracy and kernel selection on Intel GPUs. These changes collectively raise performance, precision, and deployment flexibility across GPU backends.
June 2025 monthly summary for uxlfoundation/oneDNN: Focused on Intel GPU support and codebase modernization. Delivered quantization enhancements for the GEMM kernel, along with architecture cleanup and kernel naming modernization. Implemented targeted bug fixes to improve correctness and reliability, and advanced maintainability to align with future Intel GPU generations. The changes provide tangible business value through improved accuracy, performance potential, and cleaner, future-ready code.
June 2025 monthly summary for uxlfoundation/oneDNN: Focused on Intel GPU support and codebase modernization. Delivered quantization enhancements for the GEMM kernel, along with architecture cleanup and kernel naming modernization. Implemented targeted bug fixes to improve correctness and reliability, and advanced maintainability to align with future Intel GPU generations. The changes provide tangible business value through improved accuracy, performance potential, and cleaner, future-ready code.
May 2025: Focused on Intel GPU conv kernel correctness in oneDNN. Delivered a precise bug fix reworking padding and dimension calculations for zero-point precomputation in JIT-compiled convs with kdhw=1 and pdhw>1. Commit reference: dc62d36aae8a18c9aa00d458431e6ddb017298e6. Impact: improved numerical accuracy and reliability of convolution operations on Intel GPUs, reducing validation failures for performance-critical workloads. Tech: GPU/JIT programming, zero-point arithmetic, padding/dimension math; maintained performance with minimal regression risk and clear change traceability in uxlfoundation/oneDNN.
May 2025: Focused on Intel GPU conv kernel correctness in oneDNN. Delivered a precise bug fix reworking padding and dimension calculations for zero-point precomputation in JIT-compiled convs with kdhw=1 and pdhw>1. Commit reference: dc62d36aae8a18c9aa00d458431e6ddb017298e6. Impact: improved numerical accuracy and reliability of convolution operations on Intel GPUs, reducing validation failures for performance-critical workloads. Tech: GPU/JIT programming, zero-point arithmetic, padding/dimension math; maintained performance with minimal regression risk and clear change traceability in uxlfoundation/oneDNN.
April 2025 monthly summary for uxlfoundation/oneDNN focusing on performance and accuracy improvements on the Intel GPU path. Delivered core GEMM enhancements and JIT IR refinements to improve dequantization handling and zero-point usage across types and offsets. Implementations include dual vector zero-point support in the GEMM kernel generator, an earlyDequantizableOffset helper for robust dequantization across input/weight/output, and environment-driven thresholds with dimension-aware optimizations in the JIT IR to boost Intel GPU throughput.
April 2025 monthly summary for uxlfoundation/oneDNN focusing on performance and accuracy improvements on the Intel GPU path. Delivered core GEMM enhancements and JIT IR refinements to improve dequantization handling and zero-point usage across types and offsets. Implementations include dual vector zero-point support in the GEMM kernel generator, an earlyDequantizableOffset helper for robust dequantization across input/weight/output, and environment-driven thresholds with dimension-aware optimizations in the JIT IR to boost Intel GPU throughput.
February 2025 monthly summary for uxlfoundation/oneDNN: Intel GPU backend stability and maintainability improvements focused on JIT cleanup and zero-point data type handling in convolution kernels. These changes improve reliability, reduce undefined behavior, and lay groundwork for future performance optimizations.
February 2025 monthly summary for uxlfoundation/oneDNN: Intel GPU backend stability and maintainability improvements focused on JIT cleanup and zero-point data type handling in convolution kernels. These changes improve reliability, reduce undefined behavior, and lay groundwork for future performance optimizations.
January 2025 — UXLF Foundation oneDNN: GPU kernel improvements delivering stronger performance, robustness, and hardware support. Focused on Intel GPU paths, with feature delivery and critical fixes to stability and memory safety. The work reduces page faults and prevents runtime errors, enabling more reliable deployment on Xe, Xe3 and other Intel GPUs, and improves JIT reliability for edge cases like hs=0.
January 2025 — UXLF Foundation oneDNN: GPU kernel improvements delivering stronger performance, robustness, and hardware support. Focused on Intel GPU paths, with feature delivery and critical fixes to stability and memory safety. The work reduces page faults and prevents runtime errors, enabling more reliable deployment on Xe, Xe3 and other Intel GPUs, and improves JIT reliability for edge cases like hs=0.
In December 2024, two key contributions were delivered in uxlfoundation/oneDNN, focused on memory descriptor reliability and GPU compute performance.
In December 2024, two key contributions were delivered in uxlfoundation/oneDNN, focused on memory descriptor reliability and GPU compute performance.
2024-11 monthly summary for uxlfoundation/oneDNN: Implemented key kernel and GEMM enhancements to support high-throughput, accurate quantized workloads on Intel GPUs. Delivered Kernel Zero-Point and Padding Optimizations and enabled A/B Sum Accumulation in GEMM C Repacking. These changes refactor scalar zero-point handling, introduce a flexible buffer filling utility, optimize s8 zero-point performance, and adjust register layout to support A/B sums, improving inference throughput and precision handling.
2024-11 monthly summary for uxlfoundation/oneDNN: Implemented key kernel and GEMM enhancements to support high-throughput, accurate quantized workloads on Intel GPUs. Delivered Kernel Zero-Point and Padding Optimizations and enabled A/B Sum Accumulation in GEMM C Repacking. These changes refactor scalar zero-point handling, introduce a flexible buffer filling utility, optimize s8 zero-point performance, and adjust register layout to support A/B sums, improving inference throughput and precision handling.

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