
Developed foundational compiler infrastructure for the leanprover/KLR repository, focusing on both the core framework and a multi-stage IR pipeline. Over two months, established robust operator definitions, data types, and enumerations to support hardware operations, memory types, and tensor properties, enabling efficient tensor manipulation and DMA-driven data transfer. Designed and implemented intermediate representations for Tensor Graph Representation and multiple compilation stages, introducing new abstract syntax tree definitions, interpreters, and compiler passes to enable modular, end-to-end translation from high-level code to hardware-specific IRs. Leveraged Lean, low-level programming, and domain-specific language design to support future hardware integration and optimization.
September 2025 (Month: 2025-09) — Key initiative focused on establishing a foundational compiler stack for leanprover/KLR and enabling end-to-end translation from high-level representations to hardware-specific IRs. Delivered the KLR Compiler Infrastructure and Multi-Stage IR Pipeline, introducing IRs for Tensor Graph Representation (TGR) and stages K3, K2, K1, with compiler passes to translate between IRs. Added new AST definitions, compilation logic, and interpreters for the pipeline stages, enabling modular, multi-stage compilation workflows. Impact: Lays the groundwork for hardware backends, targeted optimizations, and faster iteration cycles for future backends. No notable bug fixes required this month. Technologies/skills demonstrated: compiler architecture, IR design, multi-stage pipelines, AST and interpreter development, pass orchestration, and tooling for end-to-end translation pipelines.
September 2025 (Month: 2025-09) — Key initiative focused on establishing a foundational compiler stack for leanprover/KLR and enabling end-to-end translation from high-level representations to hardware-specific IRs. Delivered the KLR Compiler Infrastructure and Multi-Stage IR Pipeline, introducing IRs for Tensor Graph Representation (TGR) and stages K3, K2, K1, with compiler passes to translate between IRs. Added new AST definitions, compilation logic, and interpreters for the pipeline stages, enabling modular, multi-stage compilation workflows. Impact: Lays the groundwork for hardware backends, targeted optimizations, and faster iteration cycles for future backends. No notable bug fixes required this month. Technologies/skills demonstrated: compiler architecture, IR design, multi-stage pipelines, AST and interpreter development, pass orchestration, and tooling for end-to-end translation pipelines.
July 2025: Laid the foundation for KLR with a focused growth sprint on the core framework and operator surface, establishing a stable base for future performance work and hardware integration. Key outcomes include foundational KLR operator definitions, data types, structures, and enumerations for hardware operations, memory types, tensor properties, and computational instructions; expansion of the instruction set to include DmaHbmLoad, DmaHbmStore, TensorScalar, and TensorTensor to boost tensor manipulation and data transfer capabilities; plus a targeted fix to ensure the KLR instruction surface is complete. This groundwork enables faster delivery of downstream features, improves reliability of tensor workflows, and supports DMA-driven data movement, delivering clear business value through a stronger, more extensible platform.
July 2025: Laid the foundation for KLR with a focused growth sprint on the core framework and operator surface, establishing a stable base for future performance work and hardware integration. Key outcomes include foundational KLR operator definitions, data types, structures, and enumerations for hardware operations, memory types, tensor properties, and computational instructions; expansion of the instruction set to include DmaHbmLoad, DmaHbmStore, TensorScalar, and TensorTensor to boost tensor manipulation and data transfer capabilities; plus a targeted fix to ensure the KLR instruction surface is complete. This groundwork enables faster delivery of downstream features, improves reliability of tensor workflows, and supports DMA-driven data movement, delivering clear business value through a stronger, more extensible platform.

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