Reveals benefits of memory interface-aware task partitioning in CPU-FPGA architectures, suggesting improved efficiency.
CPU-FPGA SoC architectures with multiple shared coherent caches reduce inter-component communication overhead and enable efficient CPU-FPGA collaboration through task partitioning. However, existing studies primarily focus on optimizing partitioning units and ignore the benefits and diversity of coherent cache architectures on CPU-FPGA SoCs, leading to extra communication overhead in the final partitioning decisions. To address this, we propose TAPCA, a memory interface-aware task partitioning framework that integrates coherent cache management and selection. TAPCA includes an adaptive partitioning unit generator to identify essential application structures for efficient design space exploration, a design space exploration module to profile partitioning units across various design points, a memory management modeling module based on cache bypassing to match each unit with its optimal memory architecture and assess communication overhead, and a knapsack problem partitioning solver to determine partitioning decisions with appropriate configurations of hardware and memory architectures for partitioning units.
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Li et al. (2025) studied this question.
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