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ATOMi: An Algorithm for Circuit Partitioning Into Multiple FPGAs Using Time-Multiplexed, Off-Chip, Multicasting Interconnection Architecture

机译:ATOMi:一种使用时分多路,片外,多播互连架构将电路划分为多个FPGA的算法

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摘要

Logic emulation is so far the fastest method to verify the system functionality in the gate level before chip fabrication. Field-programmable gate array (FPGA)-based logic emulator with large gate capacity generally comprises a large number of FPGAs or special processors connected in mesh or crossbar topology. However, gate utilization of FPGAs and speed of emulation are limited by the number of signal pins among FPGAs and the interconnection architecture of the logic emulator. This paper first describes a new interconnection architecture called TOMi (Time-multiplexed, Off-chip, Multicasting interconnection) and proposes a circuit partitioning algorithm called ATOMi (Algorithm for TOMi) for multi-FPGA system incorporating four to eight FPGAs where FPGAs are interconnected through TOMi. ATOMi reduces the number of off-chip signal transfers to optimize the performance for multi-FPGA system implemented by TOMi. Experimental results using Partitioning93 benchmarks show that, by adopting the proposed TOMi interconnection architecture along with ATOMi, the pin count is reduced to 14.4%–88.6% while the critical path delay is reduced to 66.1%–90.1% compared to traditional architectures including mesh, crossbar, and VirtualWire architecture.
机译:迄今为止,逻辑仿真是在芯片制造之前验证门级系统功能的最快方法。具有大门容量的基于现场可编程门阵列(FPGA)的逻辑仿真器通常包括大量以网状或交叉式拓扑结构连接的FPGA或特殊处理器。但是,FPGA之间的信号引脚数量以及逻辑仿真器的互连架构限制了FPGA的门利用率和仿真速度。本文首先描述了一种新的互连架构,称为TOMi(时分多路,片外,多播互连),并针对包含4至8个FPGA的多FPGA系统,提出了一种称为ATOMi(TOMi的算法)的电路分割算法。 TOMI。 ATOMi减少了片外信号传输的次数,以优化TOMi实施的多FPGA系统的性能。使用Partitioning93基准测试的实验结果表明,与包括网状结构在内的传统架构相比,通过采用拟议的TOMi互连架构以及ATOMi,引脚数减少到14.4%–88.6%,而关键路径延迟减少到66.1%–90.1%。交叉开关和VirtualWire架构。

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