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Low-Power High-Speed Hybrid Wave-Pipeline Architectures for Binary Morphological Dilation

机译:用于二进制形态扩展的低功耗高速混合波流水线架构

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Dilation and erosion are two fundamental operations of mathematical morphology for image processing. This paper presents three hybrid wave-pipeline (HWP) architectures for real-time binary dilation operator. With minor changes to the number and/or to the type of the basic gates, they can be employed as erosion operator. In the first HWP-architecture, each single cell utilizes the wave technique along with delay units for balancing the data paths. By minimizing the number of delay units, the second HWP-architecture with reduced power consumption and hardware complexity is obtained. The third HWP-architecture employs wave technique in each three cascaded cells. This architecture improves the above performance further, at the cost of slight reduction in maximum clock frequency and clock frequency range. Simulation results, using a 0.18 μm CMOS technology, indicate that the HWP architectures have higher speed, less hardware complexity, and lower power consumption compared to pipeline (P) architecture. Also, they are faster than wave-pipeline (WP) architecture, without the difficulty of balancing the delay of long signal paths. Simulation illustrates that the third HWP-architecture dilates a 1024×1024 image by a 21×21 structuring element (SE) in 214.64 μs. The maximum frequency of operation is 5 GHz for the power supply of 1.8 V. The power dissipation is 410 mW, and the chip area is 0.075 mm~2.
机译:膨胀和腐蚀是用于图像处理的数学形态学的两个基本操作。本文提出了三种用于实时二进制扩张算子的混合波流水线(HWP)架构。在基本浇口的数量和/或类型稍有变化的情况下,它们可以用作腐蚀操作员。在第一个HWP体系结构中,每个单个单元都利用wave技术以及延迟单元来平衡数据路径。通过最小化延迟单元的数量,可以获得功耗和硬件复杂度降低的第二HWP架构。第三个HWP体系结构在每个三个级联单元中采用波动技术。该架构进一步以略微减小最大时钟频率和时钟频率范围为代价,进一步提高了上述性能。使用0.18μmCMOS技术的仿真结果表明,与流水线(P)架构相比,HWP架构具有更高的速度,更低的硬件复杂度和更低的功耗。而且,它们比波导管(WP)架构快,而且没有平衡长信号路径延迟的困难。仿真表明,第三HWP架构在214.64μs内通过21×21结构元素(SE)扩展了1024×1024图像。对于1.8 V电源,最大工作频率为5 GHz。功耗为410 mW,芯片面积为0.075 mm〜2。

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