首页> 外文会议>International Conference on Emerging Technology Trends in Electronics, Communication and Networking >Low power approach for implementation of 8B/10B encoder and 10B/8B decoder used for high speed communication
【24h】

Low power approach for implementation of 8B/10B encoder and 10B/8B decoder used for high speed communication

机译:用于实现8B / 10B编码器的低功耗方法和用于高速通信的10B / 8B解码器

获取原文

摘要

In this paper a clock gated 8B/10B encoder and 10B/8B decoder circuit is implemented. In this we design the encoder decoder circuit with gated clock as it optimized the power without degrading the performance of the circuits. The technology used in this paper is gated clock circuit using negative latch. This gated clock then used to control the encoder and decoder circuit. The RTL view of encoder and decoder with clock gating are shown in Figures 13 and 14. Encoder without clock gating circuit at 20 MHz consumes hierarchy power and on-chip power is 0.10 mW and 111 mW respectively and at 200 MHz consumes hierarchy power and on-chip power is 1.05 mW and 149 mW respectively. Encoder with clock gating circuit at 20 MHz consumes hierarchy power and on-chip power is 0.05 mW and 108 mW respectively and at 200 MHz consumes hierarchy power and on-chip power is 0.47 mW and 113 mW respectively. Decoder without clock gating circuit at 20 MHz consumes hierarchy power and on-chip power is 0.05 mW and 108 mW respectively and at 200 MHz consumes hierarchy power and on-chip power is 0.49 mW and 116 mW respectively. Decoder with clock gating circuit at 20 MHz consumes hierarchy power and on-chip power is 0.05 mW and 108 mW respectively and at 200 MHz consumes hierarchy power and on-chip power is 0.49 mW and 113 mW respectively. The encoder and decoder circuits are design using verilog HDL and are simulated in ModelSim 10.3c. For the RTL view and power report of the implemented circuit we used Xilinx ISE suite 13.4.
机译:在本文中,实现了时钟门控8B / 10B编码器和10B / 8B解码器电路。在此,我们设计具有门控时钟的编码器解码器电路,因为它优化了电源而不会降低电路的性能。本文使用的技术采用负锁存器门控钟电路。然后,该门控时钟用于控制编码器和解码器电路。编码器和带时钟门控的解码器的RTL视图如图13和14所示。没有时钟门控电路的编码器在20MHz时消耗层次功率和片上功率分别为0.10 MW和111 MW,并且在200 MHz时消耗层次电量和接通-Chip功率分别为1.05 mW和149兆瓦。具有20 MHz的时钟门控电路的编码器消耗层次电源和片上功率分别为0.05 mW,108兆瓦分别为200 MHz,消耗层次功率和片上功率分别为0.47 MW和113兆瓦。没有时钟门控电路的解码器在20 MHz下消耗层次功率和片上功率分别为0.05 mW,108兆瓦分别为200 MHz,消耗层次功率和片上功率分别为0.49 MW和116兆瓦。具有20 MHz的时钟门控电路的解码器消耗层次功率和片上功率分别为0.05 MW,108兆瓦分别为200 MHz,消耗层次功率和片上功率分别为0.49 MW和113兆瓦。编码器和解码器电路使用Verilog HDL设计,并在ImpanyIM 10.3C中进行模拟。对于实现电路的RTL视图和电力报告,我们使用了Xilinx ISE套件13.4。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号