当前位置:首页 > 报告详情

CPONoC:片上光网络的关键路径感知物理实现.pdf

上传人: 芦苇 编号:651769 2025-05-01 35页 648.33KB

1、CPONoC:Critical Path-aware Physical Implementation for Optical Networks-on-Chip1Department of Electrical Engineering,National Taiwan University of Science and Technology,Taipei,Taiwan2Department of Electronic Design Automation,Technical University of Munich,Munich,Germany1Yan-Ting Chen1,Zhidan Zheng

2、2,Shao-Yun Fang1,Tsun-Ming Tseng2,and Ulf Schlichtmann2Jan.23,2025Outline1.Introduction2.Methodology3.Experimental Results4.Conclusions 21.INTRODUCTION 2.METHODOLOGY 3.EXPERIMENTAL RESULTS4.CONCLUSIONS 3Optical Networks-on-Chips(ONoCs)A 3-D stacked multicore processor 4-INTRODUCTION-Off-chip memoryP

3、hotonic layerElectronic layerClusters of processorsM0M2M1M3H0H2H1H3Array of off-chip lasers1234TSVTSVTSVTSVMemory controllerHubMicro-Ring Resonator(MRR)The working principle of MRRPhotonic switching element(PSE)5-INTRODUCTION-Global and detailed routing 12,Huang-Yu Chen、Yao-Wen Chang =MRRMRROff-stat

4、eOn-stateWavelength Routed ONoC(WRONoC)Two Types of Classifications for the WRONoCTopological designPhysical implementation 6-INTRODUCTION-s2m2m3m4s1m1s3s41212231213311322s2s3s4m1 m2m3m4s1Insertion LossInsertion loss in an optical router is caused byPropagation lossCrossing loss Bending lossDrop los

5、sWhere L,C,D,B separately represent the waveguide length,the number of waveguide crossings,the number of MRR drops,and the number of waveguide bends in p7-INTRODUCTION-Related WorkTopological design-Router Briere et al.,DATE07GWOR Tan et al.,SOPO11Light Zheng et al.,ASP-DAC21Physical Implementation

6、PROTON+Beuningen et al.,ACM15PlanarONoC Chuang et al.,DAC18ToPro Zheng et al.,CAD218-INTRODUCTION-routerLightPlanarONoC Chuang et al.,DAC18Based on Hamiltonian cycle finding9-INTRODUCTION-Cons of PlanarONoCCritical path causing the maximum insertion loss is not addressed10-INTRODUCTION-M0H1M1H0PSE2P

word格式文档无特别注明外均可编辑修改,预览文件经过压缩,下载原文更清晰!
三个皮匠报告文库所有资源均是客户上传分享,仅供网友学习交流,未经上传用户书面授权,请勿作商用。
本文提出了一种名为APR的自动布局和路由方法,旨在通过力导向算法最小化关键路径上的插入损耗,应用于光学网络芯片(ONoCs)。该方法在保持拓扑结构的前提下,通过优化节点位置和波导路由,减少交叉和弯曲损失。实验表明,APR平均可将最大插入损耗降低9.6%,相比现有技术具有显著优势。文章还比较了不同硬件配置和网络拓扑下的性能,验证了方法的可扩展性和通用性。
"光网络芯片物理实现新方法" "如何最小化插入损耗提高光网络性能?" "基于力导向算法的自动布局与路由研究"
客服
商务合作
小程序
服务号
折叠