基于Gh0st3.8修改编译成功的远程控制源代码

该资源文件为ssm项目实战中需要导入的静态页面资源的压缩包。

matlab环境中的机器人路径规划程序，经过调试可以直接使用。

实现一个特殊的计算器，可以实现复数、有理数、矩阵和集合的特殊计算。程序可以实现复数、有理数的加、减、乘、除，可以实现矩阵的加法、减法和乘法运算，也可以实现集合的求交集、并集、子集的运算。

最佳小波包分解程序

WinCC V7.2与S7-1200/1500 PLC常规通讯，此文档主要讲述如何使用“SIMATIC S7-1200, S7-1500 Channel”通道，组态与S7-1200/1500的以太网通讯。1概述自 WinccⅥ7.2版本起,软件新増加了“ SIMATIC S7-1200,S7-1500 Channel”通道,用于 Wincc与S7-1200/S7-1500PLC之间的通信。此驱动只支持以太网通讯,使用TCP/IP协议。此文档上要讲述如何使用“ SIMATIC S7-1200,S7-1500 Channel”迸道,组态与S71200/1500的以太网通讯。在win℃C项目中可添加此驱动,如图1-1所示,打开变量管理界面,选择“变量管理”点击鼠标右键,选择“添加新的驱动程序”,在驱动列表中选择“ SIMATIC S7-1200,S7-1500 Channe1”驱动。文件编辑E)视图帮助什变量管理《变量管理数结构变导入Modbus TCPIPOPC5Profibus DP6Profibus FmsSIMATIC 505 TCPIP8SIMATIC S5 Ethernet Layer 410SIMATIC S5 Profibus FDL本本本符本符符符符本本11SIMATIC $5 Progr ammers Port AS51112SIMATIC S5 Serial 3964R1314SIMATIC ST-1200. S7-1500 Channel1516SIMATIC TI Serial点17Simotion18System Info19图1-1添加驱动文档示例的软硬件环境件: Wincc项目运行的电脑自带普通以太內卡、CPU1214C、CPU1511-1PN软件: WinCc7.2Upd6、 Simatic net v8.2SPl、Step7Ⅵ13(用于组态S71500/1200)2 Wincc v7.2与S7-1200PLC常规通讯2.1设置PLC通讯参数在Step?Ⅵ13组态软件中打开S7-1200项目,关丁PLC硬件组态步骤在此不详述。在树形菜单中打开“设备和內络”,打开网终视图点击CPU1214C通讯端口,在“属性”界面中设置通讯参数,在“子网”列表中可把接口连接到某一子网,设置“IP电址”和“子网掩码”参数。简单通讯情况下,可以不用启用IP路由尜,如图2-1所小。□项目157-1200鱼设备和网络PLC 1CPU 12140Pu1511-1PN571500AC/DC/RlyPLC设备组态旦在和诊断程序块「工艺对象细外部原文件PLc变里PLc数据类型圆出控与强制表约程序信息PROFINET接口1[X1:PN(LAN墨设备代理数据属性「信息S诊断文本列表常规0变量系统常数文本□本模块□吒C2[Uu15111刚太网地址以太网地址设备组态高级接口连接到旦在线和诊断时间同步程序块硬件标识符子网:PNE2工艺对象添加新子网外部原文件FLC变里PLc数据类型P协议监控与强制表UTra⊙在项目中设置P地址设备代理据P地址:[19216840120ˇ详细视图子阿镜吗:[255:2552550图2-1S7-1200通讯参数将组态下载到CPU,PLC组态完成2.2 Wincc软件组态步骤2.2.1电脑网卡参数设置在操作系统网络连接中设置此网卡的IP地址以及子网掩码,在此例中,IP地址和PIC的IP地址在同一样网段中,子网掩码一致,如图2-2所示。在PLC和电脑之间接入以太网通讯电缆,测试电脑与PC之间物理连接是否正常。选择操作系统左下角“开始”菜单,在最下一行运行栏中输入“CⅧ”命令,然后敲回车进入DOS命令界面。在界面中输入pins命令,格式:pingping192.168.48,120在Ping192.16841.128具有32字节的数据:自192168,48,128的节=32时间< ms TTL=128自192168.4.128的节=32时间

【实例简介】TL-WR703N原理图以及pcb底板图。供玩op的人改板。

关于软件测试相关的实验报告，非常齐全，截图，代码，测试用例等等

中国移动2018年校园招聘考试笔试题库讲义复习资料赠送历年真题

Altium Designer练习资料，资料丰富齐全，包含电路图以及仿真源代码，适合自学Altium Designer。

关于5G通信和无线传输的相关知识5G Mobile and wirelessCommunications TechnologyEDITED BYAFIF OSSEIRANEricssonJOSE F MONSERRATUniversitat politecnica de valenciaPATRICK MARSCHCAMBRIDGEUNIVERSITY PRESSCAMBRIDGEUNIVERSITY PRESSUniversity Printing House, Cambridge CB2 8BS, United KingdomCambridge University Press is part of the University of CambridgeIt furthers the Universitys mission by disseminating knowledge in the pursuit ofeducation learning and research at the highest international levels of excellencewww.cambridge.orgInformationonthistitlewww.cambridge.org/9781107130098C Cambridge University Press 2016This publication is in copyright. Subject to statutory exceptionand to the provisions of relevant collective licensing agreementsno reproduction of any part may take place without the writtenpermission of Cambridge University PressFirst published 2016Printed in the United Kingdom by TJ International Ltd. Padstow Cornwalla catalogue record for this publication is available from the british libraryLibrary of Congress Cataloguing in Publication dataOsseiran. Afif editor5G mobile and wireless communications technology /[edited by] Afif Osseiran, EricssonJose F monserrat, Polytechnic University of Valencia, Patrick Marsch, Nokia NetworksNew York: Cambridge University Press, 2016LCCN2015045732|ISBN978110713009( hardback)LCSH: Global system for mobile communications. Mobile communication systems- StandardsLCC TK5103483A152016DDC62138456dc23Lcrecordavailableathttp://icCn.loc.gov/2015045732IsBN 978-1-107-13009-8 HardbackCambridge University Press has no responsibility for the persistence or accuracy ofURLS for external or third- party internet websites referred to in this publicationand does not guarantee that any content on such websites is, or will remainaccurate or appropriateTo my new born son S, my twin sons H& N, my wife L s-y for her unwaveringencouragement, and in the memory of a great lady my aunt K eA OsseiranTo my son, the proud fifth generation of the name Jose Monserrat. And with thewarmest love to my daughter and wife, for being always there.E MonserratTo my two small sons for their continuous energetic entertainment, and my dearwife for her amazing patience and support.P MarschContentsList of contributorspage xIvForewordAcknowledgmentsXIXAcronymsXXIIIntroduction1. 1 Historical background1.1.1 Industrial and technological revolution: from steam enginesto the internet1. 1.2 Mobile communications generations: from IG to 4G1.1.3 From mobile broadband ( mbb) to extreme MBB1. 1.4 IoT: relation to 5G1.2 From ICT to the whole economy6771.3 Rationale of 5G: high data volume, twenty-five billion connecteddevices and wide requirements1.3.1 Security1.4 Global initiatives1. 4.1 METIS and the 5G-PPP1. 4.2 China: 5G promotion group2241. 4.3 Korea: 5G Forum141. 4.4 Japan: ARIB 2020 and Beyond Ad Hoc1. 4.5 Other 5G initiatives14.6 Iot activities1.5 Standardization activities445551.5.1ITU-R1.5.23GPP161.5.3 EEE161.6 Scope of the book16References185G use cases and system concept212. 1 Use cases and requirements212.1.1 Use cases212. 1.2 Requirements and key performance indicatorsContents2.2 5G system concept322.2.1 Concept overview322. 2.2 Extreme mobile broadband342.2.3 Massive machine-type communication362.2.4 Ultra-reliable machine-type communication382.2.5 Dynamic radio access network392.2.6 Lean system control plane432. 2. 7 Localized contents and traffic flows52.2.8 Spectrum toolbox2. 3 Conclusions48References48The 5g architecture503.1 Introduction503.1.1 NFV and SDN503.1.2 Basics about ran architecture533.2 High-level requirements for the 5G architecture563.3 Functional architecture and 5g flexibility573.3.1 Functional split criteria583.3.2 Functional split alternatives593.3.3 Functional optimization for specific applications3.3.4 Integration of lte and new air interface to fulfill 5Grequirements3.3.5 Enhanced Multi-RAT coordination features663. 4 Physical architecture and 5G deployment3.4.1 Deployment enablers673.4.2 Flexible function placement in 5G deployments713.5 Conclusions74References75Machine-type communications774.1 Introduction774.1.1 Use cases and categorization of mto774.1.2 MTC requirements804.2 Fundamental techniques for MTC834.2.1 Data and control for short packets834.2.2 Non-orthogonal access protocols854.3 Massive mtc864.3.1 Design principles864.3.2 Technology components864.3. 3 Summary of mMTC features944.4 Ultra-reliable low-latency MTC944.4. 1 Design principles944.4.2 Technology componentsContents4.4.3 Summary of uMTC features1014.5 Conclusions102References103Device-to-device(D2D)communications1075.1 D2D: from 4G to 5G1075.1.1 D2D standardization: 4G LTE D2D1095.1. 2 D2D in 5G: research challenges1125.2 Radio resource management for mobile broadband D2D1135.2.1 RRM techniques for mobile broadband d2d5.2.2 RRM and system design for D2D1145.2.3 5G D2D RRM concept: an example5.3 Multi-hop d2d communications for proximity and emergencyservices1205.3.1 National security and public safety requirements in 3GPPand Metis1215.3.2 Device discovery without and with network assistance125.3.3 Network-assisted multi-hop d2d communications1225.3.4 Radio resource management for multi-hop D2D1245.3.5 Performance of D2D communications in the proximitcommunications scenario1255. 4 Multi-operator d2d communication1275.4.1 Multi-operator D2D discovery275.4.2 Mode selection for multi-operator D2D1285.4.3 Spectrum allocation for multi-operator D2D295.5 Conclusions133References1346Millimeter wave communications1376. 1 Spectrum and regulations1376.2 Channel propagation1396.3 Hardware technologies for mm W systems1396.3.1 Device technology1396.3.2 Antennas1426.3.3 Beamforming architecture1436.4 Deployment scenarios6. 5 Architecture and mobility1466.5.1 Dual connectivit1476.5.2 Mobility1476.6 Beamforming1496.6. 1 Beamforming techniques1496.6.2 Beam finding1506.7 Physical layer techniques1526.7.1 Duplex scheme152