Visual Studio 2017 support for Matlab 2016b

AR模型的谱估计是现代谱估计的主要内容：1．AR模型的Yule—Walker方程和Levinson-Durbin递推算法；Burg算法：；3.改进的协方差法；AR模型阶数P的选择：MATLAB中AR模型的谱估计的函数说明：1． Pyulear函数：2． Pburg函数：3． Pcov函数：4.Pmcov:

使用opencv实现halcon中算子find_scaled_shape_model的功能，具体功能参见博客https://blog.csdn.net/sillykog/article/details/83116793

蚁群算法，求解最短路线。包含详细的程序代码。

【实例简介】在电力系统中，电压和电流应是完好的正弦波。但是在实际的电力系统中，由于非线性负载的影响，实际的电网电压和电流波形总是存在不同程度的畸变，给电力输配电系统及附近的其它电气设备带来许多问题，因而就有必要采取措施限制其对电网和其它设备的影响。 　　在我国，当前主要的谐波源主要是一些整流设备。传统的整流方式通常采用二极管整流或相控整流方式，采用二极管整流方式的整流器存在从电网吸取畸变电流，造成电网的谐波污染，而且直流侧能量无法回馈电网等缺点。这些整流器从电网汲取电流的非线性特征，给周围用电设备和公用电网都会带来不利影响。 　　为了抑制电力电子装置产生的谐波，其中的一种方法就是对整流器本身进行改进，使其尽量不产生谐波，且电流和电压同相位。这种整流器称为高功率因数变流器或高功率因数整流器。高功率因数变流器主要采用PWM整流技术，一般需要使用自关断器件。对电流型整流器，可直接对各个电力半导体器件的通断进行 PWM调制，使输入电流成为接近正弦且与电源电压同相的PWM波形，从而得到接近1的功率因数。对电压型整流器，需要将整流器通过电抗器与电源相连。只要对整流器各开关器件施以适当的PWM控制，就可以对整流器网侧交流电流的大小和相位进行控制，不仅可实现交流电流接近正弦波，而且可使交流电流的相位与电源电压同相，即系统的功率因数总是接近于1。本文主要对与PWM整流器相关的功率开关器件、主电路拓扑结构和控制方式等进行详细说明，在此基础上对PWM 整流技术的发展方向加以探讨。

altera公司IP核使用手册,对于学习EDA技术的学生或工程师有用A吉RAContentsChapter 1. About this MegaCore FunctionRelease informat1-1Device Family Support···Introduction.··········FeaturesOpen core plus evaluation1-3Performance···Chapter 2. Getting StartedDesign Flow衡·鲁·,看·,音番2-1Megacore Function walkthrough2-2Create a New quartus II Pi2-2Launch the mega Wizard Plug-in ManagerStep 1: Parameterize2-5Step 2: Set Up SimulationStep 3: Generate..,2-11Simulate the design2-13Compile the design2-13Pa Device2-14Set Up Licensing2-15ppend the license to yourdat file2-15Specify the License File in the Quartus II Software...2-15Example Simulation and Compilation..2-16Example quartus Ii project2-16Example simulation with Test Vectors,,,,,,2-16Chapter 3. SpecificationsyperTransport Technology Overview1HT SyStems3-2HT Flow ControlHyper Transport MegaCore Function SpecificationPhysical InterfaceSynchronization and alignment ...Protocol interfClocking Options.......HyperTransport Mega Core Function Parameters and HT Link Performance3-10Signals3-14CSR Module...3-31OpenCore plus time-Out BehaviorAppendix A. ParametersIntroduction鲁鲁鲁A-1Parameter listsDevice Family and Read Only registers···········,,,,,,,,,,A-1Base Address Registers番鲁,A-2Clocking OptionsA-3Advanced settingso March 2009 Altera corporationHyperTransport MegaCore Function User GuideAppendix B. Stratix Device Pin AssignmentsIntroductionB-1GuidelinesAppendix C. Example designGeneral descriptionAdditional informationRevision historyInto-lHow to Contact alteraInfo-1Typographic Conventions ..........Info-2Hyper Transport MegaCore Function User Guideo March 2009 Altera CorporationA吉RA1. About this MegaCore FunctionRelease InformationTable 1-1 provides information about this release of the Hyper Transport Mega CoretfunctioTable 1-1. Hyper Transport Mega Core Function Release InformationitenlDescription∨ ersion9.0Release dateMarch 2009Ordering codeIP-HTProduct ID(s)0098Vendor iD(s)6AF7Altera verifies that the current version of the quartus@ll software compiles theprevious version of each MegaCore function. Any exceptions to this verification arereported in the Mega Core lP Library release Notes and Errata. Altera does not verifycompilation with Mega Core function versions older than one releaseDevice Family SupportMegaCore functions provide either full or preliminary support for target Alteradevice families:Full support means the Mega Core function meets all functional and timingrequirements for the device family and may be used in production designsa Preliminary support means the Mega Core function meets all functionalrequirements, but may still be undergoing timing analysis for the device family;itmay be used in production designs with cautionTable 1-2 shows the level of support offered by the Hyper Transport MegaCorefunction for each of the altera device familiesTable 1-2. Device Family SupportDevice FamilySupportHard Copy Stratix@FullStratixFulStratix IIFulStratix‖GXPreliminaryStratix GXOther device familiesNo supportC March 2009 Altera CorporationHyperT ransport Mega Core Function User Guide1-2Chapter 1: About this MegaCore FunctionIntroductionIntroductionThe Hyper Transport Mega Core function implements high-speed packet transfersbetween physical(PhY) and link-layer devices, and is fully compliant with theHyperTransport l/O Link Specification, Revision 1.03. This Mega Core function allowsdesigners to interface to a wide range of Hyper TransportTm technology(hT)enableddevices quickly and easily, including network processors, coprocessors, videochipsets, and ASICsFeaturesThe Hyper Transport Mega Core function has the following features8-bit fully integrated hT end-chain interfacePacket-based protocolDual unidirectional point-to-point linksUp to 16 Gigabits per second(Gbps)throughput(8 Gbps in each direction)200, 300, and 400 MHz DDR links in Stratix and Stratix GX devices200, 300, 400, and 500 MHz ddr links in Stratix II and Stratix II GX devicesLow-swing differential signaling with 100-Q2 differential impedanceHardware verified with Hyper fransport interfaces on multiple industry standardprocessor and bridge devicesFully parameterized mega core function allows flexible, easy configurationFully optimized for the altera stratix Il, Stratix, Stratix GX, and Stratix II GXevice famillesApplication-side interface uses the Altera AtlanticTM interface standardManages Hr flow control, optimizing performance and ease of useIndependent buffering for each HT virtual channelAutomatic handling of ht ordering rulesStalling of one virtual channel does not delay other virtual channels(subject toorderingFlexible parameterized buffer sizes, allowing customization depending onsystem requirementsUser interface has independent interfaces for the HT virtual channels, allowingindependent user logic designCyclic redundancy code(crc) generation and checking to preserve data integrityIntegrated detection and response to common HT error conditions■ CRC errorsEnd-chain errorsFully integrated HT configuration space includes all required configuration spaceregisters and HT capabilities list registersHyper Transport MegaCore Function User Guideo March 2009 Altera CorporationChapter 1: About this MegaCore FunctionPerformance32-bit and 64-bit support across all base address registers bars)automatically handles all csr space accessesVerilog HDL and VHdL simulation supportOpen Core Plus EvaluationWith the Altera free Open Core Plus evaluation feature, you can perform the followingSimulate the behavior of a mcgafunction(Altera MegaCore function or AMPPmegafunction) within your systema Verify the functionality of your design, as well as quickly and easily evaluate itssize and speedGenerate time-limited device programming files for designs that includeMegaCore functionsProgram a device and verify your design in hardwareYou only need to purchase a license for the Mega Core function when you arecompletely satisfied with its functionality and performance and want to take yourdesign to productiono For more information about Open Core Plus hardware evaluation using theHyperTransport MegaCore function, refer to"Open Core Plus Time-Out Behavior"onpage 3-40 and AN 320: Open Core Plus Evaluation of megafunctionsPerformanceThe Hyper Transport Mega Core function uses 20 differential I/O pin pairs and 2single-ended I/O pins, requiring 42 pins total. Table 1-3 through Table 1-5 showtypical performance and adaptive look-up table (alut) or logic element (LE)usagefor the HyperTransport MegaCore function in Stratix II GX, Stratix IL, Stratix, andStratix GX devices respectively, using the Quartus@ II software version 7.1Table 1-3 shows the maximum supported data rates in megabits per second(Mbps)by device family and speed gradeTable 1-3. Maximum Supported Hyper Transport Data Rates (Note 1)Speed GradeDevice Family-36Stratix ll GX devices 1000 Mbps 1000 Mbps 800 MbpsNA(2)N/A(2NA(2)Stratix devices1000 Mbps 1000 Mbps 800 Mbps N/A(2)NA(2)NA(2)Stratix devicesN/A(2N/A(2)00 Mbps 800 Mbps 600 Mbps400 MbpsFlip-Chip packagesStratix devicesNA(2)NA(2)NA(2)600 Mbps400 Mbps400 Mbps(Wire Bond packagesStratix GX devicesN/A(2) N/A(2)800 Mbps 800 Mbps 600 Mbps N/A(2)Notes to table 1-3(1)Rates are per interface bit. Multiply by eight to calculate the uni-directional data rate of an 8-bit inter face(2) Devices ot this speed grade are not ottered in this device familyC March 2009 Altera CorporationHyperTransport Mega Core Function User GuideChapter 1: About this MegaCore FunctionPerformanceTable 1-4 shows performance and device utilization for the Hyper TransportMegaCore function in Stratix II and Stratix II GX devicesTable 1-4. Hyper Transport Mega Core Function Performance in Stratix ll and Stratix ll GX DevicesParametersMemoryUserRXCombinationalHT Link InterfacePosted Non-Posted Response ClockingALUTSLogicfMAX(MHz) MAx(MHz)Buffers BuffersBuffers Option(12)Registers M4K M512 ( 3)3)Shared3.5005200120500125(4RX/TX/Ref35005200500Ref/x8Shared36005400160500>150RX/TXShared4.0006,00016150RX/TX16Shared4,1006,200500125(4)RX/TX/RefShared4.1006200500125(4Ref/TxShared4.2006400160150RX/TXNotes to table 1-4.Refer to " Clocking Options "on page 3-7 for more information about these options(2 )Other parameters(BAR configurations, etc. )vary the alut and Logic Register utilization numbers by approximately +/-200(3)Figures for -3 speed grade devices only(4) When using the Shared Rx/Tx/Ref and Shared Ref/Tx options, the user interface frequency is limited to exactly the ht frequency divided byTable 1-5 shows performance and device utilization for the Hyper TransportMegaCore function in Stratix and Stratix GX devicesTable 1-5. Hyper Transport Mega Core Function Performance in Stratix and Stratix GX DevicesUser Interface fmaxParametersUtilizationHT Link fMAX MHz)MHZ)RXRXSpeed GradePosted Non-Posted Response Clocking Option LEsM4KBuffers BuffersBuffers)(2 Blocks.5-66Shared rx/tx/ref1240010073)100734448888Shared Ref/Tx 7, 60014400400100{3)100(3)Shared rxtx7,90016400400>125>100Shared rxtx8.900125>100168Shared Rx/T×Ref9,400124004001003)100316Shared ref/ ix9.500144001003)10073)16Shared rx/x9.700400125Notes to table 1-5:(1)Refer to Clocking Options"on page 3-7 for more information about these options(2 )Other parameters( BAR configurations etc. )vary the LE utilization by approximately +/-200 LES(3 )When using the Shared Rx/Tx/ Ref and Shared Ref/Tx options, the user interface frequency is limited to exactly the hT frequency divided by fourHyper Transport MegaCore Function User GuideC March 2009 Altera CorporationA吉RA2. Getting StartedDesign FlowTo evaluate the HyperTransport Mega Core function using the Open Core Plus feature,include these steps in your design flowObtain and install the HyperTransport Mega Core functionThe HyperTransport Mega Core function is part of the MegaCore IP Library, which isdistributed with the Quartus ii software and downloadable from the altera websitewww.altera.como For system requirements and installation instructions, refer to Quartus II InstallationLicensing for Windows and Linux Workstations on the Altera website atwww.altera.com/literature/lit-qts.ispFigure 2-1 shows the directory structure after you install the HyperTransportMegaCore function, where is the installation directory. The default installationWindows is C: altera ; on Linux it islopt/alteraFigure 2-1. Directory StructureInstallation directorypContains the Altera MegaCore IP Library and third-party IP coresalteraContains the Altera MegaCore IP LibrarycommonContains shared componentshtContains the Hyper Transport Hyper Transport Megacore function files and documentationdocContains the documentation for the Hyper Transport MegaCore functionlibContains encrypted lower-level design filesexampleContains the design example for the Hyper Transport Mega Core function2. Create a custom variation of the Hyper Transport Mega Core function3. Implement the rest of your design using the design entry method of your choice4. Use the IP functional simulation model to verify the operation of your designo For more information about Ip functional simulation models, refer to the SimulatingAltera IP in Third-Party Simulation Tools chapter in volume 3 of the Quartus II Handbook5. Use the Quartus II software to compile your designC March 2009 Altera CorporationHyperT ransport Mega Core Function User Guide2-2Chapter 2: Getting StartedMega Core Function WalkthroughIg You can also generate an Open Core Plus time-limited programming file,which you can use to verify the operation of your design in hardware6. Purchase a license for the hypertransport Mega Core functionAfter you have purchased a license for the Hyper transport mega Core functionfollow these additional steps1. Set up licensing2. Generate a programming file for the Altera device(s)on your board3. Program the Altera device(s)with the completed designMegaCore Function WalkthroughThis walkthrough explains how to create a custom variation using the AlteraHyper Transport IP Toolbench and the Quartus II software, and simulate the functionusing an ip functional simulation model and the modelsim software when you arefinished generating your custom variation of the function, you can incorporate it intoⅴ our overall projectIe IP Toolbench allows you to select only legal combinations of parameters, and warnsou of any invalid configurationsIn this walkthrough you follow these stepsCreate a New Quartus II Projecta Launch the MegaWizard Plug-in Manager■Step1: Parameterizea Step 2: Set Up Simulation■Step3: Generate■ Simulate the designTo generate a wrapper file and Ip functional simulation model using default values,omit the procedure described in"Step 1: Parameterizeon page 2-5Create a New Quartus ll ProjectCreate a new Quartus II project with the New Project Wizard, which specifies theworking directory for the project, assigns the project name, and designates the nameof the top-level design entityTo create a new project, perform the following steps1. On the Windows Start menu, select Programs> Altera> Quartus II tostart the Quartus lI software. Alternatively, you can use the Quartus II Web editionsoftware2. In the Quartus II window, on the File menu, click New Project Wizard. If you didnot turn it off previously, the New Project Wizard Introduction page appears3. On the New Project Wizard Introduction page, click NextHyper Transport MegaCore Function User Guideo March 2009 Altera Corporation

【实例简介】排版优良，格式清晰，方便查阅，欢迎下载

雷达成像技术，共两本打包，雷达成像技术雷达成像技术

附件中包含了GuiBuilder，SetupFontCvt等工具包，亲测可用。具体可参考博文http://blog.csdn.net/armwind/article/details/78441556

设有最大化的整数规划问题A,与它对应的线性规划为问题B,从解问题B开始,若其最优解不符合A 的整数条件,那么B的最优目标函数必是A 的最优目标函数 的上界,记作Z1;而A 的任意可行解的目标函数值将是 一个下界Z2。分支定界法就是将B的可行域分成子区域(称为分支),逐步减小Z1和增大Z2,最终求到 .

使用gsoap2.8.32生成的onvif架构！实现了rtsp对接。注意修改IP。