UPS中的逆变电路

esp8266-12E的说明书，PDF文档，其他地方不大容易找的。EsP-12E规格书目录1.产品概述21.1.特点1.2.主要参数………垂4由非垂·······:·2.接口定义……4573.外型与尺寸……4.功能描述41. MCU4.2.存储描述99994.3.晶振4.4.接口说明………………104.5.最大额定值4.6.建议工作环境……114.7.数字端口特征115.RF参数126.功耗……………137.倾斜升温……148.原理图…非垂非9.产品试用16深圳市安信可科技有限公司http://www.ai-thinker.comEsP-12E规格书1.产品概述ESP-12EWFⅰ模块是由安信可科技开发的,该模块核心处理器ESP8266在较小尺寸封装中集成了业界领先的 Tensilica l106超低功耗32位微型McU,带有16位精简模式,主频支持80MHz和160MHz,支持RTOS,集成Wi- FI MAC/BB/RF/ PA/LNA,板载天线。该模块攴持标准的IE802.11b/g/n协议,完整的τcPP协议栈。用户可以使用该模块为现有的设备添加联网功能,也可以构建独立的网络控制器ESP8266是高性能无线SOC,以最低成本提供最大实用性,为WⅰFi功能嵌入其他系统提供无限可能。射频MAC接口接收模拟接收匚寄存器」SPI射频CPU内核发射模拟发射心成帧器GPIO加速器12C锁相环H(co)12锁相环电源管理晶振偏置电路SRAM电源管理图1ESP8266EX结构图ESP8266EX是一个完整且自成体系的WF网络解决方案,能够独立运行,也可以作为从机搭载于其他主机McU运行。ESP8266EⅩ在搭载应用并作为设备中唯一的应用处理器时,能够直接从外接闪存中启动。内置的高速缓冲存储器有利于提高系统性能,并减少內存需求。另外一种情况是,ESP8266EX负责无线上网接入承担WiFi适配器的任务时,可以将其添加到任何基于微控制器的设计中,连接简单易行,只需通过SPI/SDO接口或I2 C/UART口即可。ESP8266EX强大的片上处理和存储能力,使其可通过GPIO口集成传感器及其他应用的特定设备,实现了最低前期的开发和运行中最少地占用系统资源。ESP8266EⅩ高度片内集成,包括天线开关 balerη、电源管理转换器,因此仅需极少的外部电路,且包括前端模组在內的整个解决方案在设计时将所占PCB空间降到最低。深圳市安信可科技有限公司http://www.ai-thinker.com2EsP-12E规格书有ESP8266EⅩ的系统表现出来的领先特征有:节能在睡眠/唤醒模式之间的快速切换、配合低功率操作的自适应无线电偏置、前端信号的处理功能、故障排除和无线电系统共存特性为消除蜂窝/蓝牙/DDR/ LVDS/LCD干扰。11.特点80211b/g/n·内置 Tensilica l106超低功耗32位微型McU,主频攴持80MHz和160MHz,支持RTOS·内置10bit高精度ADC内置TCPP协议栈内置TR开关、 balun、LNA、功率放大器和匹配网络内置PL、稳压器和电源管理组件,802.11b模式下+20dBm的输岀功率A-MPDU、A-MSDU的聚合和0.45的保护间隔WiFi@2.4GHz,支持 WPA/WPA2安全模式支持AT远程升级及云端OTA升级支持 STA/AP/STA+AP工作模式支持 Smart Config功能(包括 Android和iOs设备)HSPI、UART、I2C、I2S、 IR Remote Control、PWM、GPIo深度睡眠保持电流为10uA,关断电流小于5uA2ms之内唤醒、连接并传递数据包·待机状态消耗功率小于1.0mW(DTM3)工作温度范围:-40℃-125°C深圳市安信可科技有限公司http://www.ai-thinker.com3EsP-12E规格书12.主要参数表1介绍了该模组的主要参数。表1参数表类别参数说明无线标准80211b/g/n无线参数频率范围24GHz-25GHz(2400M24835M)数据接口UART/HSPL/I2C/I2S/Ir Remote ContorlGPIO/PWM工作电压30~36V(建议3.3V)工作电流平均值:80mA工作温度40°~125硬件参数存储温度常温封装大小16mm x 24mm x 3mm外部接口N/A无线网络模式station/softAP/SoftAP+station安全机制WPA/WPA2加密类型WEP/TKIP/AES升级固件本地串口烧录/云端升级/主机下载烧录支持客户自定义服务器软件开发软件参数提供SDK给客户二次开发Ipv4, Tcp/udp/Http/ftp网络协议AT+指令集,云端服务器, Android/iOS APP用户配置深圳市安信可科技有限公司http://www.ai-thinker.com4EsP-12E规格书2.接口定义ESP-12E共接出18个接口,表2是接口定义。图2ESP-12E管脚图. RXDEN(CH-PD..GPIOSGPIO16.a.. GPIO4ESP-12EGPIO14..D GPIOOGPIo12·。◆GPIo2GPIO13.aD GPIO15ESP 12E表2ESP-12E管脚功能定义序号Pin脚名称功能说明1RST复位模组ADOA/D转换结果。输入电压范围0~1V,取值范围:0~1024EN芯片使能端,高电平有效4IO16GPIO16;接到RST管脚时可做 deep sleep的唤醒5IO14GPIO14: HSPI CLKIO12GPIO 12, HSPI MISOIO13GPIO13 HSPI MOSI: UARTO CTSVCC33V供电CSO片选10MISO从机输出主机输入深圳市安信可科技有限公司http://www.ai-thinker.com5EsP-12E规格书109GPIo912IO10GBIO1013MOSI主机输出从机输入14SCLK时钟15GNDGND16IO15GPIO15: MTDO: HSPICS: UARTO RTS17102GPIo2: UART1 TXD18IOOGPIOO19IO4GPIO420IO5GPIO521RXDUARTO RXD: GPIO322TXDUARTO TXD: GPIO1表3引脚模式模式GPIO15GPIOG PIO2UART下载模式低低局Flash boot模式表4接收灵敏度参数最小小值典型值最大值单位输入频率24122484MHZ输入电阻输入反射-10dB72.2Mbps下,PA的输出功率141516d Bm深圳市安信可科技有限公司http://www.ai-thinker.com6EsP-12E规格书11b模式下,PA的输出功率17.518.519.5d Bm灵敏度DSSS, 1 Mbps98d BmCCK, 11 Mbps-91d Bm6 Mbps(1/2 BPSK93d Bm54 Mbps (3/4 64-QAM)75d BmHT20, MCS7(65 Mbps, 72.2 Mbps)72d Bm邻频抑制OFDM, 6 Mbps37dBOFDM, 54 Mbps21dHT20, MCSO37dBHT20. MCS7dB3.外型与尺寸ESP-12E贴片式模组的外观尺寸寸为16mm*24mm*3mm(如图3所示〉该模组采用的是容量为4MB,封装为SOP-210mi的 SPI Flash。模组使用的是3DBⅰ的PCB板载天线。深圳市安信可科技有限公司http://www.ai-thinker.comEsP-12E规格书图3ESP-12E模组外观CAr个ESP-12E5m2mt3mm图4ESP-12E模组尺寸平面面图表5ESP-12E模组尺寸对照表长宽PAD尺寸(底部)Pin脚间距16 mm24 mm3 mm0.9 mm x 1.7 mm 2 mm深圳市安信可科技有限公司http://www.ai-thinker.com8

本科毕业设计必备！！毕业设计轻松通过 超值

arm-linux-gcc 4.4.3版本安装步骤将压缩包arm-linux-gcc.tar.gz解压到arm-linux-gcc文件夹tar zcvf arm-linux-gcc.tar.gz arm-linux-gcc将创建目录mkdir /home/linux/arm-linux-gcc将解压后的文件拷贝到安装目录cp –r arm-linux-gcc/* /home/linux/arm-linux-gcc设置/home/linux/arm-linux-gcc权限chmod -R 777 /home/linux/arm-linux-gcc配置环境变量vim /root

Matlab 官方有关于HDL coder开发的详细技术文档， HDL Coder可以把Simulink模型、MATLAB代码和Stateflow框图生成位真、周期精确、可综合的Verilog和VHDL代码，很适合用于FPGA/ASCI的快速开发，里面还有大量的例程等等ContentsHDL Code generation from MATLaBMATLAB Algorithm DesignData Types and scope1-2Supported data TUsuppyted data type1-3Scope for variables1-3Operators1-4Arithmetic operate1-4Relational operators1-4ogical Operators1-5Control flow statements1-6Vector Function Limitations related to Control1-7PersistentⅤ ariables1-8Persistent Array variables1-10Complex data Type Support1-11Declaring complex signaIs1-11Conversion Between Complex and real signals1-12Support for vectors of Complex Numb1-12ystem Objects1-14Why use System objects?1-14Predefined System Object1-14User-Defined System ob1-14Limitations of HDL Code Generation for SystemObjects1-15System object Examples for HDL Code Generation.. 1-16Predefined System Objects Supported for HDL CodeGeneration1-17Load constants from a mat-file1-18Generate Code for User-Defined System Objects1-19How To Create a User-Defined System object1-1User-Defined System object Example1-19Map Matrices to ROM1-22Fixed-Point bitwise Functions1-231-23Bitwise Functions Supported for HDl Code Generation 1-23Fixed-Point Run-Time Library functions1-29Fixed-Point function limitations1-33Model State with Persistent variables and SysteObjects1-34Bit Shifting and bit rotation1-8Bit Slicing and Bit Concatenation1-41Guidelines for Efficient hdL code1-43MATLAB Design Requirements for HDL CodeGeneration1-44What is a matlab test bench?1-45MATLAB Test Bench Requirements and bestractices1-46MATLAB Test Bench requirements1-46MATLAB Test bench best practices1-46ContentsMATLAB Best Practices and Design Patterns forHDL Code generation2Model a counter for hdl code generation2-2MATLAB Counter2-2MATLAB Code for the counter2-3Best Practices in this Example2-4Model a state machine for HDL Code Generation2-5MATLAB State machinesMATLAB Code for the Mealy State MachineMATLAB Code for the moore state machine2-7Best practic2-9Generate hardware Instances For local functions2-10MATLAB Local functions2-10MATLAB Code for mlhdlc two counters. m2-10Implement RAM USing MATLAB Code2-13Implementation of RAM2-13Implement RAM Using a Persistent Array or Systemobject Properties2-13Implement RAM Using hdl. RAM2-14For-Loop best Practices for HDL Code generation2-16MATLAB Loops2-16Monotonically Increasing Loop Counters2-16Persistent Variables in Loops2-17Persistent Arrays in Loops2-17Fixed-Point Conversion3Floating-Point to Fixed-Point Conversion3-2Fixed-Point Type Conversion and Refinement3-16Working with Generated Fixed-Point Files3-26Specify Type Proposal Options3-33Log Data for Histogram3-37Automated Fixed-Point Conversion3-40License Requirements3-40Automated Fixed-Point Conversion Capabilities3-40Code Coverage3-42Proposing Data Types3-45Locking Proposed Data Types3-47Viewing functions3-47lew1ariables3-48Istogram ...3-54Function Replacements3-56Validating Types3-57g Numerics3-57Detecting Overflows3-57Custom plot functions3-59Visualize Differences Between Floating-Point and Fixed-Point results3-61Inspecting Data Using the Simulation Data Inspector 3-67What Is the Simulation Data Inspecto3-67Import Logged Data3-67Export Logged data3-67Group signals3-67Run options3-68Create Report3-68Comparison Options3-68Enabling Plotting Using the Simulation Data Inspector 3-68Save and Load simulation Data Inspector Sessions3-68Enable Plotting Using the Simulation Data Inspector 3-70From the UI3-70From the Command Line3-70Replacing Functions Using Lookup TableApproximations·3-72Replace a custom function with a lookup Table3-73From the UI3-73i ContentsFrom the Command line3-81Replace the exp Function with a Lookup Table3-84From the ui3-84From the Command line3-92Data Type Issues in Generated Code3-94Enable the highlight Option in a MaTLAB CoderProject3-94Enable the Highlight Option at the Command Line... 3-94Stowaway doubles3-94Stowaway singles3-94Expensive Fixed-Point operations3-94Code GenerationCreate and set Up Your Project4-2Create a New Project4-2Open an Existing ProjectAdd Files to the project4-4Primary Function Input Specification4-6When to Specify Input Properties4-6Why You must Specify Input Properties4-6Properties to Specify4-6Rules for Specifying Properties of Primary Inputs4-8Methods for Defining Properties of Primary Inputs4-8Basic hdl code generation with the workflowAdvisor4-10HDL Code Generation from System Objects4-14Generate Instantiable code for functions4-19How to generate Instantiable Code for Functions4-19Generate Code Inline for Specific Functions4-19Limitations for instantiable code generation forFunctions4-19Integrate Custom HDL Code Into MATLAB Design.. 4-21Define the hdl. Black Box System object4-21Use System object In MATLAB Design Function4-23Generate HDL Code4-23limitations for hdl. black box4-26Enable matLab function block generation4-27Requirements for MaTLAB Function Block Generation 4-27Enable matlab function block generation4-27Results of matlab function block generation4-27System Design with HDL Code Generation fromMATLAB and simulink4-28Generate Xilinx System Generator Black Box Block4-32Requirements for System Generator Black Box BlockGeneration4-32Enable System Generator black Box block GeResults of System Generator Black Box Bloc neration4-32Generation4-33Generate Xilinx System Generator for DsP black boxfrom MATLAB HDL Design4-34Generate HDL Code from MATLAB Code Using theCommand line interface4-40Specify the Clock Enable rate4-45Why specify the clock Enable rate?4-45How to Specify the clock Enable rate4-45Specify Test Bench Clock Enable Toggle rate4-47When to Specify Test Bench Clock Enable Toggle rate4-47How to Specify Test Bench Clock Enable Toggle rate4-47Generate an HDL Coding Standard report fromMATLAB4-49Using the hdl Workflow advisor4-49Using the Command Line4-51Generate an HDL Lint Tool script4-53How To generate an hdl lint Tool Script4-53ContentsGenerate a Board-Independent Ip core from MATLAB 4-55Generate a board-Independent Ip core4-55Requirements and Limitations for IP Core generation4-57Minimize clock enables4-58Using the GUi4-59Using the Command Line4-59Limitations4-59VerificationVerify Code with HDL Test Bench5-2Generate Test bench with file i/oWhen to Use file i/o In Test bench5-5How Test bench generation with file i/o works5-5Test Bench Data files5-5How to generate Test bench with file i/o5-6Limitations When Using File 1/0 In Test Bench5-6DeploymentGenerate Synthesis Scripts6-2Optimization7RAM Mapping7-2Map persistent Arrays and dsp. Delay to RAM7-3How To Enable RaM Mapping7-3RAM Mapping requirements for Persistent Arrays andSystem object PropertiesRAM Mapping Requirements for dsp. Delay Systemob7-6RAM Mapping Comparison for MATLAB Code7-8Pipelining7-9Port registers7-9Input and Output Pipeline registers7-9Variable pipelining7-9Register Inputs and Outputs7-10Insert Input and Output Pipeline registers7-11Distributed Pipelining7-12What is Distributed Pipelin7-12Benefits and Costs of Distributed pipelining7-12Selected Bibliograph7-12Pipeline matlab variables7-13Using the hdl Workflow Advisor7-13Using the Command Line Interface7-13Limitations of MatlAB Variable Pipelining7-13Optimize MatLAb loops7-15oop Streaming7-15Loop unrolling7-15How to Optimize maTLaB loops7-15Limitations for MaTLAB Loop Optimization7-16Constant Multiplier optimization7-17Specify constant multiplier optimization7-19Distributed Pipelining for Clock Speed Optimization7-20Map Matrices to Block RAMs to Reduce Area7-27Resource Sharing of Multipliers to Reduce Area7-32Loop streaming to Reduce Area7-41Contents

完成的功能有：三维点云获取，点云数据下采样（为后续处理加速），平面检测和获取，3D显示 在一个老外牛人的程序上改的，原版只支持点云获取和显示，不包括点云处理。另外，原版有个bug，会导致大量的CPU时间用来显示无效的点云数据，已被我这版修正。程序中有个宏开关CLOUD_DISPLAY，如果定义这个宏则有三维显示，如果不定义这个宏则关闭三维显示功能。关闭三维显示的目的是为了加速三维点云数据的处理。另外，使用本程序必要条件是要在你电脑上把Kinect SDK装好，这个去官网下就是了。同时需要把PCL环境配好，推荐另外一个牛人的博客：http://www.zhangzscn.com/20

介绍了Agent的开发环境JADE，介绍了Agent的基本概念，并给出了一个基于JADE的系统。

本文件是关于PSO粒子群算法优化RBF神经网络的MATLAB源程序。

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【实例简介】ddr4电路版图.brd

matlab 下实现信号去噪的函数，输入变量为带有噪音的数据序列，输出变量为去噪后的数据.诸位可以用如下代码进行测试，本人测试得到的效果良好x = -4*pi:0.1:4*pi;y = sin(x)*100;y_t = y+rand(1,252)*80;%加噪数据