智能融合终端产品手册-智芯公司

台区智能融合终端交付操作指南
1. 简介
本文档将提供台区智能融合终端交付的操作指南，旨在帮助用户正确完成交付过程。

台区智能融合终端是一种具有智能化功能的终端设备，用于实现高效能的业务运营和管理。

2. 交付准备
在进行终端交付之前，需要进行以下准备工作：
- 确定交付的终端数量及型号；
- 确保终端配备了所需的软件和配置；
- 确保交付地点和时间与用户协商一致。

3. 交付步骤
按照以下步骤执行终端交付：
3.1 终端检查
在交付前，对终端进行检查，确保其性能完好无损，并且与用户的需求一致。

3.2 终端配置
根据用户的需求，对终端进行相应的配置，例如安装特定软件、设置网络连接等。

3.3 功能测试
在进行交付之前，对终端的各项功能进行测试，确保其正常运作。

3.4 交付文件
将终端交付给用户时，同时提供相应的交付文件，包括终端的
说明书、保修卡等。

3.5 用户培训
如果需要，对用户进行相关培训，教授终端的操作方法和注意
事项。

4. 交付完成确认
在交付完成后，用户和交付人员共同确认交付的终端数量和配
置是否符合协议要求。

5. 售后支持
为了提供更好的售后服务，确保用户能够正常使用终端，建议用户与我们保持联系，并及时报告任何问题。

6. 其他注意事项
- 在交付过程中，应注意维护终端的机密性和安全性；
- 严禁私自更改终端配置；
- 在遇到问题或疑问时，及时与我们联系。

以上为台区智能融合终端交付操作指南的内容，请在交付过程中参考并遵守相应步骤和注意事项。

如有任何疑问，请及时与我们联系。

融合终端的标准
融合终端是指能够融合多种功能的终端设备，如手机、平板电脑、智能手表等。

融合终端的标准包括以下几个方面：
1. 硬件标准：包括硬件接口标准、电池容量标准、重量和尺寸标准等，以确保不同厂商的融合终端之间的兼容性和互操作性。

2. 操作系统标准：要求融合终端使用标准化的操作系统，如Android、iOS等，以提供统一的用户界面和应用程序生态系统。

3. 数据传输标准：要求融合终端支持多种数据传输方式，如蜂窝网络、Wi-Fi、蓝牙等，以实现高速稳定的数据传输。

4. 安全标准：融合终端应具备一定的安全防护机制，如用户身份验证、数据加密等，以保护用户信息和隐私的安全。

5. 电池寿命标准：融合终端应具备较长的电池寿命，以支持用户长时间的使用。

6. 生态系统标准：要求融合终端能够与各类应用程序和服务进行无缝集成，以提供更加丰富和便捷的用户体验。

以上是一些常见的融合终端标准，通过遵循这些标准，可以提高融合终端的互操作性和用户体验，并推动融合终端市场的发展。

The Beam Remote Satellite Terminal RST100 provides reliable and convenient global telecommunications access voice, data & messaging services via the Iridium satellite network.By using the add on TrackALERT terminal enables the Beam Remote Satellite terminal to support a Ship Security Alert System (SSAS) along with tracking and monitoring applications.For years the maritime market has been the largest user of satellite communications and today is no exception. In providing alert, monitoring and tracking solution access to a high quality communication service is essential to maritime users all over the world.Beam provides solutions for the following key maritime applications;• Voice calling • Data services • Crew calling • Alert Systems • Tracking / MonitoringIridium Satellite SystemIridium is the only provider of truly global satellite voice and data solutions with complete coverage of the earth. Iridium delivers essential communications services to and from remote areas where no other form of communication is available.The Iridium system is the largest fully meshed satellite network constellation in the world and consists of 66 low-earth orbiting (LEO), cross-linked satellites and has multiple in-orbit sparesShip Security Alert System2/6 mandated SSAS regulations.Requirementsare as follows;• Covert alert notification• No physical signs of alert raised • At least 2 alert buttons • Full test of the system• Notification to multiple parties • Alert to specify ship details • Alert to specify location data • System cannot be locally reset •Continuous alerting until resetCost Benefitsspecifically for the SSAS system.Key Features & Benefits• Fully compliant with Solas XI-2/6 • Simple installation / configuration • Global access pole to pole • Local & Remote configuration • Remote Diagnostics & testing • Passcode protected• Support multiple alert buttons • Support simultaneous tracking • Multiple alert notifications • Can support Ships NMEA feed • Support separate GPS antenna • No additional monthly feesAlert Systems ApplicationsAs the TrackALERT input is designed to provide support for multiple applications, it is possible to also combine the tracking and reporting functionality with an emergency alert system.The TrackALERT interface can handle multiple alarm activation points. These activation points can be from physical buttons or digital /analog inputs.Secure Alert ResetThe TrackALERT terminal is programmed to have a security Passcode. Once this is set this is the only way an alert can be deactivated. This can be performed locally or remotely using SMS commands.Alert NotificationWhen an alarm is raised this will automatically generate the delivery of an alert notification to the predetermined destination. This delivery destination can be to another Iridium service, another mobile service (Selected Service Providers) or to any email address as specified. RST100 –Alert & Tracking SolutionsSSAS_TRACK_0608Alert PriorityWhilst Beam gives you the flexibility to use the Remote Satellite Terminal for other Iridium Services, in the event of an emergency, the Beam terminal intelligence will always give priority to alerts and terminate any active Voice or Data calls in order to transmit the SSAS alert notification when used with the Beam RST100System TestingThe TrackALERT system can be easily tested locally or remotely. The test enables a full test of the security system including the real alert buttons and delivery notification protocols, whilst not sending alerts to the Emergency Response centre.Tracking ApplicationsThe TrackALERT interface provides an intelligent vessel tracking interface and enables you to configure individual reporting fields such as long/lat/speed/direction/height as well as the status of alarms or other digital / analog inputs as configured on the terminal.Movement ReportingFor tracking applications the intelligent system also allows the unit to be configured so that position reports are only sent when the vessel is moving; this is a great cost saving measure. However, at anytime the unit can still be remotely polled for a current position as required.InstallationThe TrackALERT terminal can be easily installed either as a standalone terminal connected to the communication device or in the case when used with the RST100 it can be simply joined to the main interface using the mounting brackets.The TrackALERT InterfaceThe Beam TrackALERT, alert and monitoring interface, delivers a highly intelligent tracking, monitoring and alert system for various applications.Specifically the interface supports the Ship Security Alert System (SSAS) and enables anyone to easily and covertly transmit an emergency distress signal to the ship owner and any nominated Authority.intelligent voice, data and tracking solution using the Beam Remote Satellite Terminal RST100.Intelligent Configurationprocessor onboard the terminal. settings, notification addresses, notification intervals, loop configuration, remote control as well as remote polling when required. All parameters can be configured remotely via SMS and retrieved by either SMS or SBD.Inbuilt GPSGPS antenna. The terminal will also take a GPS input from any NMEA feed.inputs.GPS Antenna Optionsinterface units.SSAS & TrackALERT Features•Supports multiple GPS inputs • Active GPS antenna •Ships NMEA inputMultiple notification methods• SMS • Short Burst Data (SBD) • SBD to 5 email addresses •SMS to emailSSAS / Equipment test•Full Test Remote or Local •Configurable delivery adviceIntelligent Tracking• Remote Polling on Demand• Periodic Transmission •Movement ActivatedIntelligent Processor• Fully configurable • GPS signal monitoring • Remote test of SSAS • Remote software download •SMS confirmationConfigurable Settings• SSAS Information • Alert notification•Remote or local alert resetLED Status•GPS signal•Power / AntennaIntelligent alarm buttons• 4 Individual loops• Used for Alarm/ Monitoring • Multiple buttons per loop • Up to 500m cable lengthTechnical SpecificationsPower SpecificationsPhysical Specifications Unit only Packed Power input voltage DC 7.5 V DCDimensions - mm 110 x 225 x 45 300 x 283 x 63 Powered from RST100 TerminalDimensions - inches 4.3 x 8.8 x 1.712.9 x 11.1 x 2.4Power ConsumptionWeight - kg 0.8 1.1 @ 7.5V DC200mA1.5WWeight - lbs1.72.4Environment Specifications SSAS SpecificationTemperature Degrees ˚C Degrees ˚F Supports multiple alarm inputs Operating Range -15 to +55 +5 to +131 GPS Storage -30 to +70 -22 to 158 GPS - Inbuilt Garmin GPS module Humidity 93% non condensing GPS - Support external NMEA feed Vibration 2 Hz - 13.2 Hz & 13.2 Hx - 100 hzMessage delivery via SBD or SMS Corrosion Remote or local system test40 ˚C with 90% - 95% relative humidity after 2h salt sprayPasscode protectedConnectors / Interfaces CertificationLog Port RS232 Serial Interface Germanischer Lloyd Connection to RST100 RS232 Serial Interface American Bureau of Shipping Serial Data Port NMEA RS232 Serial Interface RTTEGPS Antenna SMA United States Coast Guard Antenna Selection Not Used IEC6045 including Vibration/Corrosion Loops 1,2,3 & 4 4-way Terminal Block C tick Analog Output 6-way Terminal Block CE Compliance Kit Contents LED / Display RST030 Main terminal Power Green Serial data cable to connect to RST100 GPS Antenna Data Red / Green Mounting Brackets Serial NMEA Data Green SSAS Software AccessoriesBeam Management System - Configuration software GPS Antenna - Mast Mount RST909 User & Installation Manual GPS Antenna - Patch mountRST901 CD - Beam Management System, AT Commands, Manuals Dual Mode Iridium Helix / GPS Patch antenna RST902 GPS Antenna Cable - 6m / 18' RST942 GPS Antenna Cable - 30m / 90' RST941Ease of UseThe Beam equipment provides the ability Intelligent Handset InterfaceThe optional Intelligentvoice and SMSThe handset is compact,hang-up cup and inbuiltringer. The unit supportsfull SMS functionality aswell as an easy menusystem to access phoneWith Iridium prepaid services, users have a cost-effective communications system at their fingertips, eliminating the headaches of monthly bills or subscription fees. Unused minutes carry forward so your minutes can be used in future months. Prepaid SIM’s are ideal for situations withData & Messaging Service (SMS)The Iridium SMS can send and receiveBeam Communications Pty Ltd 8 Anzed Court, Mulgrave, Victoria Australia 3170T: +61 3 9560 9999 F: +61 3 9560 9055E:*********************Technical SpecificationsIridium NetworkSatellite Constellation L-Band transceiver frequency 1616 - 1625 MHz Intersatellite Links 23.18-23.38 GHz, Ka-band Compressed Data2.4 kbps Ground Segment Links Voice / data modulation 10 - 12 kbps Downlinks19.4-19.6 GHz, Ka-bandUplinks29.1-29.3 GHz, Ka-band RST100 - Remote Satellite TerminalPower Specifications Physical Specifications Unit only Packed Power input voltage 11 - 32 V DC Dimensions - mm 225 x 271 x 45 400 x 325 x 90 Power Consumption ( AMPS ) 12 V DC 24 V DC Dimensions - inches 8.8 x 10.6 x 1.215.7 x 12.8 x 3.5Stand-by 0.35 0.16 Weight - kg 2.25 3.25 Transmit 0.51 0.25 Weight - lbs 4.9 7.1 Stand-by - inc handset 0.47 0.22Transmit - inc handset 0.59 0.29 Environment Specifications Certifications Temperature Degrees ˚C Degrees ˚F IEC60945 Operating Range -15 to +55 +5 to +131 Germanischer Lloyd Storage -30 to +70 -22 to 158 American bureau of Shipping Humidity 93% non condensing electrical Safety Vibration 2 Hz - 13.2 Hz & 13.2 Hx - 100 hz EMC ComplianceCorrosion 40 ˚C with 90% - 95% relative humidity after 2h salt sprayConnectors / Interfaces LED / DisplayIntelligent Handset RJ45 DPL BUS Power Green Telephone / POTS RJ-11 2 -wire / TN12 or 600Ω Signal 3 Colour Data Port RS232 Serial Interface Call Yellow Log Port RS232 Serial Interface Voicemail Green Power 2 Pin screw type Kit Contents AccessoriesRST100 Main terminal Mast mount antenna RST910 Mounting Brackets Intelligent handset RST970 AC 110/240V Plug Pack TrackALERT- SSAS Unit RST030 DC 1.5m Power Cable 6 m / 18 f RST932 Data Cable 9 m / 27 f RST930 User & Installation Manual 12 m / 36 f RST933 CD - Beam Management System, AT Commands, Manuals SSAS / TrackALERT RST030 External ringer / alarm RST952。

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台区智能融合终端用户安装指导手册一、编制目的为了保证台区智能融合终端项目顺利实施及工程施工按期完成，有效指导施工人员的设备安装，以求优质、安全、高效、低耗完成施工任务，确保安装到达最佳效果。

二、编制依据GB/T18857-2008配电线路带电作业技术导则Q/GDW 520-2010 1 0kV 架空配电线路带电作业管理规范GB17622-2008带电作业用绝缘手套GB/T13035-2008带电作业用绝缘绳索GB/T12168-2006带电作业用遮蔽罩GB/T13034-2008带电作业用绝缘滑车DL/T803－2002 带电作业用绝缘毯DL 778—2001 带电作业用绝缘袖套DL/1125-2009 带电作业用绝缘服DL/975－2005带电作业用防机械刺穿手套DL/T676-1999带电作业绝缘鞋（靴）通用技术条件GB/T18037-2008带电作业工具基本技术要求与设计导则DL/T972-2005带电作业工具、装置和设备的质量保证导则DL/T976-2005带电作业工具、装置和设备预防性试验规程DL/T854-2004带电作业用绝缘斗臂车的保养维护及在使用中的试验GB18269-2008交流1kv、直流1.5kv及以下电压带电作业用绝缘手工工具国家电网2007－751《带电作业工作管理规定》国家电网公司电业安全工作规程（电力线路部分）国家电网公司现场标准化作业指导书编制导则配电自动化技术导则国家电网公司配电自动化功能规范配电自动化建设改造技术规定运维管理规范配电自动化系统(主站、总线、平台)技术规范书电监安全【2006】34号电力二次系统安全防护总体方案国家电力监管委员会第5号令电力二次系统安全防护规定国家电网生配电【2009】124号生产管理系统配网业务需求功能规范（2009版）国家电网生配电【2009】196号配电自动化试点建设与改造技术原则GB/T 13729 远动终端通用技术条件GB 50173 电器装置安装工程35kV及以下架空电力线路施工及验收规范DL/T 5161 电器装置安装工程质量检验及评定规程三、物料准备智能融合终端现场前，需要提前准备安装所需的设备、耗材，以便于设备正常安装，具体安装设备及耗材见表1。

Application Note AC352January 20131© 2013 Microsemi Corporation SmartFusion cSoC: Using ACE with PDMATable of ContentsIntroductionThe SmartFusion ® customizable system-on-chip (cSoC) device contains a hard embeddedmicrocontroller subsystem (MSS), programmable analog circuitry, and FPGA fabric consisting of logictiles, static random access memory (SRAM), and phase-locked loops (PLLs). The MSS consists of a 100MHz ARM ® Cortex™-M3 processor, advanced high-performance bus (AHB) matrix, system registers,Ethernet MAC, DMA engine, real-time counter (RTC), embedded nonvolatile memory (eNVM),embedded SRAM (eSRAM), fabric interface controller (FIC), the Philips Inter-Integrated Circuit (I 2C),serial peripheral interface (SPI), and external memory controller (EMC).The SmartFusion cSoC’s programmable analog section contains the analog computing engine (ACE)and analog front-end (AFE) blocks. The SmartFusion cSoC devices have a versatile AFE that provides avery useful complement to the ARM Cortex-M3 microcontroller and general-purpose FPGA fabric. TheSmartFusion cSoC devices have a sophisticated controller for the AFE called the ACE, which configuresand sequences analog functions and post-processes the results, all independent of the Cortex-M3processor, allowing it to work on other tasks. The SmartFusion cSoC devices have multiple analog-to-digital converters (ADCs) and digital-to-analog converters (DACs). The A2F200 has two of each, and theA2F500 has three of each. The SmartFusion DACs are the one-bit sigma-delta type. The ACE has abuilt-in first-order sigma-delta modulator that feeds each one-bit DAC. The DAC can be operated ineither Voltage or Current Output mode. Refer to the SmartFusion Programmable Analog User’s Guide formore details on programmable analog.The peripheral DMA engine in MSS, which supports eight channels, facilitates data movement from ACEto an MSS memory location such as eSRAM. Alternatively, data can be moved to SRAM in the FPGAfabric. An APB master such as the Cortex-M3 processor, and the fabric master can always access theregisters and SRAM in ACE (SSE and PPE) to move data themselves. However, this is very inefficientand wastes processor power. Instead, the dedicated PDMA engine should be used for moving data andthe APB master should process only the moved PDMA data from the destination location. Refer to theSmartFusion Microcontroller Subsystem (MSS) User's Guide for more details on MSS Peripheral DMA.In the ACE, RAW ADC data or PPE filtered data or PPE processed data is made available for the PDMAto transfer to other memory locations in the MSS or the FPGA fabric. This can be configured in theSmartDesign MSS configurator. Refer to the MSS ACE Configuration User's Guide for further details onthe configuration. The PDMA data is available in the 32x32 dedicated FIFO in the ACE. This FIFO iswritten by PPE with RAW, filtered, processed data based on your selection. The ADC samples analogdata at the pads, while the ADC datavalid is used as the write signal into the ADC FIFO (4 deep x 16width). This ADC FIFO contains 12-bit raw ADC data and a 5-bit channel number. The PPE monitors thebusy signals on ADC FIFOs in a round robin fashion, and starts processing as soon as it detects a non-empty ADC. The PPE microcode is responsible for pushing various data into the PDMA FIFO. If youhave selected the check box in MSS ACE configurator, then the first thing the PPE does is to take thedata from the ADC FIFO and puts it into the PDMA FIFO.Introduction . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1Design Example Overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2Running the Design . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5Conclusion . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7Appendix A – Design Files . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 7List of Changes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8SmartFusion cSoC: Using ACE with PDMA2This application note and associated design files explain how to use PDMA to move ADC data from ACEto embedded SRAM. The Cortex-M3 processor is used as the APB master.Design Example OverviewIn the design example, PDMA is used to move ADC data from the ACE to MSS eSRAM. The Cortex-M3processor acts as the APB master and processes the ADC data and extracts ADC results. The result iswritten to HyperTerminal interfaced with the UART0 peripheral. The application code resides in theeNVM.Figure 1 shows the design example used with this application note to demonstrate using PDMA withACE.This application note covers the following:1.Configuring the hardware platform2.Customizing software application3.Configuring PDMA the channel for ADC data transfer4.Processing of ADC data to extract ADC resultConfiguring HardwareThe MSS ACE configurator generates analog configuration multiplexer (ACM), SSE, and PPE microcodespecific to the application, based on your configuration of the analog services. The microcode isprogrammed into the eNVM along with system boot code when the SmartFusion cSoC device isprogrammed. On system start-up, the analog configuration is written into ACM (0x40020200-0x400203FC) and microcode is copied from the eNVM into SSE and PPE SRAMs by the Cortex-M3processor as part of the system boot. This step customizes the hardware platform.In the design example used with the application note, ACE is configured to monitor direct ADC input.ADC translates the analog input to digital values and stores it in ADC FIFO. In the MSS ACEconfigurator, select send raw ADC result to DMA . This results in PPE microcode, which moves datafrom ADC FIFO to PDMA FIFO.Figure 1 • ACE PDMA Data Flow with MSS eSRAMDesign Example Overview3Design files provided with this application note have Verilog and VHDL projects. You must have STAPLfiles ready to program the SmartFusion cSoC devices.Customizing SoftwareThe ACE configuration information is written into customized header files and source files. These filesreside in the folder <Libero_Project/Firmware/drivers_config/mss_ace>. These files contain thecustomization information you specified to the ACE, such as logical channel names, flag names,threshold values, and filtering. These files are referred to as driver configuration files.The information contained in these files is used by the drivers to access and process data from thededicated SRAMs, and appropriate registers in SSE and PPE. Refer to the following user’s guides:•SmartFusion MSS ACE Driver User’s Guide •SmartFusion MSS PDMA Driver User’s Guide •MSS ACE Configuration User’s GuideDesign files provided with this application note contain a SoftConsole project built with drivers and driverconfiguration files corresponding to the Libero ® System-on-Chip (SoC) software projects.Note:It is very important that you copy the ACE driver configuration files into the software project andprogram the target hardware with the generated eNVM content; otherwise the hardware platformand software application would be out of synchronization, resulting in unexpected behavior.Figure 2 • ACE Configuration with PDMA OptionSmartFusion cSoC: Using ACE with PDMA4Configuring PDMA Channel for ADC Data TransferSetting up PDMA involves the following steps. These are implemented in the c file main.c, which is part of the application project provided in the design files. The following sections provide an overview of these configuration steps.PDMA InitializationThe PDMA engine must be initialized. Use the PDMA driver function PDMA_init() for this. This function resets PDMA and also clears any pending PDMA interrupts in the Cortex-M3 processor interrupt controller.Usage:PDMA_init():Configuring one of the PDMA Channels with ACE as SourceThe function PDMA_configure() is used for this purpose. In this case, PDMA channel 0 is configured with ACE as source for PDMA data transfer.Usage:PDMA_configure(PDMA_CHANNEL_0,PDMA_FROM_ACE,PDMA_LOW_PRIORITY | PDMA_WORD_TRANSFER |PDMA_INC_DEST_FOUR_BYTES, PDMA_DEFAULT_WRITE_ADJ);Managing PDMA TransferActual PDMA transfer for the configured PDMA channel is managed using the function PDMA_start(). The source address for the PDMA is the ACE PDMA FIFO, which is a predefined source in the driver files.The destination address for the PDMA is a buffer in MSS eSRAM, defined in the application. Usage:PDMA_start(PDMA_CHANNEL_0,/* Source for PDMA */(uint32_t) PDMA_ACE_PPE_DATAOUT,/* Destination for PDMA */(uint32_t) g_samples_buffer[g_pdma_buffer_idx],SAMPLES_BUFFER_SIZE);Setting up InterruptsPDMA_set_irq_handler() function is used to associate the ISR function for interrupts generated on the completion of a transfer on the PDMA channel specified. This function enables the PDMA interrupt both in the PDMA controller and in the Cortex-M3 processor interrupt controller.Usage:PDMA_set_irq_handler(PDMA_CHANNEL_0, ace_pdma_handler);Processing of ADC Data to Extract ADC ResultOnce the data has been received by the PDMA in the destination memory location, the application must extract the ADC number, channel number, and the raw data from the 32-bit data received. The ACE driver function ACE_translate_pdma_value() is used to decode the ACE data received by the PDMA. Refer to the PDMA data format table in the MSS ACE Configuration User's Guide for details on the data format.Usage:volatile uint16_t raw_value;raw_value = ACE_translate_pdma_value(g_samples_buffer[proc_buffer_idx][i], 0);Running the Design5Running the DesignBoard SettingsThe design example works on the SmartFusion Development Kit Board and the SmartFusion EvaluationKit Board with default board settings. Refer to the following user's guides for default board settings:•SmartFusion Development Kit User’s Guide •SmartFusion Evaluation Kit User’s GuideProgram the DesignProgram the SmartFusion Evaluation Kit Board (A2F-EVAL-KIT) or the SmartFusion Development KitBoard (A2F-DEV-KIT) with the provided STAPL file (refer to "Appendix A – Design Files" on page 7) usingFlashPro and then power cycle the board.The direct ADC input is assigned to pin W8, which is connected to the POT on the A2F-EVAL-KIT andA2F-DEV-KIT. Rotating the POT changes the input voltage applied at the ADC input. Refer to theSmartFusion Evaluation Kit User's Guide or the SmartFusion Development Kit User's Guide forschematics and pin mapping.Running the ApplicationInvoke the SoftConsole IDE from the Libero SoC project (refer to "Appendix A – Design Files" on page 7)and launch the debugger. Start a HyperTerminal with 57600 baud rate, 8 data bits, 1 stop bit, no parity,and no flow control. If your PC does not have the HyperTerminal program, use any free serial terminalemulation program like PuTTY or Tera Term. Refer to the Configuring Serial Terminal EmulationPrograms tutorial for configuring the HyperTerminal, Tera Term, and PuTTY .SmartFusion cSoC: Using ACE with PDMA6When you run the debugger in SoftConsole, the HyperTerminal window displays a menu that allowscontrolling ADC result display (Figure 3).Figure 3 • Menu Selection of ADC Result DisplayConclusion7Type y to start the display of the ADC result. Note that as the POT is rotated, the display varies. You canstop the display by pressing s and resume the display by pressing y .Release ModeThe release mode programming file (STAPL) is also provided. Refer to the Readme.txt file included in theprogramming file for more information. Refer to the Building Executable Image in Release Mode andLoading into eNVM tutorial for more information on building an application in release mode.ConclusionThis application note and design example demonstrate usage of PDMA with ACE to showcase theoffload capability in SmartFusion cSoC devices.Appendix A – Design FilesYou can download the design files from the Microsemi SoC Products Group website:/soc/download/rsc/?f=A2F_AC352_DF .The design file consists of Libero SoC projects and programming file (*.stp) for A2F500 and A2F200.Refer to the Readme.txt file included in the design file for directory structure and description.You can download the programming files (*.stp) in release mode from the Microsemi SoC ProductsGroup website: /soc/download/rsc/?f=A2F_AC352_PF.The programming file consists of STAPL programming files (*.stp) for A2F500 and A2F200, and aReadme.txt file.Figure 4 • ADC Result DisplaySmartFusion cSoC: Using ACE with PDMA 8List of ChangesThe following table lists critical changes that were made in each revision of the document.Revision*Changes Page Revision 4(January 2013)Added "Board Settings" section (SAR 43469).5Revision 3(February 2012)Removed ".zip" extension in the Design files link (SAR 36763).7Revision 2(January 2012)Modified the "Configuring Hardware" section (SAR 35790).2Modified the "Customizing Software" section (SAR 35790).3Modified the "Program the Design" section (SAR 35790).5Modified the "Running the Application" section (SAR 35790).5Added section called "Release Mode" (SAR 35790).7Modified the "Appendix A – Design Files" section (SAR 35790).7Revision 1(May 2011)Modified "Conclusion" and "Appendix A – Design Files" sections.7Note:*The revision number is located in the part number after the hyphen. The part number is displayed at the bottomof the last page of the document. The digits following the slash indicate the month and year of publication.51900220-4/01.13© 2013 Microsemi Corporation. All rights reserved. Microsemi and the Microsemi logo are trademarks of Microsemi Corporation. All other trademarks and service marks are the property of their respective owners.Microsemi Corporation (NASDAQ: MSCC) offers a comprehensive portfolio of semiconductor solutions for: aerospace, defense and security; enterprise and communications; and industrial and alternative energy markets. Products include high-performance, high-reliability analog and RF devices, mixed signal and RF integrated circuits, customizable SoCs, FPGAs, and complete subsystems. Microsemi is headquartered in Aliso Viejo, Calif. Learn more at .Microsemi Corporate HeadquartersOne Enterprise, Aliso Viejo CA 92656 USAWithin the USA: +1 (949) 380-6100Sales: +1 (949) 380-6136Fax: +1 (949) 215-4996。

智嵌 ZQWL-CANET-1C212使用手册V1.1版本号：A拟制人：智嵌物联团队时间：2018年10月24日目录1产品快速入门 (3)1.1硬件准备 (3)1.2透传测试 (3)2功能简介 (5)2.1硬件特点 (5)2.2设备特性 (5)3模块硬件接口 (6)3.1模块接口及尺寸 (6)3.2模块指示灯含义 (7)3.3CAN接口 (7)3.4拨码开关的使用 (7)4模块参数配置 (8)4.1智嵌串口服务器配置软件 (8)4.2网页参数配置 (11)5CAN与网络数据转换 (14)5.1转换格式 (14)5.2TCP_SERVER工作模式 (15)5.3TCP_CLIENT工作模式 (16)5.4UDP_SERVER工作模式 (18)5.5UDP_CLIENT工作模式 (19)6常见问题及解决办法 (20)6.1搜索不到设备 (20)6.2设备不能通讯 (20)1产品快速入门ZQWL-CANET-1C212（以下简称1C212）是实现2路CAN总线与以太网的数据相互转换的设备。

设备的网络参数（如IP）和CAN参数（波特率等）都可以通过配置软件或者网页的方式修改。

本节是为了方便用户快速对该产品有个大致了解而编写，第一次使用该产品时建议按照这个流程操作一遍，可以检验下产品是否有质量问题。

所需要的测试软件可以到官网下载：/图1.0 产品资料下载1.1硬件准备为了测试1C212，需要以下硬件：●1C212一个；●DC12V 1A电源适配器一个；●网线一个；●USB转CAN设备一个（推荐型号：ZQWL-UCAN-5C121）；图1.1 硬件准备1.2透传测试先用产品的默认参数来测试，默认参数如下：的本地端口来区分是发往CAN1还是CAN2的。

测试之前必须保证正电脑的IP是和设备IP处于一个网段内，如果不在一个网段内，需要重新设置电脑的IP地址（静态IP），如下：图1.2.1 电脑IP地址设置（1）CAN1与网路转换用导线将usb转CAN调试器和设备的CAN1口连接(H接H，L接L)，用网线将电脑的网口和设备的网口连接，然后DC12V 1A电源适配器给设备供电。