此文全文转自:http://svenand.blogdrive.com/archive/169.html#.WaUV9IiGNPY  ,非常感谢!

本人在vivado 2015.4版本测试!

When we have completed lab 1, we will know how to do the following:

  • Create a new project in Vivado targeting the Zynq Zedboard
  • Add an embedded ARM source in Vivado integrator
  • Configure the embedded source
  • Enable and map a Zynq PS UART peripheral
  • Build the hardware platform and export to Vivado SDK
  • Create and run a Hello World application

Let's launch Vivado.

vivado &

Start a new project

To start a new project select "Create New Project".


Enter the project name LED_Controller and specify the project location. Don't forget to mark the "Create project subdirectory" tick box .

Select project type. In this project we will add RTL source code, synthesize and implement. We will not add any source code at this time.

We will add our design to the ZedBoard.

Click Finish to start project creation. The Vivado Cockpit window opens.


Project settings

Before we start designing the new project let's look at the project settings.

Select Tools->Project Settings from the top menu.



We will use Verilog as our target HDL language all other settings can be left with their default values.

Vivado IP Integrator

The current project is blank. To access the ARM processing system, we will create a Block Design in Vivado IP Integrator. Once the Block Design is created, we will add the ARM procesing system as an IP and configure it.

1. Click "Create Block Design" under IP Integrator in the Flow Navigator window.

2. Type system for the Design name and click OK.

3. The source system (system.bd) is created and added under Design Sources in the Sources pane to the left and the Diagram opens in the Block Design pane to the right. To get started select <Add IP> by clicking the highlighted text at the top.

4. A pop-up window opens. Type zynq in the search fields and select ZYNQ7 Processing System followed by <ENTER>.

5. ZYN7 Processing System is now added in the Diagram pane. Start to configure the block by double-clicking the IP.

The Re-Customize IP window opens showing the ZYNQ Block Design. Since we specified the board, the ARM processing system is pre-configured with the I/O peripherals that are connected on that board.

7. We will not connect anything from the programmable logic (PL) in our first design and hence we will get an error unless we remove the AXI interface to the PL. Select <PS-PL Configuration> in the Page Navigator pane and expand GP Master AXI Interface. Disable the M AXI GPIO Interface by clicking in the box to remove the check mark.

In Vivado 2015.1 the M AXI GP0 interface can be found here.

8. We will only use UART 1 as a peripheral in our first design and later on we will need SD 0 when we boot from SD card. All other unnecessary connections can be removed. Select <MIO Configuration> in the Page Navigator pane and expand Memory Interfaces, I/O Peripherals and Application Processor Unit. Deselect everything except SD 0  and UART 1. Verify that MIO 40..45 are selected for SD 0 and MIO 48..49 for UART 1.

9. We will not connect anything from the programmable logic in our first design and we don't need to clock the PL. Select <Clock Configuration> in the Page Navigator pane and expand PL Fabric Clocks. Disable FCLK_CLK0.

10. Click OK to close the Re-Customize IP widow. Back in the Diaagram tab we need to create external connections in order to hook up the memory interface and the UART to physical pins. This step can be automated. Start <Run Block Automation> by clicking on the highlighted text at the top of the window and select /processing_system7_0.

11. A pop-up window appears, click OK to run block automation.

12. Verify that the external connections for FIXED_IO (all peripherals connected through MIO) and DDR (the external memory interface) get added. Validate design by clicking on the icon to be found to the left (third from the bottom).

13. A pop-up window appears, verify that there are no errors and click OK.


In Vivado 2015.1 the finished design looks like this.

14. Save the Block Design by typing Ctrl-S or clicking the Save Block Design icon in the top menu bar.

(转) 使用vivado创建工程 1的更多相关文章

  1. (转) 使用vivado创建工程 4[完结]

    由于自己手头暂时没有开发板,因此本节没有测试,故告之. Connecting to ZedBoardBefore we can run the application we have to conne ...

  2. (转) 使用vivado创建工程 3

    Create a Hello World application In this experiment we will use Xilinx SDK to create a simple Hello ...

  3. (转) 使用vivado创建工程 2

    Build the hardware platform and export to SDK A basic ARM hardware platform is now configured. The c ...

  4. Vivado如何使用命令行创建工程

    前言 vivado中采用TCL脚本语言来作为其命令解释语言.除去可以普通的图形界面流程还可以使用tcl脚本创建工程并导入相关源文件.   流程 1.首先还是要打开vivado图形主界面. 2.在某路径 ...

  5. xilinx Vivado的使用详细介绍(2):创建工程、添加文件、综合、实现、管脚约束、产生比特流文件、烧写程序、硬件验证

    xilinx Vivado的使用详细介绍(2):创建工程.添加文件.综合.实现.管脚约束.产生比特流文件.烧写程序.硬件验证 Author:zhangxianhe 新建工程 打开Vivado软件,直接 ...

  6. Xilinx Vivado的使用详细介绍(1):创建工程、编写代码、行为仿真

    Xilinx Vivado的使用详细介绍(1):创建工程.编写代码.行为仿真 Author:zhangxianhe 新建工程 打开Vivado软件,直接在欢迎界面点击Create New Projec ...

  7. vivado 创建PS工程

    前言 本文简要介绍在vivado中创建PS工程.单纯使用zynq芯片的PS部分就像使用普通ARM芯片一样,只是多了建立Zynq硬件系统这一个步骤.vivado创建PL工程参见此处 新建工程 与viva ...

  8. vivado 创建PL工程

    参考来源 https://china.xilinx.com/video/hardware/i-and-o-planning-overview.html 前言 我Win10系统上的Xilinx Plat ...

  9. FPGA开发流程(创建工程,选择芯片,变量位置,文件命名,reg和wire数据类型,开发流程)

    开发流程(以二选一选择器为例) 1.设计定义:设计一个可以从两个输入端中选择其中一个并输出的逻辑电路 2.设计输入 2.1.逻辑抽象:三个输入端,一个用来选择,记sel,另两个被选择,记a,b,加上一 ...

随机推荐

  1. nagios监控安装esxi的服务器(宿主机)

    首先,该博文大部分内容来自网络,少部分是自己监控过程中遇到的问题.如果有侵权,请联系告知!!! 现在互联网公司,有能力的都是自己研发监控系统,要么就是zabbix或者小米的监控,还都二次开发等等,可能 ...

  2. HDU 2012 FZU 1756关于素数的一些水题

    HDU 2012 素数判定 Time Limit: 2000/1000 MS (Java/Others)    Memory Limit: 65536/32768 K (Java/Others) To ...

  3. WebSphere应用服务器内存泄漏探测与诊断工具选择最佳实践

    内存泄漏是比较常见的一种应用程序性能问题,一旦发生,则系统的可用内存和性能持续下降:最终将导致内存不足(OutOfMemory),系统彻底宕掉,不能响应任何请求,其危害相当严重.同时,Java堆(He ...

  4. Markdown使用github风格时报TLS错误解决办法

    https://docs.microsoft.com/en-us/officeonlineserver/enable-tls-1-1-and-tls-1-2-support-in-office-onl ...

  5. 【leetcode】300.Longest Increasing Subsequence

    Given an unsorted array of integers, find the length of longest increasing subsequence. For example, ...

  6. eclipse生成jar包 注意事项!

    原文转自:http://www.cnblogs.com/zhangfei/archive/2013/01/22/2871075.html 第一:普通类导出jar包,我说的普通类就是指此类包含main方 ...

  7. Spring Cloud 之 Eureka

    Spring Cloud Eureka 是 Spring Cloud Netflix 微服务套件的一部分,基于 Netflix Eureka 做了二次封装,主要负责完成微服务架构中的服务治理功能,服务 ...

  8. 【Python】极简单的方式序列化sqlalchemy结果集为JSON

    继承 json.JSONEncoder 实现一个针对sqlalchemy返回类型的处理方式. sqlalchemy的返回类型有大都有两种,一种是Model对象,一种是Query集合(只查询部分字段). ...

  9. bzoj3622-已经没有什么好害怕的的了

    题意 给出两个长度为 \(n\) 的数列 \(a,b\) ,\(2n\) 个数都互不相同,求有多少种对应方式使得 \(a_i>b_i\) 的个数比 \(a_i<b_i\) 的个数恰好多 \ ...

  10. 精通android学习笔记(一)---广播

    普通广播:sendBroadcast 有序广播:sendOrderedBroadcast,有序广播优先级可以再manifest中设置,数值越大,最先收到.-1000~1000 <receiver ...