Is Soc Dev Done In C++

17.04.2020
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C/C++ support for Visual Studio Code is provided by a Microsoft C/C++ extension to enable cross-platform C and C++ development on Windows, Linux, and macOS.

Getting started

The SDSoC™ development environment provides a familiar embedded C/C application development experience including an easy to use Eclipse IDE and a comprehensive design environment for heterogeneous Zynq ® All Programmable SoC and MPSoC deployment. Complete with the industry's first C/C full-system optimizing compiler. Arria 10 SoC Development Kit Overview 1 2018.08.09 UG-20004 Subscribe Send Feedback This document describes the hardware features of the Arria® 10 SoC development board, including the detailed pin-out and component reference information required to create custom FPGA designs that interface with all components of the board. General Description.

Aug 04, 2017  Bluetooth Wireless Forum. I'm trying to add support for C in my BLE project. I started by sing the soc-example as base project but I noticed that many of the provided libraries in the BLE-SDK are not ready to be used from C code. 'nativegecko.h' already has the C linkage option but 'aat.h', 'bgtypes.h' and 'gattdb.h' don't. Feb 25, 2020 ADRV9009+A10 SoC Dev kit No-OS. However, once you are able to run a Hello World project on the A10 SoC, it shouldn't be so hard to add support for ADRV9009. Check the checkbox labeled, 'Add the following commands when calling the compiler' And add in the text entry box, '-std=c11' or if that doesn't work '-std=C0x' Should be something like that anyway, I haven't had Dev C installed for many years, so I had to look at some screenshots on Google to remember. Social Development Acting Director-General clarifies partnership with Church of Scientology over fumigation Minister Zweli Mkhize confirms total of 2 415 cases of Coronavirus COVID-19 As at today President Cyril Ramaphosa welcomes the decision of the Forum of South Africa's Directors-General (FOSAD) members to contribute to the Solidarity Fund.

C/C++ compiler and debugger

The C/C++ extension does not include a C++ compiler or debugger. You will need to install these tools or use those already installed on your computer.

Popular C++ compilers are:

  • GCC on Linux
  • GCC via Mingw-w64 on Windows
  • Microsoft C++ compiler on Windows
  • Clang for XCode on macOS

Make sure your compiler executable is in your platform path so the extension can find it. You can check availability of your C++ tools by opening the Integrated Terminal (⌃` (Windows, Linux Ctrl+`)) in VS Code and try running the executable (for example g++ --help).

Install the Microsoft C/C++ extension

  1. Open VS Code.
  2. Click the Extensions view icon on the Sidebar (⇧⌘X (Windows, Linux Ctrl+Shift+X)).
  3. Search for c++.
  4. Click Install.

Hello World tutorials

Get started with C++ and VS Code with Hello World tutorials for your environment:

Documentation

What is an auto tune up. You can find more documentation on using the Microsoft C/C++ extension under the C++ section, where you'll find topics on:

Remote Development

VS Code and the C++ extension support Remote Development allowing you to work over SSH on a remote machine or VM, inside a Docker container, or in the Windows Subsystem for Linux (WSL).

To install support for Remote Development:

  1. Install the VS Code Remote Development Extension Pack.
  2. If the remote source files are hosted in WSL, use the Remote - WSL extension.
  3. If you are connecting to a remote machine with SSH, use the Remote - SSH extension.
  4. If the remote source files are hosted in a container (for example, Docker), use the Remote - Containers extension.

Feedback

If you run into any issues or have suggestions for the Microsoft C/C++ extension, please file issues and suggestions on GitHub. If you haven't already provided feedback, please take this quick survey to help shape this extension for your needs.

Azure IoT Edge Module for controlling an Intel® Cyclone® V SoC FPGA

Purpose

To enable cloud deployment of FPGA configurations via Raw Binary Files (.rbf) to remote devices.

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Video Demonstration

Supported Devices

(Note: porting to other Cyclone V enabled hardware should be straightforwad but is not guaranteed)

How it works

Azure IoT Edge enables developers to deploy containerized modules to internet connected devices which allows for maintaining a desired state of running services through cloud-configured deployment configurations. This mechanism also offers the ability to securely update running modules on devices remotely via changes to this configuration.

This IoT Edge module leverages work from @nhasbun to configure the FPGA portion of the Cyclone V SoC from Linux within an Iot Edge module, allowing for a robust deployment mechanism for shipping FPGA configurations to remote devices at scale.

This is accomplished using direct register access to take control of the FPGA Manager device which is used by the HPS to configure the FPGA. A multi-stage Dockerfile builds this component using SoCEDS-18.1.0.625 and provides it to an IoT Edge module which maps /dev/mem from the host to allow for interaction with the FPGA from the containerized module.

Kernel / OS Requirements

An IoT Edge Compatible kernel / OS needs to be installed onto the target device. Microsoft officially provides .deb packages for IoTEdge for ARM, as such your OS choice needs to be Debian compatible.

You will want to ensure that your device is connected to internet via the ethernet port and obtain a serial connection by following these instructions.

Once connected to your device, ensure that is up to date and has curl installed with:

IoT Edge itself depends on an installation of Moby, to verify that your FPGA device's kernel can support this, run and view the output of:

curl -sSL https://raw.githubusercontent.com/moby/moby/master/contrib/check-config.sh bash

This will produce an output similar to the following:

You will want to ensure that you have all of the items under Generally Necessary and Network Drivers: - 'overlay' marked as enabled.

If these are not enabled, then you will need to refer to the source code of your kernel to enable these features.

If you need to compile and setup a new kernel / OS from source, there are instructions avaialable @ https://www.digikey.com/eewiki/display/linuxonarm/DE10-Nano+Kit. Please note that following these steps without modification will produce an image that lacks CONFIG_BRIDGE, CONFIG_VETH, CONFIG_VXLAN modules which are required by Moby.

The missing modules can be enabled during the execution of ./build_kernel.sh in the associated steps for building the Linux Kernel. This will produce a menuconfig prompt that allows for enabling / disabling key kernel configuration options

CONFIG_BRIDGE can be enabled under Networking support > Networking options - 802.1d Ethernet Bridging

CONFIG_VETH can be enabled under Device Drivers > Network device support - Virtual ethernet pair device

CONFIG_VXLAN can be enabled under Device Drivers > Network device support - Virtual eXtensible Local Area Network (VXLAN)

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When you have confirmed that you have satisfied the requirements for Moby, install it onto your device with the following:

After a few minutes you should be able to verify that Moby has installed properly by running:

Next we will install the IoT Edge security daemon and IoT Edge runtime with:

Next, follow these steps to manually configure IoT Edge to connect to your Azure IoT Hub.

Once you have completed these steps, verify that the iotedge service has started successfully with:

Deploy the DE10Nano_RBF_Loader Module

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Requirements:

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Create a deployment for the IoT Edge device by right-clicking deployment.template.json and select Generate IoT Edge Deployment Manifest. This will create a file under the config folder named deployment.arm32v7.json, right-click that file and select Create Deployment for Single Device then select the registered device in your IoT Hub which represents the DE10-Nano device.

The project ships with an .rbf file (fpga_config_file.rbf) that acts as a basic XOR gate using the physical switches on the DE10-Nano. When SW0 or SW1 are exclusively switched on, an onboard LED will light up. If you are curious how this .rbf was created, you may refer to this tutorial.

To deploy your own .rbf, edit the DE10Nano_RBF_Loader/module.json to point to a docker repostory that you control, next overwrite the existing fpga_config_file.rbf with your intended .rbf file, then right-click deployment.template.json and select Build and Push IoT Edge Solution. This will update the deployment file under the config folder named deployment.arm32v7.json, right-click that file and select Create Deployment for Single Device then select the registered device in your IoT Hub which represents the DE10-Nano device. Once the IoT Edge deployment completes, your .rbf will load into the FPGA on the target device.

You can confirm that the FPGA has been configured by running:

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sudo iotedge logs DE10Nano_RBF_Loader

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This should produce output similar to the following: