EFR32MG Zigbee Pro快速入门指南

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"EFR32MG Zigbee开发快速入门指南" 本文档是Silicon Labs推出的QSG106，专门针对EFR32MG系列系统级芯片（SoC）的Zigbee EmberZNet PRO快速启动指南。该指南适用于初次接触EmberZNet PRO和Silicon Labs开发硬件的开发者。其目标是帮助用户了解如何配置、构建和安装基于EmberZNet PRO栈（版本6.7.x，配合Simplicity Studio 4；或6.8.x及更高版本，配合Simplicity Studio 5）的应用。关键特性包括： 1. 产品概述：提供EFR32MG Mesh Networking Kit的基本信息，这是一款用于Zigbee网络的开发套件。 2. 设置开发环境：指导如何配置计算机环境，包括安装Simplicity Studio集成开发环境。 3. 安装Simplicity Studio和EmberZNet PRO：详述安装过程，以便开发者可以使用该软件平台进行开发。 4. 创建示例应用网络：通过示例应用程序，让用户快速了解如何建立Zigbee网络。 5. 使用Network Analyzer：介绍如何利用Network Analyzer工具进行网络分析和调试。在开始本指南的步骤之前，你需要确保已购买EFR32MG Mesh Networking Kit，并访问指定网址了解更多信息。EFR32MG系列SoC是Silicon Labs设计的高性能无线微控制器，适合构建Zigbee mesh网络，适用于智能家居、智能照明、能源管理等物联网应用。在设置开发环境部分，开发者将学习如何下载并安装Simplicity Studio，这是一个强大的开发平台，提供了集成的开发工具、编译器、调试器以及各种软件框架。EmberZNet PRO栈则是Silicon Labs提供的Zigbee协议栈，它支持Zigbee PRO和Zigbee 3.0标准，确保了网络的可靠性和可扩展性。创建示例应用网络环节，开发者将学会如何利用Simplicity Studio创建和运行预配置的示例应用，这些应用展示了Zigbee网络的基础操作，如设备入网、数据传输和网络管理。同时，Network Analyzer工具能够实时监控网络性能，帮助调试网络问题。 QSG106旨在为开发者提供一个快速进入Zigbee网络开发的通道，通过EFR32MG SoC的强大功能和易用的开发工具，简化了物联网解决方案的构建过程。随着对文档的深入理解和实践，开发者将能够熟练掌握Zigbee网络的构建和维护，从而为创建更互联的世界贡献力量。

QSG106: Zigbee EmberZNet PRO Quick-Start Guide

About Demos and Examples

silabs.com | Building a more connected world. Rev. 2.4 | 10

In SSv4: Drop down the demo list and click the demo. In the Mode drop-down in the next dialog, select Run. Click Start.

The EmberZNet demos are:

Simple Zigbee 3.0 Network

Z3Light: Zigbee 3.0 Light application.

Z3Switch: Zigbee 3.0 Switch application.

For the Light and Switch demos, press Button0 on the Switch device to initiate the network. The light device should bind to the network

automatically. Once the switch has finished finding and binding, you can use Button0 as an On/Off toggle.

This may not be successful, because some timeouts are included in the button functionality. If so, use the Command Line Interface to set

up the demo network. The CLI commands can be entered in the Serial Console, as described in the final step of the section 4.3 Config-

uration and Generation.

Once the Z3Light app starts running, it makes many attempts to join a network, at the end of which it sets up its own distributed network.

Once the Info command indicates that it is in a network (that is, has a PAN ID and Node ID), use the CLI command:

plugin network-creator-security open-network

You should get the response:

NWK Creator Security: Open network: 0x00

pJoin for 254 sec: 0x00

NWK Creator Security: Open network: 0x00

Now the device is ready for joining. In the Z3Switch App, instead of using the button, first make sure it has not joined any networks by

issuing:

network leave

Then you can enter the command:

plug network-steering start 0

This will kick off the joining process.

Dynamic Multiprotocol

DynamicMultiprotocolLight, DynamicMultiprotocolLightSed, and DynamicMultiprotocolSwitch: Companion applications demon-

strating Zigbee/Bluetooth LE dynamic multiprotocol functionality on specified development kit hardware. See QSG155: Using the Silicon

Labs Dynamic Multiprotocol Demonstration for instructions on using the demos, and the development kit hardware that supports them.

QSG106: Zigbee EmberZNet PRO Quick-Start Guide

About Demos and Examples

silabs.com | Building a more connected world. Rev. 2.4 | 11

3.2 Software Examples

Note: Examples provided for the EFR32xG12 and newer parts include Silicon Labs Gecko Bootloader examples. Examples are pro-

vided for all compatible Simplicity Studio SDKs. When configuring security for a Gecko Bootloader example, you must use

Simplicity Commander, not the Simplicity Studio IDE interface. For more information on using the Gecko Bootloader see UG266:

Silicon Labs Gecko Bootloader User Guide.

Some EmberZNet software examples are specifically for SoC applications. If you are not familiar with the differences between System-

on-Chip (SoC) and Network Coprocessor (NCP) application models, see UG103.03: Application Development Fundamentals: Design

Choices. For more information on Green Power Devices see UG392: Using Silicon Labs Green Power with EmberZNet PRO.

You can start an example from the list on the Launcher perspective, as described in section 4 Starting an Example Application. This list

is filtered by the selected device.

To see all examples, including the Host and NCP examples:

In SSv5: Click File > New > Project. Drop down the Simplicity Studio group and select Silicon Labs AppBuilder Project.

In SSv4: Click File > New Project > Silicon Labs AppBuilder > Project.

If you access examples in this way, the NCP examples are based on the Customizable network coprocessor (NCP) applications type,

and the SoC and Host examples are based on the Silicon Labs Zigbee type. Be sure to check the complete example description for any

platform restrictions.

Note: The checkbox “Start with a blank application” on the screen listing the applications produces an incorrectly-configured starting

project, and should not be used. Instead, start with the ZigbeeMinimal example.

The following descriptions group related examples together. Examples followed by (SoC) or (Host) are available through the Silicon

Labs Zigbee\EmberZNet <version> SoC or EmberZNet <version> Host stacks, respectively. Examples followed by (NCP) are avail-

able through Customizable network coprocessor (NCP) applications. Examples followed by (GP) are available through Green Power

Device Framework.

3.2.1 Zigbee 3.0 Network

For network formation instructions, see the corresponding demos in the section above.

The Z3Light and Z3Switch applications were developed for specific development kit hardware. Use on other devices may require some

GPIO remapping using the Hardware Configurator tool, described in section 7.2 Hardware Configurator.

Z3Light (SoC): Zigbee light application. Acting as a router it can form a distributed network. Acting as a touchlink target it can touchlink

with the Z3Switch, which is acting as a touchlink initiator.

Z3LightGPCombo (SoC): Zigbee light application with Green Power combo basic functionality.

Z3Switch (SoC): Zigbee switch application, acting as an end device, can join the network.

Z3Gateway (Host): Simple gateway application that can form a centralized network, and the light and the switch can join the centralized

network by performing network steering.

3.2.2 Dynamic Multiprotocol Demonstration

These applications are the source for the EmberZNet/Bluetooth dynamic multiprotocol demos described in QSG155: Using the Silicon

Labs Dynamic Multiprotocol Demonstration. AN1133: Dynamic Multiprotocol Development with Bluetooth and Zigbee contains a summary

procedure for these examples, describes how to change configuration settings to make an EmberZNet application into a dynamic multi-

protocol application, and contains details on the functionality underlying this demo. All applications are configured with NVM3 for persistent

storage. These applications were developed for specific development kit hardware. Use on other devices may require some GPIO re-

mapping using the Hardware Configurator tool, described in section 7.2 Hardware Configurator.

DynamicMultiprotocolLight (SoC): Demonstrates the Zigbee and Bluetooth stacks running concurrently as MicriumOS tasks.

DynamicMultiprotocolLightSed (SoC): Demonstrates the Zigbee and Bluetooth stacks running concurrently as MicriumOS tasks. The

Light is configured as a Zigbee Sleepy End Device (SED) and searches for a network to join.

QSG106: Zigbee EmberZNet PRO Quick-Start Guide

About Demos and Examples

silabs.com | Building a more connected world. Rev. 2.4 | 12

DynamicMultiprotocolSwitch (SoC): This application only uses Zigbee and is not a dynamic multiprotocol application itself. It is to be

used with the DynamicMultiprotocolLight sample to demonstrate the control of a dynamic multiprotocol device from a Zigbee network.

3.2.3 Host/NCP Applications Controlling an LED

XncpLed (Host): Presents a HOST application for communicating with an NCP application using custom EZSP commands. It is meant

to be used with the NCP sample application xNCP LED.

xNCP LED (NCP): Presents an NCP application for communicating with a UNIX HOST using custom EZSP commands. This application

is meant to be used with the HOST sample application XncpLed.

3.2.4 NCP Application Examples

All applications can be built as configured, or optionally can be augmented with customizations for target hardware, initialization, main

loop processing, event definition/handling, and messaging with the host.

NCP SPI (NCP): This NCP application supports communication with a host application over an SPI interface.

NCP UART HW (NCP): This NCP application supports communication with a host application over a UART interface with hardware flow

control.

NCP UART SW (NCP): This NCP application supports communication with a host application over a UART interface with software flow

control.

3.2.5 Green Power Device

Green Power Device: Green Power Device example.

Green Power Sensor: Green power sensor device that reports periodically.

3.2.6 Minimal Configuration

ZigbeeMinimal (SoC): This is a Zigbee minimal network-layer application suitable as a starting point for new application development.

3.2.7 Testing

StandardizedRfTesting: This is a pre-standardization implementation of Zigbee's RF testing standard. It utilizes the TIS (Total Isotropic

Sensitivity)/ TRP (Total Radiated Power) testing interfaces and is optional for Zigbee certifications.

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