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27e1eddd6ea2-0 | Developer Documentation
Develop and prototype smarter. Get to market faster.
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Version 5.0
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SupportPowerful suite of testing tools | rtdocs\docs.silabs.com\index.html |
8fed87f432af-0 | You are viewing documentation for version: 5.0 | This version works with Simplicity Studio 5 only. If you have Simplicity Studio 4, switch to 2.13. | For additional versions, see Version History.
General Overview
Silicon Labs Bluetooth LE Documentation | Release Notes | Downloads
About the Bluetooth Stack
The v4.x Silicon Labs Bluetooth stack is an advanced Bluetooth 5-compliant protocol stack implementing the Bluetooth low energy standard. It supports multiple connections, concurrent central, peripheral, broadcaster, and observer roles. The v3.x Silicon Labs Bluetooth stack is meant for Silicon Labs EFR32 SoCs and modules.
The Silicon Labs Bluetooth stack provides multiple APIs for the developer to access the Bluetooth functionality. Three modes are supported:
Standalone mode, where both the Bluetooth stack and the application run in an EFR32SoC or module. The application can be developed with C programming language.
Standlone Mode
Network Co-Processor (NCP) mode, where the Bluetooth stack runs in an EFR32 and the application runs on a separate host MCU. For this use case, the Bluetooth stack can be configured into NCP mode where the API is exposed over a serial inter- face such as UART.
NCP Mode
Radio Co-Processor (RCP) mode, where only the Link Layer of the Bluetooth stack runs on the EFR32, and the Host Layer of the stack, as well as the application, runs on a separate host MCU or PC. In this use case, the Host Layer is developed by a third party, since Silicon Labs’ Bluetooth stack is only built for EFR32 SoCs / modules. The Link Layer and the host layer communicate via HCI (Host-Controller Interface), which is a standard interface between the two layers. The HCI can be accessed via UART following the Bluetooth SIG's UART (H4) transport protocol.RCP Mode
Bluetooth Stack Features | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-1 | Bluetooth Stack Features
The features of the Silicon Labs Bluetooth stack are listed in the following table.
Stack Features
Bluetooth Qualification
All products deploying Bluetooth technology must go through the Bluetooth SIG's Qualification Process. Online resources will help you learn more about the Bluetooth Qualification , process, and tutorials on the Launch Studio , which is the online tool used to complete the Bluetooth Qualification Process. For assistance to qualify your device, consider reaching out to your nearest Bluetooth Qualification Consultant .
When qualifying your end-product based on Silicon Labs’ Bluetooth stack, integrate the pre-qualified components. To learn more and see the list of pre-qualified components, see QSG169: Bluetooth® SDK v3.x Quick-Start Guide.
The Bluetooth Stack APIs
This section briefly describes the different software APIs.
The Bluetooth API
The Bluetooth API provided by the Silicon Labs Bluetooth stack is the primary API to communicate with the stack. It provides access to all the Bluetooth functionality implemented by the Bluetooth stack, such as the Generic Access Profile (GAP), connection manager, the security manager (SM), GATT client and server.
In addition to the Bluetooth features, the Bluetooth API also provides access to a few other functions such as the Direct Test Mode (DTM) API for RF testing purposes, the Persistent Store (PS) API for reading and writing keys to and from the devices flash memory, the DFU (Device Firmware Update) API for field firmware updates, and the System API for various system level functions.
The BGAPI Serial Protocol and the Bluetooth Host API
When configured in NCP (network co-processor) mode, the Bluetooth stack can be controlled using the BGAPI serial protocol. This allows the Bluetooth stack to be controlled over a serial interface such as UART from a separate host, such as EFM32 microcontroller. The BGAPI serial protocol provides exactly the same Bluetooth APIs over UART as the BGAPI API when used in a standalone mode. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-2 | The BGAPI serial protocol is a lightweight, binary protocol that carries the BGAPI commands from the host to the Bluetooth stack, and carries responses and events from the Bluetooth stack back to the host.
The Bluetooth SDK delivers a ready-made BGAPI serial protocol parser implementation both for the NCP target (EFR) and for the NCP host. It implements the serial protocol parser for all APIs provided by the Bluetooth stack. The host code developed on top of host API can be written to be identical to the code for the EFR, which allows easy porting of the application code from the EFR to a separate host or vice versa.
BGAPI
The BGAPI serial protocol packet structure is described below. For more information, see the BGAPI Headers.
BGAPI Table
The Bluetooth Profile Toolkit GATT Builder
The Bluetooth Profile Toolkit is an XML-based API and description language used to describe the GATT-based service and characteristic easily without writing code. The XML files can be easily written by hand based on the information contained in UG118: Blue Gecko Bluetooth® Profile Toolkit Developer Guide. Use the Profile Toolkit GATT Builder if you are developing outside of Simplicity Studio.
Within Simplicity Studio, the GATT Configurator allows building the GATT in a visual way without hand editing the XML file. See UG438: GATT Configurator User’s Guide for Bluetooth SDK v3.x for details. Open the GATT Configurator in Simplicity Studio through the Project Configurator, Software Components tab, under Advanced Configurators. Click Open and the GATT Configurator tool opens the file gatt_configuration.btconf in a new tab.
Opening Bluetooth GATT Configurator | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-3 | Opening Bluetooth GATT Configurator
gatt_configuration.btconf provides the trunk of the GATT database. It is located inside the config > btconfig directory of your project. You can add additional XML files in the same directory and extend the GATT database. The contents of the additional XML files will appear as Contributed Items in the GATT Configurator UI. For examples, see the ota-dfu.xml file provided with most sample applications.
The GATT database developed with the Profile Toolkit is converted to a .c file and a .h file and included in the application project as a pre-build step when the firmware is compiled. Then, the GATT can be accessed with the Bluetooth stack GATT APIs or by a remote Bluetooth device.
GATT XML
CMSIS and EMLIB
The Cortex Microcontroller Software Interface Standard (CMSIS) is a common coding standard for all ARM Cortex devices. The CMSIS library provided by Silicon Labs contains header files, defines (for peripherals, registers and bitfields), and startup files for all devices. In addition, CMSIS includes functions that are common to all Cortex devices, such as interrupt handling, intrinsic functions, and so on. Although you can write to registers using hard-coded address and data values, it is recommended to use the defines to ensure portability and readability of the code.
To simplify programming Wireless Geckos, Silicon Labs develops and maintains a complete C function library called EMLIB that provides efficient, clear, and robust access to and control of all peripherals and core functions in the device. This library is within the em_xxx.c (for example, em_dac.c) and em_xxx.h files in the SDK. The EMLIB documentation is available in the Gecko Platform documentation.
About the Bluetooth SDK | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-4 | About the Bluetooth SDK
The Bluetooth SDK is a full software development kit that enables you to develop applications on top of the Bluetooth stack using C programming language. The SDK also supports making standalone applications, where the Bluetooth stack and the application both run in the Wireless Gecko, or the network co-processor (NCP) architecture, where the application runs on an external host and the Bluetooth stack runs in the Wireless Gecko. SDK contents and folder structure are described in QSG169: Bluetooth® SDK v3.x Quick-Start Guide.
About Demos and Examples
Starting application development from scratch can be difficult. For that reason, the Bluetooth SDK comes with a number of built-in demos and examples covering the most frequent use cases, as shown in the following figure. Demos are pre-built application images that you can run immediately. Software examples can be modified before building the application image. Demos with the same name as software examples are built from their respective example.
Note: The demos and examples you see are determined by the part selected. If you are using a custom solution with more than one part, click on the part you are working with to see only the items applicable to that part.
Demos and Software Example are in the Example Projects & Demos tab in the launcher view of Simplicity Studio.
To download and run a demo on your device, click RUN on the right demo you want to run on your target.
To import software example code into your workspace as a new project using default project configurations, click CREATE on the name of the desired example project and a New Project Wizard window will open. Click FINISH and your project will open in Simplicity IDE mode where you can customize it. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-5 | If an example project closely matches your needs, extend the code with your application code and rewrite the custom sections. Otherwise, start with the SoC-Empty application. Note that the SoC-Empty application is not blank, but rather provides a minimal project that only starts advertising.
Studio Launcher
Demo/Example Descriptions
The following examples are provided. Examples with (*) in their names have a matching pre-built demo.
Silicon Labs Gecko Bootloader examples (see UG266: Silicon Labs Gecko Bootloader User Guide and AN1086: Using the Gecko Bootloader with Silicon Labs Bluetooth Applications)
Demo/Example Descriptions
The following examples are provided. Examples with (*) in their names have a matching pre-built demo.
Silicon Labs Gecko Bootloader examples (see UG266: Silicon Labs Gecko Bootloader User Guide and AN1086: Using the Gecko Bootloader with Silicon Labs Bluetooth Applications) | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-6 | Bluetooth Examples | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-7 | Bluetooth – RCP: Radio Co-Processor (RCP) target application. Runs the Bluetooth Controller (i.e. the Link Layer only) and provides access to it using the standard HCI (Host-Controller Interface) over a UART connection.Bluetooth – NCP(*): Network Co-Processor (NCP) target application. Runs the full Bluetooth stack and provides access to it by exposing the Bluetooth API (BGAPI) via UART connection. NCP mode makes it possible to run your application on a host controller or PC. This example does not have a GATT database, but makes it possible to build one from the application using the Dynamic GATT API.Bluetooth – NCP Empty(*): Network Co-Processor (NCP) target application. Runs the full Bluetooth stack and provides access to it by exposing the Bluetooth API (BGAPI) via UART connection. NCP mode makes it possible to run your application on a host controller or PC. This example contains a minimal GATT database, and cannot be used with host applications that use the Dynamic GATT API.Bluetooth – NCP Host: Reference implementation of an NCP (Network Co-Processor) | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-8 | Host: Reference implementation of an NCP (Network Co-Processor) host, which typically runs on a central MCU without radio. It can connect to an NCP target via UART to access the Bluetooth stack of the target and to control it using BGAPI. This example uses the Dynamic GATT feature.Bluetooth – NCP AoA Locator(*): Network Co-Processor (NCP) target application extended with CTE Receiver support. It enables Angle of Arrival (AoA) calculation. Use this application with Direction Finding host examples.Bluetooth – SoC AoA Asset Tag(*): Demonstrates a CTE (Constant Tone Extension) transmitter that can be used as an asset tag in a Direction Finding setup estimating Angle of Arrival (AoA).Bluetooth – SoC Blinky(*): The classic blinky example using Bluetooth communication. From the EFR Connect mobile app, the LED controller button toggles LED0 on the board. In addition, pressing or releasing PB0 on the mainboard notifies the app. This is a demonstration of a simple two-way data exchange over GATT.Bluetooth – SoC DTM: This example implements | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-9 | GATT.Bluetooth – SoC DTM: This example implements the direct test mode (DTM) application for radio testing. DTM commands can be called via UART. See AN1267: Radio Frequency Physical Layer Evaluation in Bluetooth® SDK v3.x for more information.Bluetooth – SoC Empty: A minimal project structure that serves as a starting point for custom Bluetooth applications. It contains a minimal GATT database that can be expanded to fit your application requirements. The application starts advertising after boot and restarts advertising after a connection is closed. It also supports Over-the-Air Device Firmware Upgrade (OTA DFU)Bluetooth – SoC Interoperability Test (*): A test procedure containing several test cases for Bluetooth Low Energy communication. This demo is meant to be used with the EFR Connect mobile app, through the "Interoperability Test" tile on the Develop view of the app.Bluetooth – SoC Thermometer(*): Implements a GATT Server with the Health Thermometer Profile, which enables a Client device to connect and get temperature data. Temperature is read from the Si7021 digital relative humidity and | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-10 | is read from the Si7021 digital relative humidity and temperature sensor of the WSTK or of the Thunderboard.Bluetooth – SoC Thermometer Client: Implements a GATT Client that discovers and connects with up to four Bluetooth LE devices advertising themselves as Thermometer Servers. It displays the discovery process and the temperature values received via UART. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-11 | Note: Some radio boards will exhibit random pixels in the display when this example is running because they have a shared pin for sensor- and display-enabled signals.
Bluetooth – SoC Thermometer FreeRTOS: Demonstrates the integration of FreeRTOS into Bluetooth applications. RTOS is added to the Bluetooth - SoC Thermometer sample app.Bluetooth – SoC Thermometer Micrium OS: Demonstrates the integration of Micrium RTOS into Bluetooth applications. RTOS is added to the Bluetooth - SoC Thermometer sample app.Bluetooth – SoC Throughput(*): Tests the throughput capabilities of the device and can be used to measure throughput between two EFR32 devices, as well as between a device and a smartphone using the EFR Connect mobile app, through the Throughput demo tile.Bluetooth – SoC Voice(*): Voice over Bluetooth Low Energy sample application. It is supported by Thunderboard Sense 2 and Thunderboard EFR32BG22 boards and demonstrates how to send voice data over GATT, which is acquired from the on-board microphones.Bluetooth – SoC iBeacon(*): An iBeacon device implementation that sends non-connectable advertisements in iBeacon format. The iBeacon Service gives Bluetooth accessories a simple and convenient way to send iBeacons to smartphones. This example can be tested together with the EFR Connect mobile app.Bluetooth – SoC Thunderboard Sense 2( ), and Thunderboard EFR32BG22( ): Demonstrate the features of the Thunderboard Kit. These can be tested with the Thunderboard mobile app. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-12 | Dynamic Multiprotocol Examples (see AN1134: Dynamic Multiprotocol Development with Bluetooth and Proprietary Protocols on
RAIL for more information) | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-13 | Bluetooth – SoC Empty RAIL DMP FreeRTOS: A minimal project structure, used as a starting point for custom Bluetooth + Proprietary DMP (Dynamic Multiprotocol) applications. It runs on top of FreeRTOS and multiprotocol RAIL.Bluetooth – SoC Empty RAIL DMP Micrium OS: A minimal project structure, used as a starting point for custom Bluetooth + Proprietary DMP (Dynamic Multiprotocol) applications. It runs on top of Micrium OS and multiprotocol RAIL.Bluetooth – SoC Empty Standard DMP FreeRTOS: A minimal project structure, used as a starting point for custom Bluetooth + Standard DMP (Dynamic Multiprotocol) applications. It runs on top of FreeRTOS and multiprotocol RAIL utilizing IEE802.15.4 standard protocol.Bluetooth – SoC Empty Standard DMP Micrium OS: A minimal project structure, used as a starting point for custom Bluetooth + Standard DMP (Dynamic Multiprotocol) applications. It runs on top of Micrium OS and multiprotocol RAIL, utilizing IEE802.15.4 standard protocol.Bluetooth – SoC Light RAIL DMP FreeRTOS(*): A Dynamic | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-14 | SoC Light RAIL DMP FreeRTOS(*): A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a Proprietary protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via Proprietary protocol use the Flex (RAIL) - Switch sample app.Bluetooth – SoC Light RAIL DMP Micrium OS: A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a Proprietary protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via Proprietary protocol use the Flex (RAIL) - Switch sample app.Bluetooth – SoC Light Standard DMP FreeRTOS(*): A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a standard protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via standard protocol use the "Flex (RAIL) - Switch Standards" sample app.Bluetooth – SoC Light Standard DMP | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-15 | sample app.Bluetooth – SoC Light Standard DMP Micrium OS(*): A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a standard protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via standard protocol use the "Flex (RAIL) - Switch Standards" sample app. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-16 | NCP Host Examples (located in C:\SiliconLabs\SimplicityStudio\v5\developer\sdks\gecko_sdk_suite\\app\bluetooth\examples_host) | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-17 | empty: Minimal host-side project structure, used as a starting point for NCP host applications. Use it with the Bluetooth – NCP target application flashed to the radio board.ota-dfu: Demonstrates how to perform an OTA DFU on a Silicon Labs Bluetooth Device. It requires a WSTK with a radio board flashed with NCP firmware to be used as the GATT client that performs the OTA.uart-dfu: Demonstrates how to perform a UART DFU on a Silicon Labs Bluetooth Device running NCP firmwarevoice: On a WSTK programmed with NCP firmware, it to connects to the Bluetooth – SoC Voice example, sets the correct configuration on it, receives audio via Bluetooth, and stores audio data into a file.aoa_locator: A locator host sample app that works together with a Bluetooth – NCP AoA Locator target app. It receives IQ samples from the target and estimates the Angle of Arrival (AoA). For more information see AN1296: Application Development with Silicon Labs’ RTL Library.aoa_multilocator: Connects to multiple | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-18 | RTL Library.aoa_multilocator: Connects to multiple aoa_locator sample apps (via MQTT) and estimates a position from Angles of Arrival (AoA). For more information, see AN1296: Application Development with Silicon Labs’ RTL Library.aoa_multilocator_gui: Connects to the aoa_multilocator sample app (via MQTT), reads out the position estimations and displays the tags and locators on a 3D GUI. This sample app is python based. For more information, see AN1296: Application Development with Silicon Labs’ RTL Library.aoa_compass: Demo application with GUI showcasing the angle estimation capabilities of the RTL library. This is now replaced with the AoA Analyzer tool as described in QSG175: Silicon Labs Direction Finding Solution Quick-Start Guide.throughput: Tests the throughput capabilities of the device in NCP mode and can be used to measure throughput between two devices as well as between a device and a smartphone | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-19 | Python-Based NCP Host Examples
Python-based NCP host examples can be accesssed at https://github.com/SiliconLabs/pybgapi-examples. These examples are meant to be used with PyBGAPI (https://pypi.org/project/pybgapi/).
Silicon Labs Bluetooth LE Documentation
A graphic representation of the documentation set is at the end of this list.
Getting Started
Getting Started with Simplicity Studio 5 and the Gecko SDK -
Describes downloading development tools and the Gecko SDK, which includes the Silicon Labs Bluetooth SDK. Introduces the Simplicity Studio 5 interface.
UG103.14: Bluetooth LE Fundamentals -
Offers an overview for those new to the Bluetooth low energy technology.
QSG169: Bluetooth SDK v3.x Quick Start Guide -
Describes using the Simplicity Studio 5 IDE and tools for application development with Bluetooth SDK v3.x.
AN1255: Transitioning from the v2.x to the v3.x Bluetooth SDK -
Describes the differences between using Bluetooth SDK v2.x in Simplicity Studio 4 and usingBluetooth SDK v3.x in Simplicity Studio 5. Outlines the steps needed to migrate a v2.x project to v3.x.
Developing with Bluetooth LE
UG434: Silicon Labs Bluetooth C Application Developer's Guide for SDK v3.x -
Covers the Bluetooth stack v3.x architecture, application development flow, using the MCU core and peripherals, stack configuration options, and stack resource usage.
UG438: GATT Configurator User's Guide for Bluetooth SDK v3.x and Higher -
Describes how to use the Simplicity Studio 5 GATT Configurator, an intuitive interface providing access to all the Profiles, Services, Characteristics, and Descriptors as defined in the Bluetooth specification. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-20 | UG118: Blue Gecko Bluetooth Profile Toolkit Developer's Guide -
Reviews using this XML-based mark-up language to describe the Bluetooth GATT database,configure access and security properties, and include the GATT database as part of the firmware.
AN1259: Using the v3.x Silicon Labs Bluetooth Stack in Network Co-Processor Mode -
Describes how to configure the NCP target and how to program the NCP host when using the Bluetooth Stack in Network Co-Processor mode
AN1328: Enabling a Radio Co-Processor using the Bluetooth Controller and HCI Functions -
Gives a short overview of the standard Host Controller Interface (HCI) and how to use it with a Silicon Labs Bluetooth LE controller.
AN1260: Integrating v3.x Silicon Labs Bluetooth Applications with Real-Time Operating Systems -
Describes how to integrate a v3.x Silicon Labs Bluetooth application with an RTOS, and demonstrate how a time- and event-driven application can be run in parallel with the Bluetooth stack.
AN1362: Amazon FreeRTOS Architecture and Sample Applications -
Summarizes Amazon FreeRTOS components and sample applications, and explains how to use the examples to communicate with the Amazon Web Services (AWS) cloud with a smart phone app.
AN1366: Bluetooth LE Use Case-Based Low Power Optimization -
Describes how to exploit the different features of Bluetooth technology to achieve the minimum possible energy consumption for a given use case.
UG162: Simplicity Commander Reference Guide -
Describes how and when to use Simplicity Commander's Command-Line Interface.
Direction Finding
UG103.18: Bluetooth Direction Finding Fundamentals -
Explains the basics of Bluetooth Angle of Arrival (AoA) and Angle of Departure (AoD) direction finding technologies and provides the theory behind estimating angle of arrival. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-21 | QSG175: Silicon Labs' Direction Finding Solution Quick-Start Guide -
Describes the software components provided by Silicon Labs to support Direction Finding (DF) and provides instructions on how to start developing your own application.
AN1296: Application Development with Silicon Labs' RTL Library -
Describes the sample applications provided to demonstrate the directing finding capabilities of Bluetooth 5.1. Angle of Arrival (AoA) estimation is demonstrated with the use of Silicon Labs' Real Time Locating (RTL) library.These techniques are applicable to the EFR32MGx and EFR32BGx series.
AN1297: Custom Direction-Finding Solutions using Silicon Labs' Bluetooth Stack -
Bluetooth 5.1 makes it possible to send Constant Tone Extensions (CTEs) in Bluetooth packets on which phase measurements can be done. This guide is for those implementing custom applications that take advantage of phase measurement and antenna switching capabilites.
UG514: Using the Bluetooth Direction Finding Tool Suite -
The Bluetooth Direction Finding Tool Suite is meant to ease development with the Silicon Labs' RTL library. It provides multiple tools to configure the system, and also helps the development with analyzer tools that calculate many output parameters from the observed IQ samples.
Multiprotocol
UG103.16: Multiprotocol Fundamentals -
Describes the four multiprotocol modes, discusses considerations when selecting protocols for multiprotocol implementations, and reviews the Radio Scheduler, a required component of a dynamic multiprotocol solution.
UG305: Dynamic Multiprotocol User's Guide -
Describes how to implement a dynamic multiprotocol solution.
AN1269: Dynamic Multiprotocol Development with Bluetooth and Proprietary Protocols on RAIL in GSDK v3.x -
Provides details on how to develop a dynamic multiprotocol application running Bluetooth and aproprietary protocol on RAIL in GSDK v3.x. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-22 | AN1333: Running Zigbee, OpenThread, and Bluetooth Concurrently on a Linux Host with a Multiprotocol Co-Processor -
Describes how to run any combination of Zigbee EmberZNet, OpenThread, and Bluetooth networking stacks on a Linux host processor, interfacing with a single EFR32 Radio Co-processor (RCP) with multiprotocol and multi-PAN support, as well as how to run the Zigbee stack on the EFR32 as a network co-processor (NCP) alongside the OpenThread RCP.
Coexistence
UG103.17: Wi-Fi Coexistence Fundamentals -
Introduces methods to improve the coexistence of 2.4 GHz IEEE 802.11b/g/n Wi-Fi and other 2.4 GHz radios such as Bluetooth, Bluetooth Mesh, Bluetooth Low Energy, and IEEE 802.15.4-based radios such as Zigbee and OpenThread.
AN1128: Bluetooth Coexistence with Wi-Fi -
Describes the Wi-Fi impact on Bluetooth and methods to improve Bluetooth coexistence with Wi-Fi.Explains design considerations to improve coexistence without direct interaction between Bluetooth and Wi-Fi radios.These techniques are applicable to the EFR32MGx and EFR32BGx series. Discusses the Silicon Labs Packet Traffic Arbitration (PTA) support to coordinate 2.4GHz RF traffic for co-located Bluetooth and Wi-Fi radios.
Security
UG103.05: IoT Endpoint Security Fundamentals -
Introduces the security concepts that must be considered when implementing an Internet of Things (IoT) system. Using the ioXt Alliance's eight security principles as a structure, it clearly delineates the solutions Silicon Labs provides to support endpoint security and what you must do outside of the Silicon Labs framework. | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-23 | AN1302: Bluetooth Low Energy Application Security Design Considerations in SDK v3.x and Higher -
Provides details on designing Bluetooth Low Energy applications with security and privacy in mind.
AN1190: Series 2 Secure Debug -
Describes how to lock and unlock the debug access of EFR32 Gecko Series 2 devices. Many aspects of the debug access, including the secure debug unlock are described. The Debug Challenge Interface (DCI) and Secure Engine (SE) Mailbox Interface for locking and unlocking debug access are also included.
AN1222: Production Programming of Series 2 Devices -
Provides details on programming, provisioning, and configuring Series 2 devices in production environments. Covers Secure Engine Subsystem of Series 2 devices, which runs easily upgradeable Secure Engine (SE) or Virtual Secure Engine (VSE) firmware.
AN1247: Anti-Tamper Protection Configuration and Use -
Shows how to program, provision, and configure the anti-tamper module on EFR32 Series 2 devices with Secure Vault.
AN1268: Authenticating Silicon Labs Devices using Device Certificates -
How to authenticate an EFR32 Series 2 device with Secure Vault, using secure device certificates and signatures.
AN1271: Secure Key Storage -
Explains how to securely "wrap" keys in EFR32 Series 2 devices with Secure Vault, so they can be stored in non-volatile storage.
AN1303: Programming Series 2 Devices Using the Debug Challenge Interface (DCI) and Serial Wire Debug (SWD) -
Describes how to provision and configure Series 2 devices through the DCI and SWD.
AN1311: Integrating Crypto Functionality Using PSA Crypto Compared to Mbed TLS -
Describes how to integrate crypto functionality into applications using PSA Crypto compared to Mbed TLS.
Bootloading | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-24 | Bootloading
UG103.06: Bootloader Fundamentals -
Introduces bootloading for Silicon Labs networking devices. Discusses the Gecko Bootloader as well as legacy Ember and Bluetooth bootloaders, and describes the file formats used by each.
UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher -
Describes the high-level implementation of the Silicon Labs Gecko Bootloader for EFR32 SoCs and NCPs, and provides information on how to get started using the Gecko Bootloader with Silicon Labs wireless protocol stacks in GSDK 4.0 and higher.
AN1086: Using the Gecko Bootloader with Silicon Labs Bluetooth Applications -
Includes detailed information on using the Gecko Bootloader with Silicon Labs Bluetooth applications. It supplements the general Gecko Bootloader implementation information provided in UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher.
AN1326: Transitioning to the Updated Gecko Bootloader in GSDK 4.0 and Higher -
Gecko Bootloader v2.x, introduced in GSDK 4.0, contains a number of changes compared to Gecko Bootloader v1.x. This document describes the differences between the versions, including how to configure the new Gecko Bootloader in Simplicity Studio 5.
AN1218: Series 2 Secure Boot with RTSL -
Contains detailed information on configuring and using the Secure Boot with hardware Root of Trust and Secure Loader on Series 2 devices, including how to provision the signing key. This is a companion document to UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher.
Non-Volatile Data Storage | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
8fed87f432af-25 | Non-Volatile Data Storage
UG103.07: Non-Volatile Data Storage Fundamentals -
Introduces non-volatile data storage using flash and the three different storage implementations offered for Silicon Labs microcontrollers and SoCs: Simulated EEPROM, PS Store, and NVM3.
AN1135: Using Third Generation Non-Volatile Memory (NVM3) Data Storage -
Explains how NVM3 can be used as non-volatile data storage in various protocol implementations.
Testing
AN1246: EFR32BG SoC Bluetooth Smart Device Power Consumption Measurements -
Describes how to measure the power consumption of EFR32BG devices running the Bluetooth i-Beacon example.For general instructions, see AN969: Measuring Power Consumption in Wireless Gecko Devices.
AN1267: Radio Frequency Physical Layer Evaluation in Bluetooth SDK v3.x and Higher -
Reviews performing radio frequency physical layer evaluation with EFR32BG SoCs and BGM modules using the Direct Test Mode protocol in Bluetooth SDK v3.x.
AN1317: Using Network Analyzer with Bluetooth Low Energy and Mesh -
Describes using Simplicity Studio 5's Network Analyzer to debug Bluetooth Mesh and Low Energy applications. It can be read jointly with AN958: Debugging and Programming Interfaces for Customer Designs for more information on using Packet Trace Interface with custom hardware.
AN1309: Bluetooth Low Energy Interoperability Testing Report -
Includes the results of the interoperability testing of Silicon Labs' ICs and Bluetooth Low Energy stack with Android and iOS smart phones.
Documentation Flow
Bluetooth LE documentation flow | rtdocs\docs.silabs.com\bluetooth\5.0\index.html |
360e82e18fb6-0 | You are viewing documentation for version: 5.0 | This version works with Simplicity Studio 5 only. If you have Simplicity Studio 4, switch to 2.13. | For additional versions, see Version History.
General Overview
Release Notes | Downloads
About the Bluetooth Stack
The v3.x Silicon Labs Bluetooth stack is an advanced Bluetooth 5-compliant protocol stack implementing the Bluetooth low energy standard. It supports multiple connections, concurrent central, peripheral, broadcaster, and observer roles. The v3.x Silicon Labs Bluetooth stack is meant for Silicon Labs EFR32 SoCs and modules.
The Silicon Labs Bluetooth stack provides multiple APIs for the developer to access the Bluetooth functionality. Three modes are supported:
Standalone mode, where both the Bluetooth stack and the application run in an EFR32SoC or module. The application can be developed with C programming language.
Standlone Mode
Network Co-Processor (NCP) mode, where the Bluetooth stack runs in an EFR32 and the application runs on a separate host MCU. For this use case, the Bluetooth stack can be configured into NCP mode where the API is exposed over a serial inter- face such as UART.
NCP Mode
Radio Co-Processor (RCP) mode, where only the Link Layer of the Bluetooth stack runs on the EFR32, and the Host Layer of the stack, as well as the application, runs on a separate host MCU or PC. In this use case, the Host Layer is developed by a third party, since Silicon Labs’ Bluetooth stack is only built for EFR32 SoCs / modules. The Link Layer and the host layer communicate via HCI (Host-Controller Interface), which is a standard interface between the two layers. The HCI can be accessed via UART following the Bluetooth SIG's UART (H4) transport protocol.RCP Mode
Bluetooth Stack Features | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-1 | Bluetooth Stack Features
The features of the Silicon Labs Bluetooth stack are listed in the following table.
Stack Features
Bluetooth Qualification
All products deploying Bluetooth technology must go through the Bluetooth SIG's Qualification Process. Online resources will help you learn more about the Bluetooth Qualification , process, and tutorials on the Launch Studio , which is the online tool used to complete the Bluetooth Qualification Process. For assistance to qualify your device, consider reaching out to your nearest Bluetooth Qualification Consultant .
When qualifying your end-product based on Silicon Labs’ Bluetooth stack, integrate the pre-qualified components. To learn more and see the list of pre-qualified components, see QSG169: Bluetooth® SDK v3.x Quick-Start Guide.
The Bluetooth Stack APIs
This section briefly describes the different software APIs.
The Bluetooth API
The Bluetooth API provided by the Silicon Labs Bluetooth stack is the primary API to communicate with the stack. It provides access to all the Bluetooth functionality implemented by the Bluetooth stack, such as the Generic Access Profile (GAP), connection manager, the security manager (SM), GATT client and server.
In addition to the Bluetooth features, the Bluetooth API also provides access to a few other functions such as the Direct Test Mode (DTM) API for RF testing purposes, the Persistent Store (PS) API for reading and writing keys to and from the devices flash memory, the DFU (Device Firmware Update) API for field firmware updates, and the System API for various system level functions.
The BGAPI Serial Protocol and the Bluetooth Host API
When configured in NCP (network co-processor) mode, the Bluetooth stack can be controlled using the BGAPI serial protocol. This allows the Bluetooth stack to be controlled over a serial interface such as UART from a separate host, such as EFM32 microcontroller. The BGAPI serial protocol provides exactly the same Bluetooth APIs over UART as the BGAPI API when used in a standalone mode. | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-2 | The BGAPI serial protocol is a lightweight, binary protocol that carries the BGAPI commands from the host to the Bluetooth stack, and carries responses and events from the Bluetooth stack back to the host.
The Bluetooth SDK delivers a ready-made BGAPI serial protocol parser implementation both for the NCP target (EFR) and for the NCP host. It implements the serial protocol parser for all APIs provided by the Bluetooth stack. The host code developed on top of host API can be written to be identical to the code for the EFR, which allows easy porting of the application code from the EFR to a separate host or vice versa.
BGAPI
The BGAPI serial protocol packet structure is described below. For more information, see the BGAPI Headers.
BGAPI Table
The Bluetooth Profile Toolkit GATT Builder
The Bluetooth Profile Toolkit is an XML-based API and description language used to describe the GATT-based service and characteristic easily without writing code. The XML files can be easily written by hand based on the information contained in UG118: Blue Gecko Bluetooth® Profile Toolkit Developer Guide. Use the Profile Toolkit GATT Builder if you are developing outside of Simplicity Studio.
Within Simplicity Studio, the GATT Configurator allows building the GATT in a visual way without hand editing the XML file. See UG438: GATT Configurator User’s Guide for Bluetooth SDK v3.x for details. Open the GATT Configurator in Simplicity Studio through the Project Configurator, Software Components tab, under Advanced Configurators. Click Open and the GATT Configurator tool opens the file gatt_configuration.btconf in a new tab.
Opening Bluetooth GATT Configurator | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-3 | Opening Bluetooth GATT Configurator
gatt_configuration.btconf provides the trunk of the GATT database. It is located inside the config > btconfig directory of your project. You can add additional XML files in the same directory and extend the GATT database. The contents of the additional XML files will appear as Contributed Items in the GATT Configurator UI. For examples, see the ota-dfu.xml file provided with most sample applications.
The GATT database developed with the Profile Toolkit is converted to a .c file and a .h file and included in the application project as a pre-build step when the firmware is compiled. Then, the GATT can be accessed with the Bluetooth stack GATT APIs or by a remote Bluetooth device.
GATT XML
CMSIS and EMLIB
The Cortex Microcontroller Software Interface Standard (CMSIS) is a common coding standard for all ARM Cortex devices. The CMSIS library provided by Silicon Labs contains header files, defines (for peripherals, registers and bitfields), and startup files for all devices. In addition, CMSIS includes functions that are common to all Cortex devices, such as interrupt handling, intrinsic functions, and so on. Although you can write to registers using hard-coded address and data values, it is recommended to use the defines to ensure portability and readability of the code.
To simplify programming Wireless Geckos, Silicon Labs develops and maintains a complete C function library called EMLIB that provides efficient, clear, and robust access to and control of all peripherals and core functions in the device. This library is within the em_xxx.c (for example, em_dac.c) and em_xxx.h files in the SDK. The EMLIB documentation is available in the Gecko Platform documentation.
About the Bluetooth SDK | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-4 | About the Bluetooth SDK
The Bluetooth SDK is a full software development kit that enables you to develop applications on top of the Bluetooth stack using C programming language. The SDK also supports making standalone applications, where the Bluetooth stack and the application both run in the Wireless Gecko, or the network co-processor (NCP) architecture, where the application runs on an external host and the Bluetooth stack runs in the Wireless Gecko. SDK contents and folder structure are described in QSG169: Bluetooth® SDK v3.x Quick-Start Guide.
About Demos and Examples
Starting application development from scratch can be difficult. For that reason, the Bluetooth SDK comes with a number of built-in demos and examples covering the most frequent use cases, as shown in the following figure. Demos are pre-built application images that you can run immediately. Software examples can be modified before building the application image. Demos with the same name as software examples are built from their respective example.
Note: The demos and examples you see are determined by the part selected. If you are using a custom solution with more than one part, click on the part you are working with to see only the items applicable to that part.
Demos and Software Example are in the Example Projects & Demos tab in the launcher view of Simplicity Studio.
To download and run a demo on your device, click RUN on the right demo you want to run on your target.
To import software example code into your workspace as a new project using default project configurations, click CREATE on the name of the desired example project and a New Project Wizard window will open. Click FINISH and your project will open in Simplicity IDE mode where you can customize it. | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-5 | If an example project closely matches your needs, extend the code with your application code and rewrite the custom sections. Otherwise, start with the SoC-Empty application. Note that the SoC-Empty application is not blank, but rather provides a minimal project that only starts advertising.
Studio Launcher
Demo/Example Descriptions
The following examples are provided. Examples with (*) in their names have a matching pre-built demo.
Silicon Labs Gecko Bootloader examples (see UG266: Silicon Labs Gecko Bootloader User Guide and AN1086: Using the Gecko Bootloader with Silicon Labs Bluetooth Applications) | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-6 | Bluetooth Examples
Bluetooth Examples | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-7 | Bluetooth – RCP: Radio Co-Processor (RCP) target application. Runs the Bluetooth Controller (i.e. the Link Layer only) and provides access to it using the standard HCI (Host-Controller Interface) over a UART connection.Bluetooth – NCP(*): Network Co-Processor (NCP) target application. Runs the full Bluetooth stack and provides access to it by exposing the Bluetooth API (BGAPI) via UART connection. NCP mode makes it possible to run your application on a host controller or PC. This example does not have a GATT database, but makes it possible to build one from the application using the Dynamic GATT API.Bluetooth – NCP Empty(*): Network Co-Processor (NCP) target application. Runs the full Bluetooth stack and provides access to it by exposing the Bluetooth API (BGAPI) via UART connection. NCP mode makes it possible to run your application on a host controller or PC. This example contains a minimal GATT database, and cannot be used with host applications that use the Dynamic GATT API.Bluetooth – NCP Host: Reference implementation of an NCP (Network Co-Processor) | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-8 | Host: Reference implementation of an NCP (Network Co-Processor) host, which typically runs on a central MCU without radio. It can connect to an NCP target via UART to access the Bluetooth stack of the target and to control it using BGAPI. This example uses the Dynamic GATT feature.Bluetooth – NCP AoA Locator(*): Network Co-Processor (NCP) target application extended with CTE Receiver support. It enables Angle of Arrival (AoA) calculation. Use this application with Direction Finding host examples.Bluetooth – SoC AoA Asset Tag(*): Demonstrates a CTE (Constant Tone Extension) transmitter that can be used as an asset tag in a Direction Finding setup estimating Angle of Arrival (AoA).Bluetooth – SoC Blinky(*): The classic blinky example using Bluetooth communication. From the EFR Connect mobile app, the LED controller button toggles LED0 on the board. In addition, pressing or releasing PB0 on the mainboard notifies the app. This is a demonstration of a simple two-way data exchange over GATT.Bluetooth – SoC DTM: This example implements | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-9 | GATT.Bluetooth – SoC DTM: This example implements the direct test mode (DTM) application for radio testing. DTM commands can be called via UART. See AN1267: Radio Frequency Physical Layer Evaluation in Bluetooth® SDK v3.x for more information. | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-10 | Bluetooth – SoC Empty: A minimal project structure that serves as a starting point for custom Bluetooth applications. It contains a minimal GATT database that can be expanded to fit your application requirements. The application starts advertising after boot and restarts advertising after a connection is closed. It also supports Over-the-Air Device Firmware Upgrade (OTA DFU)Bluetooth – SoC Interoperability Test (*): A test procedure containing several test cases for Bluetooth Low Energy communication. This demo is meant to be used with the EFR Connect mobile app, through the "Interoperability Test" tile on the Develop view of the app.Bluetooth – SoC Thermometer(*): Implements a GATT Server with the Health Thermometer Profile, which enables a Client device to connect and get temperature data. Temperature is read from the Si7021 digital relative humidity and temperature sensor of the WSTK or of the Thunderboard.Bluetooth – SoC Thermometer Client: Implements a GATT Client that discovers and connects with up to four Bluetooth LE devices advertising themselves as Thermometer Servers. It displays the discovery process and the temperature values received via UART.
Note: Some radio boards will exhibit random pixels in the display when this example is running because they have a shared pin for sensor- and display-enabled signals. | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-11 | Bluetooth – SoC Thermometer FreeRTOS: Demonstrates the integration of FreeRTOS into Bluetooth applications. RTOS is added to the Bluetooth - SoC Thermometer sample app.Bluetooth – SoC Thermometer Micrium OS: Demonstrates the integration of Micrium RTOS into Bluetooth applications. RTOS is added to the Bluetooth - SoC Thermometer sample app.Bluetooth – SoC Throughput(*): Tests the throughput capabilities of the device and can be used to measure throughput between two EFR32 devices, as well as between a device and a smartphone using the EFR Connect mobile app, through the Throughput demo tile.Bluetooth – SoC Voice(*): Voice over Bluetooth Low Energy sample application. It is supported by Thunderboard Sense 2 and Thunderboard EFR32BG22 boards and demonstrates how to send voice data over GATT, which is acquired from the on-board microphones.Bluetooth – SoC iBeacon(*): An iBeacon device implementation that sends non-connectable advertisements in iBeacon format. The iBeacon Service gives Bluetooth accessories a simple and convenient way to send iBeacons to smartphones. This example can be tested together with the EFR Connect mobile app.Bluetooth – SoC Thunderboard Sense 2( ), and Thunderboard EFR32BG22( ): Demonstrate the features of the Thunderboard Kit. These can be tested with the Thunderboard mobile app. | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-12 | Dynamic Multiprotocol Examples (see AN1134: Dynamic Multiprotocol Development with Bluetooth and Proprietary Protocols on
RAIL for more information) | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-13 | Bluetooth – SoC Empty RAIL DMP FreeRTOS: A minimal project structure, used as a starting point for custom Bluetooth + Proprietary DMP (Dynamic Multiprotocol) applications. It runs on top of FreeRTOS and multiprotocol RAIL. Bluetooth – SoC Empty RAIL DMP Micrium OS: A minimal project structure, used as a starting point for custom Bluetooth + Proprietary DMP (Dynamic Multiprotocol) applications. It runs on top of Micrium OS and multiprotocol RAIL. Bluetooth – SoC Empty Standard DMP FreeRTOS: A minimal project structure, used as a starting point for custom Bluetooth + Standard DMP (Dynamic Multiprotocol) applications. It runs on top of FreeRTOS and multiprotocol RAIL utilizing IEE802.15.4 standard protocol. Bluetooth – SoC Empty Standard DMP Micrium OS: A minimal project structure, used as a starting point for custom Bluetooth + Standard DMP (Dynamic Multiprotocol) applications. It runs on top of Micrium OS and multiprotocol RAIL, utilizing IEE802.15.4 standard protocol.Bluetooth – SoC Light RAIL DMP FreeRTOS(*): | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-14 | – SoC Light RAIL DMP FreeRTOS(*): A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a Proprietary protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via Proprietary protocol use the Flex (RAIL) - Switch sample app.Bluetooth – SoC Light RAIL DMP Micrium OS: A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a Proprietary protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via Proprietary protocol use the Flex (RAIL) - Switch sample app. Bluetooth – SoC Light Standard DMP FreeRTOS(*): A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a standard protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via standard protocol use the "Flex (RAIL) - Switch Standards" sample app. Bluetooth – SoC Light | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-15 | Switch Standards" sample app. Bluetooth – SoC Light Standard DMP Micrium OS(*): A Dynamic Multiprotocol reference application demonstrating a light bulb that can be switched both via Bluetooth and via a standard protocol. To switch it via Bluetooth use the Wireless Gecko smartphone app. To switch it via standard protocol use the "Flex (RAIL) - Switch Standards" sample app. | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-16 | NCP Host Examples (located in C:\SiliconLabs\SimplicityStudio\v5\developer\sdks\gecko_sdk_suite\\app\bluetooth\examples_host) | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-17 | empty: Minimal host-side project structure, used as a starting point for NCP host applications. Use it with the Bluetooth – NCP target application flashed to the radio board.ota-dfu: Demonstrates how to perform an OTA DFU on a Silicon Labs Bluetooth Device. It requires a WSTK with a radio board flashed with NCP firmware to be used as the GATT client that performs the OTA.uart-dfu: Demonstrates how to perform a UART DFU on a Silicon Labs Bluetooth Device running NCP firmwarevoice: On a WSTK programmed with NCP firmware, it to connects to the Bluetooth – SoC Voice example, sets the correct configuration on it, receives audio via Bluetooth, and stores audio data into a file.aoa_locator: A locator host sample app that works together with a Bluetooth – NCP AoA Locator target app. It receives IQ samples from the target and estimates the Angle of Arrival (AoA). For more information see AN1296: Application Development with Silicon Labs’ RTL Library.aoa_multilocator: Connects to multiple | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-18 | RTL Library.aoa_multilocator: Connects to multiple aoa_locator sample apps (via MQTT) and estimates a position from Angles of Arrival (AoA). For more information, see AN1296: Application Development with Silicon Labs’ RTL Library.aoa_multilocator_gui: Connects to the aoa_multilocator sample app (via MQTT), reads out the position estimations and displays the tags and locators on a 3D GUI. This sample app is python based. For more information, see AN1296: Application Development with Silicon Labs’ RTL Library.aoa_compass: Demo application with GUI showcasing the angle estimation capabilities of the RTL library. This is now replaced with the AoA Analyzer tool as described in QSG175: Silicon Labs Direction Finding Solution Quick-Start Guide.throughput: Tests the throughput capabilities of the device in NCP mode and can be used to measure throughput between two devices as well as between a device and a smartphone | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
360e82e18fb6-19 | Python-Based NCP Host Examples
Python-based NCP host examples can be accesssed at https://github.com/SiliconLabs/pybgapi-examples. These examples are meant to be used with PyBGAPI (https://pypi.org/project/pybgapi/). | rtdocs\docs.silabs.com\bluetooth\5.0\general\overview\index.html |
326bd3090521-0 | CMSIS Version 5
The branch master of this GitHub repository contains the CMSIS Version 5.3.0. The documentation is available under http://arm-software.github.io/CMSIS_5/General/html/index.html
Use Issues to provide feedback and report problems for CMSIS Version 5.
Note: The branch develop of this GitHub repository reflects our current state of development and is constantly updated. It gives our users and partners contiguous access to the CMSIS development. It allows you to review the work and provide feedback or create pull requests for contributions.
A pre-built documentation is updated from time to time, but may be also generated using the instructions under Generate CMSIS Pack for Release.
What's Hot
CMSIS-RTOS2: RTX 5 is now available for IAR, GCC, Arm Compiler 5, Arm Compiler 6
CMSIS-RTOS2: FreeRTOS adoption (release) is available https://github.com/ARM-software/CMSIS-FreeRTOS
CMSIS-RTOS2: RTX5 available for Cortex-A
CMSIS-Core: compiler agnostic features extended to simplify transition on LLVM based front-end
CMSIS-Core-A: CMSIS-Core for Cortex-A
CMSIS-NN: Bare metal Neural Network function library.
Implemented Enhancements
Support for Armv8-M Architecture (Mainline and Baseline) as well as devices Cortex-M23 and Cortex-M33
CMSIS-RTOS Version 2 API and RTX reference implementation with several enhancements:
Dynamic object creation, Flag events, C API, additional thread and timer functions
CMSIS-RTOS API Secure and Non-Secure support, multi-processor support
Further Planned Enhancements
CMSIS-DAP: extended trace support
CMSIS-Zone: management of complex system
Improvements for Cortex-A / M hybrid devices (focus on Cortex-M interaction)
CMSIS-Pack | rtdocs\docs.silabs.com\cmsis\5.3.0\index.html |
326bd3090521-1 | Improvements for Cortex-A / M hybrid devices (focus on Cortex-M interaction)
CMSIS-Pack
Additions for generic example and project templates
Adoption of IAR Flash Loader technology
For further details see also the Slides of the Embedded World CMSIS Partner Meeting.
Directory Structure
CMSIS/Core
CMSIS-Core related files (for release)
CMSIS/DAP
CMSIS-DAP related files and examples
CMSIS/Driver
CMSIS-Driver API headers and template files
CMSIS/DSP
CMSIS-DSP related files
CMSIS/NN
CMSIS-NN related files
CMSIS/RTOS
RTOS v1 related files (for Cortex-M)
CMSIS/RTOS2
RTOS v2 related files (for Cortex-M & Armv8-M)
CMSIS/Pack
CMSIS-Pack examples and tutorials
CMSIS/DoxyGen
Source of the documentation
CMSIS/Utilities
Utility programs
Generate CMSIS Pack for Release
This GitHub development repository contains already pre-built libraries of various software components (DSP, RTOS, RTOS2).
These libraries are validated for release.
To build a complete CMSIS pack for installation the following additional tools are required:
doxygen.exe Version: 1.8.6 (Documentation Generator)
mscgen.exe Version: 0.20 (Message Sequence Chart Converter)
7z.exe (7-Zip) Version: 16.02 (File Archiver)
Using these tools, you can generate on a Windows PC:
CMSIS Software Pack using the batch file gen_pack.bat (located in ./CMSIS/Utilities). This batch file also generates the documentation.
CMSIS Documentation using the batch file genDoc.bat (located in ./CMSIS/Doxygen).
The file ./CMSIS/DoxyGen/How2Doc.txt describes the rules for creating API documentation.
License | rtdocs\docs.silabs.com\cmsis\5.3.0\index.html |
326bd3090521-2 | License
Arm CMSIS is licensed under Apache-2.0.
Contributions and Pull Requests
Contributions are accepted under Apache-2.0. Only submit contributions where you have authored all of the code.
Issues and Labels
Please feel free to raise an issue on GitHub
to report misbehavior (i.e. bugs) or start discussions about enhancements. This
is your best way to interact directly with the maintenance team and the community.
We encourage you to append implementation suggestions as this helps to decrease the
workload of the very limited maintenance team.
We will be monitoring and responding to issues as best we can.
Please attempt to avoid filing duplicates of open or closed items when possible.
In the spirit of openness we will be tagging issues with the following:
bug – We consider this issue to be a bug that will be investigated.
wontfix - We appreciate this issue but decided not to change the current behavior.
enhancement – Denotes something that will be implemented soon.
future - Denotes something not yet schedule for implementation.
out-of-scope - We consider this issue loosely related to CMSIS. It might by implemented outside of CMSIS. Let us know about your work.
question – We have further questions to this issue. Please review and provide feedback.
documentation - This issue is a documentation flaw that will be improved in future.
review - This issue is under review. Please be patient.
DONE - We consider this issue as resolved - please review and close it. In case of no further activity this issues will be closed after a week.
duplicate - This issue is already addressed elsewhere, see comment with provided references.
Important Information - We provide essential informations regarding planned or resolved major enhancements. | rtdocs\docs.silabs.com\cmsis\5.3.0\index.html |
8db4921d3723-0 | You are viewing documentation for version: 3.5 (latest)| 3.4 | Version History
Getting Started with Connect Stack
Connect Documentation | Release Notes | Downloads
Silicon Labs is developing products designed to meet the demands of customers as we move to an ever-connected world of devices in
the home, what is often referred to as the IoT (Internet of Things). At a high level the goals of IoT for Silicon Labs are to:
Connect all the devices in the home with best-in-class mesh networking, whether with Ember ZigBee PRO or other emerging standards.
Leverage the company's expertise in low-power, constrained devices.
Enhance established low-power, mixed-signal chips.
Provide low-cost bridging to existing Ethernet and Wi-Fi devices.
Enable cloud services and connectivity to smartphones and tablets that promote ease of use and a common user experience for
customers.
Achieving all of these goals will increase adoption rates and user acceptance for IoT devices in the Connected Home.
One such challenge is managing devices requiring low power consumption, such as battery-powered devices where long battery life is
essential. To meet this challenge Silicon Labs has developed the Silicon Labs Connect stack. Connect provides a fully-featured, easily-customizable wireless networking solution optimized for devices that require low power consumption and are used in a simple network
topology. Connect is configurable to be compliant with regional communications standards worldwide. Each RF configuration is designed
for maximum performance under each regional standard. | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-1 | The Silicon Labs Connect stack supports many combinations of radio modulation, frequency and data rates. The stack provides support
for end nodes, coordinators, and range extenders. It includes all wireless MAC (Medium Access Control) layer functions such as scanning
and joining, setting up a point-to-point or star network, and managing device types such as sleepy end devices, routers, and coordinators.
With all this functionality already implemented in the stack, users can focus on their end application development and not worry
about the lower-level radio and network details.
The Connect stack should be used in applications with simple network topologies, such as a set of data readers feeding information
directly to a single central collection point (star or extended star topology), or a set of nodes in the same range exchanging data in a
single-hop fashion (direct devices or MAC devices). It does not provide a full mesh networking solution such as that provided by the
EmberZNet PRO or Silicon Labs Thread stacks.
The Connect stack is part of the Silicon Labs Flex SDK (Software Development Kit), installed through Simplicity Studio. Connect runs
on top of RAIL (Radio Abstraction Interface Layer), also included with the Flex SDK. RAIL provides an intuitive, easily-customizable
radio interface layer that is designed to support proprietary or standards-based wireless protocols. For more information, see UG103.13: RAIL Fundamentals.
The Connect stack supports efficient application development through its “building block” plug-in design. When used with the Simplicity
Studio IDE (Integrated Development Environment), developers can easily select the functions that should be included in the application.
The resulting applications are completely portable, in that they can be recompiled for different regions, different MCUs, and different
radios.
Device Types
The Connect stack supports the following device types: | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-2 | Device Types
The Connect stack supports the following device types:
Star coordinator: The star coordinator forms and manages the star or extended star network. The star coordinator also communicates
with other range extenders and end nodes. Each Connect star network has a single coordinator.
Star range extender: A device between the star coordinator and one or more star end nodes that can be used to extend the range of
the star end nodes. Each range extender can serve up to 32 star end nodes.
Star end node: Joins to a star coordinator or a star range extender.
Direct device: A device able to send and receive messages from other (direct) devices in range on the same PAN, with no star topology
restrictions.
MAC device: A device able to send and receive standard 802.15.4 messages from other 802.15.4 devices in range.
Stack Structure
The Connect stack provides code organized into three functional layers, as shown in the following figure:
PHY (physical)
MAC
Network
The PHY and MAC layers are based on the IEEE 802.15.4-2011 standard IEEE 802.15.4-2011 Specification.
The Network layer is based on a proprietary protocol.
Finally, the Connect Application Framework provides a complete tool and API infrastructure over the underlying stack layers. Functionality
within the Application Framework and the Connect stack layers is provided in the form of individual building blocks called plugins.
Details of the plugins for each layer are provided in the Silicon Labs Connect Application Framework API Reference included in the
stack documentation.
For more information about Connect Stack, see UG103.12.
Connect Documentation
The Connect SDK and the accompanying RAIL SDK are delivered as part of the Proprietary Flex SDK.
Getting Started | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-3 | Getting Started
Getting Started with Simplicity Studio 5 and the Gecko SDK -
Describes downloading development tools and the Gecko SDK, which includes the Flex SDK (Connect and RAIL). Introduces the Simplicity Studio 5 interface.
QSG168: Proprietary Flex SDK v3.x Quick Start Guide -
Provides basic information on configuring, building, and installing applications using Silicon Labs Connect and RAIL, the two development paths in the Silicon Labs Proprietary Flex SDK v3.x.
UG103.12: Connect Fundamentals -
Describes the features and functions of the Silicon Labs Connect stack, including its device types, network topologies, and its 'building block' development methodology using plugins.
UG103.01: Wireless Networking Fundamentals -
Introduces some fundamental concepts of wireless networking. These concepts are referred to in other Fundamentals documents. If you are new to wireless networking, you should read this document first.
Developing with Connect
UG435.01: About the Connect v3.x User's Guide -
Introduces the Connect User's Guide collection for the Flex SDK v3.x.
UG435.02: Using Silicon Labs Connect v3.x with IEEE 802.15.4 -
Introduces the IEEE 802.15.4 standard on which Connect v3.x is based.
UG435.03: Architecture of the Silicon Labs Connect Stack v3.x -
Describes the architecture of the Silicon Labs Connect stack v3.x an how it implements IEEE 802.15.4.
UG435.04: Customizing Applications with Silicon Labs Connect v3.x -
Describes how to use components, callbacks, and events on top of the Gecko Platform application framework to configure features and application behavior. | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-4 | UG435.05: Using Real Time Operating Systems with Silicon Labs Connect v3.x -
Describes the process to implement a Connect-based application on top of one of the supported Real Time Operating Systems (RTOS).
UG435.07: Energy Saving with Silicon Labs Connect v3.x -
Describes the features available in Connect v3.x to reduce power consumption. Using those features is described in AN1252: Building Low Power Networks with the Silicon Labs Connect Stack v3.x.
AN1252: Building Low Power Networks with the Silicon Labs Connect Stack v3.x -
Illustrates reducing power consumption in a Connect v3.x application using the sensor example.
UG162: Simplicity Commander Reference Guide -
Describes how and when to use Simplicity Commander's Command-Line Interface.
Bootloading
UG103.06: Bootloader Fundamentals -
Introduces bootloading for Silicon Labs networking devices. Discusses the Gecko Bootloader as well as legacy Ember and Bluetooth bootloaders, and describes the file formats used by each.
UG435.06: Bootloading and OTA with Silicon Labs Connect v3.x -
Explains standalone (serial) and application (OTA) bootloader options available for use within Connect v3.x-based applications.
AN1085: Using the Gecko Bootloader with Silicon Labs Connect -
Includes detailed information on using the Silicon Labs Gecko Bootloader with Connect. It supplements the general Gecko Bootloader implementation information provided in UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher.
UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher -
Describes the high-level implementation of the Silicon Labs Gecko Bootloader for EFR32 SoCs and NCPs, and provides information on how to get started using the Gecko Bootloader with Silicon Labs wireless protocol stacks in GSDK 4.0 and higher. | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-5 | AN1326: Transitioning to the Updated Gecko Bootloader in GSDK 4.0 and Higher -
Gecko Bootloader v2.x, introduced in GSDK 4.0, contains a number of changes compared to Gecko Bootloader v1.x. This document describes the differences between the versions, including how to configure the new Gecko Bootloader in Simplicity Studio 5.
AN1218: Series 2 Secure Boot with RTSL -
Contains detailed information on configuring and using the Secure Boot with hardware Root of Trust and Secure Loader on Series 2 devices, including how to provision the signing key. This is a companion document to UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher.
Multiprotocol
UG103.16: Multiprotocol Fundamentals -
Describes the four multiprotocol modes, discusses considerations when selecting protocols for multiprotocol implementations, and reviews the Radio Scheduler, a required component of a dynamic multiprotocol solution.
UG305: Dynamic Multiprotocol User's Guide -
Describes how to implement a dynamic multiprotocol solution.
Non-Volatile Data Storage
UG103.07: Non-Volatile Data Storage Fundamentals -
Introduces non-volatile data storage using flash and the three different storage implementations offered for Silicon Labs microcontrollers and SoCs: Simulated EEPROM, PS Store, and NVM3.
AN1135: Using Third Generation Non-Volatile Memory (NVM3) Data Storage -
Explains how NVM3 can be used as non-volatile data storage in various protocol implementations. | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-6 | AN961: Bringing Up Custom Devices for the EFR32MG and EFR32FG Families -
Describes how to initialize a piece of custom hardware (a 'device') based on the EFR32MG and EFR32FG families so that it interfaces correctly with a network stack. The same procedures can be used to restore devices whose settings have been corrupted or erased.
AN1154: Using Tokens for Non-Volatile Data Storage -
Describes tokens and shows how to use them for non-volatile data storage in EmberZNet PRO and Silicon Labs Flex applications.
Security
UG103.05: IoT Endpoint Security Fundamentals -
Introduces the security concepts that must be considered when implementing an Internet of Things (IoT) system. Using the ioXt Alliance's eight security principles as a structure, it clearly delineates the solutions Silicon Labs provides to support endpoint security and what you must do outside of the Silicon Labs framework.
AN1190: Series 2 Secure Debug -
Describes how to lock and unlock the debug access of EFR32 Gecko Series 2 devices. Many aspects of the debug access, including the secure debug unlock are described. The Debug Challenge Interface (DCI) and Secure Engine (SE) Mailbox Interface for locking and unlocking debug access are also included.
AN1222: Production Programming of Series 2 Devices -
Provides details on programming, provisioning, and configuring Series 2 devices in production environments. Covers Secure Engine Subsystem of Series 2 devices, which runs easily upgradeable Secure Engine (SE) or Virtual Secure Engine (VSE) firmware.
AN1247: Anti-Tamper Protection Configuration and Use -
Shows how to program, provision, and configure the anti-tamper module on EFR32 Series 2 devices with Secure Vault. | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
8db4921d3723-7 | AN1268: Authenticating Silicon Labs Devices using Device Certificates -
How to authenticate an EFR32 Series 2 device with Secure Vault, using secure device certificates and signatures.
AN1271: Secure Key Storage -
Explains how to securely "wrap" keys in EFR32 Series 2 devices with Secure Vault, so they can be stored in non-volatile storage.
AN1303: Programming Series 2 Devices Using the Debug Challenge Interface (DCI) and Serial Wire Debug (SWD) -
Describes how to provision and configure Series 2 devices through the DCI and SWD.
AN1311: Integrating Crypto Functionality Using PSA Crypto Compared to Mbed TLS -
Describes how to integrate crypto functionality into applications using PSA Crypto compared to Mbed TLS. | rtdocs\docs.silabs.com\connect-stack\3.5\index.html |
759d6abeebce-0 | Software Advisory for detailed information (registration required).
Gecko OS
Gecko OS is a highly-optimized yet feature-packed IoT operating system designed specifically to power Silicon Labs hardware platforms with secure wired and wireless networking capabilities.
With integrated support for firmware updates and cloud-connectivity, devices powered by Gecko OS can be seamlessly managed from the cloud with just a few clicks.
Gecko OS already supports various technologies offered by Silicon Labs including Wi-Fi and Bluetooth, with others in active development.
Gecko OS offers two consistent API options depending on where your application runs.
Applications that run on an external host microprocessor, or on a network connected device such as a smartphone, tablet or PC can use the Xpress Command API.
Whereas applications that run on Silicon Labs hardware can use the programmatic Gecko OS native 'C' API along with the Gecko OS Application SDK.
Editions
Standard License
Gecko OS 4
Wi-Fi and Ethernet with Command API and Application SDK
Wi-Fi, Ethernet
WGM160P
Xpress License
Gecko OS 2
Wi-Fi Xpress with Command API
Wi-Fi
AMW007, AMW037
Gecko OS 1
Bluetooth Xpress with Command API
Bluetooth
BGX13P, BGX13S
Legacy Editions
ZentriOS WZ
Zentri Wi-Fi portfolio with Command API and Application SDK
Wi-Fi
AMW106, AMW136
ZentriOS WL
Zentri Wi-Fi portfolio with Command API
Wi-Fi
AMW007, AMW037
ZentriOS W
Zentri Wi-Fi portfolio with Command API
Wi-Fi
AMW006, AMW036 | rtdocs\docs.silabs.com\gecko-os\index.html |
ef1e5e007e14-0 | General Overview
What is Bluetooth Xpress
Bluetooth Xpress (BGX) devices are pre-programmed modules that provide a host
microcontroller with a Bluetooth Low Energy (BLE) connection to another Bluetooth
Xpress module device or a smart phone. Bluetooth Xpress modules such as the BGX13P
and BGX13S modules are designed to substantially reduce
design effort and aid time-to-market in applications that require BLE connectivity
to other BLE capable devices.
A host microprocessor communicates with a Bluetooth Xpress module via a
serial interface. A host microcontroller can configure
the module and stream data to and from connected Bluetooth devices. Application
operation may be customized by setting individual configuration variables.
Bluetooth Xpress modules use the Xpress command API to enable host control, together
with variables to enable host configuration. Beyond commands
and variables, Bluetooth Xpress modules provide a rich feature set for
wireless and peripheral command and control.
Serial Interface
Bluetooth Xpress modules provide one of the easiest to use and flexible serial BLE
interfaces in the industry. The Xpress command API provides UART support,
different serial communications modes, including command mode and stream mode. The protocol
is easy to use for both humans and machines alike.
See Serial Interface.
Bluetooth Low Energy
Bluetooth Xpress modules provide an easy-to-use serial API allowing you to focus your
efforts on application development, rather than the time-consuming complexity
and interoperability issues associated with the development of a wireless
network stack.
Bluetooth Xpress modules support operating modules in Central and Peripheral roles.
See Commands and Variables.
I/O
Port control APIs are available to provide access to general purpose IO, inputs
to control Bluetooth Xpress operational state through pin conditions, and outputs designed
to signal BLE connection status with connected LEDs.
See GPIOs.
Security | rtdocs\docs.silabs.com\gecko-os\1\bgx\1.0\index.html |
ef1e5e007e14-1 | See GPIOs.
Security
The primary BLE services provided by Bluetooth Xpress modules are always encrypted
for privacy. To use either the Xpress Streaming Service
or the OTA firmware update service, connecting devices will need to pair. BGX devices
may be configured to use either Just Works (unauthenticated) or Passkey (authenticated)
pairing methods. Support is provided for both LE Secure Connections and LE legacy pairing.
See Security. | rtdocs\docs.silabs.com\gecko-os\1\bgx\1.0\index.html |
b3b977a43225-0 | Software Advisory for detailed information (registration required).
General Overview
Xpress Command API
AMW007 - Wi-Fi Module
AMW037 - Wi-Fi Module with antenna
What is Gecko OS Edition 2?
Gecko OS is an IoT operating system that runs on Silicon Labs wireless and wired IoT connectivity modules. Gecko OS helps you build your wireless IoT app by shielding you from the complexity of hardware, protocols and standards, leaving you to focus on building a great IoT application. All Wireless Xpress products from Silicon Labs are powered by Gecko OS making use of the Gecko OS Command API.
Hardware running Gecko OS provides a product with a powerful and secure wireless connection to a mobile device or the cloud. Developers can build IoT Applications that communicate with Gecko OS using the extensive Wi-Fi Command API, via serial interface, HTTP REST or a remote terminal.
Command API
The Gecko OS 2 Command API is available for applications connecting with a wired serial interface, or a wireless interface using HTTP REST or Remote Terminal. The API provides direct access to peripherals connected to Gecko OS hardware via GPIO. For a quick start guide to using a Gecko OS evaluation board, see Getting Started.
Features and Interfaces
The Gecko OS 2 Command API offers a powerful set of commands for control of connected devices, together with a large number of variables for configuration.
A host MCU communicates with Gecko OS via a UART.
A mobile or desktop app communicates with Gecko OS via the HTTP Server RESTful API or by the local or remote terminal interface.
The local or remote host sends commands to control the operation of Gecko OS and to exchange data with other devices on the network.
A summary of Gecko OS 2 features and interfaces is outlined in the following sections.
Wi-Fi, Networking & Web
Multiple interfaces including serial, softAP and WLAN client
Concurrent operation of softAP and WLAN client
Servers: TCP, HTTP, DHCP, DNS | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\index.html |
b3b977a43225-1 | Concurrent operation of softAP and WLAN client
Servers: TCP, HTTP, DHCP, DNS
Clients: TCP/TLS, UDP, NTP, DHCP, DNS
HTTP Server with RESTful API
HTTP file upload/download
Fully-customizable mobile responsive web application
Remote terminal access
Multiple Wi-Fi setup options including Web setup with softAP
Peripherals & Sensors
GPIOs for control, indication and monitoring
Automated broadcast and streaming of sensor data
Local caching of sensor data
System
Wireless OTA (Over-the-Air) Update to remotely manage firmware using the
Failsafe bootloader and kernel with safemode operation
Configurable power states and sleep/wake timers
Read/Write file system
Storage of large files
All Gecko OS commands can be issued manually using human mode or under host control using machine mode. Human mode should only be used for evaluation and manual testing. Machine mode is strongly recommended for production.
For human mode, the interfaces are a Gecko OS Terminal, the Web App, or a remote terminal.
Getting Started
To start using your Gecko OS hardware in human mode, see Getting Started.
Web App
The Web App provides complete monitoring and control of your Gecko OS hardware using a web browser.
See Web App.
Serial Interface
Gecko OS provides one of the easiest to use and most flexible serial Wi-Fi networking interfaces in the industry. The Gecko OS serial interface provides support for multiple serial buses, different serial communications modes including command mode and stream mode, and is easily configured for use by humans and machines alike.
See Serial Interface.
Wi-Fi
Gecko OS provides an easy-to-use serial API allowing you to focus your efforts on application development, rather than the time-consuming complexity and interoperability issues associated with the development of a full-featured secure wireless network stack. | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\index.html |
b3b977a43225-2 | Two Wi-Fi interfaces are supported, including a Wi-Fi client (wlan) and Wi-Fi soft access point (softAP) interface. Each interface may be run independently or concurrently to suit various application needs.
See Wi-Fi Interface.
Networking and Security
Gecko OS includes a full IPv4 networking stack and SSL/TLS security suite that supports a range of popular networking protocols including TCP, UDP, DNS, DHCP. Additional network application libraries are provided for native HTTP/S and secure cloud access.
See Networking and Security.
Peripherals
Various peripheral APIs are available to provide access to general purpose IOs (GPIOs), analog functions such as analog-digital and digital-analog converters, and timers including a real time clock. Special system and network functions can be assigned to GPIOs to enable handy features including:
automatic LED status indicators to show the state of Wi-Fi and network connections;
an indication of when one or more network clients are connected to a local Gecko OS server; and
the ability to control the connection state of a client or server.
See Peripherals.
File System
Most connected applications require the ability to store configuration information or cache local data. Gecko OS provides a reliable read/write filesystem and on-board flash storage to satisfy application storage requirements. With just a few simple commands, Gecko OS provides your application with complete access to local and network connected storage.
See File System.
Memory
For management of Gecko OS device memory, see Memory.
Configuration and Setup
Several options are available to setup a module running Gecko OS. The most common option, and also the most convenient when prototyping is to use a command line and serial interface such as a UART. A PC terminal can be quickly connected to a Gecko OS evaluation board, and within 60 seconds it is possible to be connected to a Wi-Fi network and downloading HTTP webpages or connecting to a remote TCP server.
Other methods for configuration, setup and Wi-Fi provisioning include: | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\index.html |
b3b977a43225-3 | Other methods for configuration, setup and Wi-Fi provisioning include:
a softAP and webserver interface
an (optionally) password-secured remote terminal that provides command line convenience over one of the Gecko OS wireless network interfaces; and
automatic execution of a custom configuration script on boot-up
See Configuration and Setup.
System Functions
System functions include:
Configuring Gecko OS Command Mode and Response
Power management
Monitoring System State
Controlling the Boot Application
System Identification and Version
See System Functions.
Update and Recovery
Gecko OS is part of a larger sophisticated application framework installed on all Gecko OS devices. The framework provides a hardened bootloader, read/write file system, safemode recovery mechanism, and over-the-air (OTA) update capability.
Silabs manages a secure on-line OTA server that offers each Gecko OS device with the ability to securely update individual files, applications or an entire firmware bundle. In the rare event that Gecko OS fails to regularly execute correctly, the bootloader switches the boot application to safe mode. The safe mode application provides the host with the ability to update the firmware, switch back to Gecko OS or even factory reset the module.
See Update and Recovery. | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\index.html |
5d1be5ed53a7-0 | Gecko OS Variables
Shortcuts
Documentation Format
List of Variables
Variable Properties
This page provides a list of Gecko OS variables with a full description of the function of each variable together with example usage.
Variables are cached in volatile RAM and must be saved to non-volatile flash memory to persist between reboots. To save variables to flash, use the save command. Some variables impact the operation of the entire system, wake and sleep timers for example. A save and reboot is required before new settings for these types of variables take effect.
Variable settings can be loaded using the load command.
The get and set Command API functions are used to read and write Gecko OS variables respectively.
Shortcuts
A shortcut is assigned to each variable. The format for shortcuts is shown in the following table. The shortcut is a hybrid of the first two characters of the first word of the variable name, plus (typically) the first character of the second word (if a second word exists), plus (typically) the first character of the third word of the variable name (if a third word exists). Each of these characters is separated by a space character. In some instances, it was not possible to use the first letter of the second or third word in the variable name, in these cases another letter has been somewhat arbitrarily chosen.
Template
first_word.second_word.third_word
fi s t
Example 1
time.uptime
ti u
Example 2
wlan.scan.retries
wl s r
Documentation Format
Many Gecko OS responses shown in the examples on this page were captured with system.print_level = 0, and system.cmd.header_enabled = 1. These machine friendly settings make it easy for a host MCU to parse responses by examining response headers.
Documentation for each variable is provided in the format shown below.
variable
Abbreviation
var
Access
get/set
Description
A description of the function of the variable.
Arguments | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-1 | var
Access
get/set
Description
A description of the function of the variable.
Arguments
A full list of mandatory and optional arguments.
Default
The factory reset default value.
Get example
An example of how to read the variable, including response codes.
Set example
An example of how to write the variable, including response codes (for writeable variables).
NOTE! Don't forget to check out command navigation tips to make it easier to find and type specific variable names.
List of Variables
All Variables
all
Broadcast
broadcast.databroadcast.http.hostbroadcast.interfacebroadcast.intervalbroadcast.udp.ipbroadcast.udp.remote_port
Bus
bus.modebus.stream.cmd_gpiobus.stream.cmd_seqbus.stream.flush_countbus.stream.flush_timebus.stream.flush_time_reset
DMS
dms.bundle_id
GPIO
gpio.initgpio.usage
Host Boot
hboot.filenamehboot.gpio
HTTP Server
http.server.api_enabledhttp.server.cors_originhttp.server.enabledhttp.server.interfacehttp.server.max_clientshttp.server.notfound_filenamehttp.server.porthttp.server.root_filename
IO Connection
ioconn.control_gpioioconn.enabledioconn.local_portioconn.protocolioconn.remote_hostioconn.remote_portioconn.status_gpio
Network
network.default_interfacenetwork.tls.ca_certnetwork.tls.client_certnetwork.tls.client_keynetwork.tls.handshake_timeoutnetwork.tls.version
NTP
ntp.enabledntp.interfacentp.intervalntp.server
Remote Terminal
remote_terminal.enabledremote_terminal.interfaceremote_terminal.passwordremote_terminal.portremote_terminal.timeout
Setup
setup.gpio.control_gpiosetup.web.idle_timeoutsetup.web.passkeysetup.web.root_filenamesetup.web.ssidsetup.web.url | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-2 | SoftAP Interface
softap.auto_startsoftap.captive_portal_enabledsoftap.channelsoftap.client_listsoftap.dhcp_server.enabledsoftap.dns_server.enabledsoftap.dns_server.urlsoftap.hide_ssidsoftap.idle_timeoutsoftap.infosoftap.max_clientssoftap.passkeysoftap.ssidsoftap.static.gatewaysoftap.static.ipsoftap.static.netmask
Stream
stream.auto_close
System
system.build_numbersystem.cmd.bufferedsystem.cmd.echosystem.cmd.formatsystem.cmd.header_enabledsystem.cmd.prompt_enabledsystem.gotosleep.timeoutsystem.indicator.gpiosystem.indicator.statesystem.memory.usagesystem.oob.event_masksystem.oob.gpiosystem.oob.gpio_levelsystem.oob.rising_edge_masksystem.oob.statussystem.print_levelsystem.safemode.disabledsystem.safemode.statussystem.uuidsystem.versionsystem.wakeup.timeout
TCP Client
tcp.client.auto_interfacetcp.client.auto_retriestcp.client.auto_starttcp.client.connect_timeouttcp.client.connected_strtcp.client.disconnected_strtcp.client.local_porttcp.client.remote_hosttcp.client.remote_porttcp.client.retriestcp.client.retry_periodtcp.client.tls_enabled
TCP Keepalive
tcp.keepalive.enabledtcp.keepalive.initial_timeouttcp.keepalive.retry_counttcp.keepalive.retry_timeout
TCP Server
tcp.server.auto_interfacetcp.server.auto_starttcp.server.connected_gpiotcp.server.data_gpiotcp.server.idle_timeouttcp.server.port
Time
time.last_settime.rtctime.uptimetime.zone
UART
uart.bauduart.datauart.flowuart.parityuart.stop
UDP Client
udp.client.auto_interfaceudp.client.auto_startudp.client.remote_hostudp.client.remote_port
UDP Server
udp.server.auto_interfaceudp.server.auto_startudp.server.data_gpioudp.server.lock_clientudp.server.portudp.server.remote_hostudp.server.remote_port | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-3 | WLAN Interface
wlan.auto_join.enabledwlan.auto_join.retrieswlan.auto_join.retry_delaywlan.dhcp.enabledwlan.dhcp.hostnamewlan.hide_passkeywlan.infowlan.join.retrieswlan.join.timeoutwlan.macwlan.network.dnswlan.network.gatewaywlan.network.ipwlan.network.netmaskwlan.network.statuswlan.passkeywlan.rate.protocolwlan.ssidwlan.static.dnswlan.static.gatewaywlan.static.ipwlan.static.netmaskwlan.tx_power
Variable Properties
The table below indicates properties of variables:
When a change in variable value takes effect:
Immediate - a change in the variable value takes effect immediatelyUART Update - run the uart_update command to apply a change in the variable valueNetwork Restart - restart the network to apply a change in the variable valueSetup Restart - restart the web setup to apply a change in the variable valueSave and Reboot - a save and reboot is required to apply a change in the variable value
Safe Mode - variable is available in safe mode
Fac Persist - variable persists through factory reset
broadcast.data
Immediate
broadcast.http.host
Immediate
broadcast.interface
Save and Reboot
broadcast.interval
Save and Reboot
broadcast.udp.ip
Immediate
bus.mode
Save and Reboot
Safe Mode
NVM Backup
Lockable
bus.stream.cmd_gpio
Save and Reboot
bus.stream.cmd_seq
Save and Reboot
bus.stream.flush_count
Save and Reboot
bus.stream.flush_time
Save and Reboot
bus.stream.flush_time_reset
Save and Reboot
gpio.init
Save and Reboot
http.server.api_enabled
Network Restart
http.server.cors_origin
Network Restart
http.server.enabled
Network Restart
http.server.interface
Network Restart
http.server.max_clients
Network Restart
http.server.notfound_filename
Network Restart
http.server.port
Network Restart
http.server.root_filename
Network Restart | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-4 | Network Restart
http.server.port
Network Restart
http.server.root_filename
Network Restart
ioconn.control_gpio
Save and Reboot
ioconn.enabled
Save and Reboot
ioconn.local_port
Immediate
ioconn.protocol
Immediate
ioconn.remote_host
Immediate
ioconn.remote_port
Immediate
ioconn.status_gpio
Save and Reboot
network.default_interface
Immediate
network.tls.ca_cert
Immediate
Safe Mode
network.tls.client_cert
Immediate
network.tls.client_key
Immediate
network.tls.version
Immediate
ntp.enabled
Save and Reboot
ntp.interface
Save and Reboot
ntp.interval
Save and Reboot
ntp.server
Save and Reboot
remote_terminal.enabled
Network Restart
remote_terminal.interface
Network Restart
remote_terminal.password
Immediate
remote_terminal.port
Network Restart
remote_terminal.timeout
Immediate
setup.gpio.control_gpio
Save and Reboot
setup.web.idle_timeout
Setup Restart
setup.web.passkey
Setup Restart
setup.web.root_filename
Setup Restart
setup.web.ssid
Setup Restart
setup.web.url
Setup Restart
softap.auto_start
Network Restart
softap.channel
Network Restart
softap.dhcp_server.enabled
Network Restart
softap.dns_server.enabled
Network Restart
softap.dns_server.url
Network Restart
softap.hide_ssid
Network Restart
softap.idle_timeout
Network Restart
softap.max_clients
Immediate
softap.passkey
Network Restart
softap.ssid
Network Restart
softap.static.gateway
Network Restart
softap.static.ip
Network Restart
softap.static.netmask
Network Restart
stream.auto_close
Immediate
system.cmd.buffered
Immediate
Safe Mode
NVM Backup
system.cmd.echo
Immediate
Safe Mode
NVM Backup
system.cmd.header_enabled
Immediate
Safe Mode
NVM Backup
system.cmd.prompt_enabled
Immediate
Safe Mode | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-5 | Immediate
Safe Mode
NVM Backup
system.cmd.prompt_enabled
Immediate
Safe Mode
NVM Backup
system.gotosleep.timeout
Save and Reboot
system.indicator.gpio
Save and Reboot
system.indicator.state
Save and Reboot
system.oob.event_mask
Immediate
system.oob.gpio
Save and Reboot
system.oob.gpio_level
Immediate
system.oob.rising_edge_mask
Immediate
system.print_level
Immediate
Safe Mode
NVM Backup
system.safemode.disabled
Save and Reboot
Safe Mode
system.safemode.status
Safe Mode
system.uuid
Safe Mode
system.version
Safe Mode
system.wakeup.timeout
Immediate
tcp.client.auto_interface
Save and Reboot
tcp.client.auto_retries
Save and Reboot
tcp.client.auto_start
Save and Reboot
tcp.client.connect_timeout
Immediate
Safe Mode
NVM Backup
tcp.client.local_port
Immediate
Safe Mode
NVM Backup
tcp.client.remote_host
Immediate
tcp.client.remote_port
Immediate
tcp.client.retries
Immediate
Safe Mode
NVM Backup
tcp.client.retry_period
Immediate
Safe Mode
NVM Backup
tcp.client.tls_enabled
Immediate
tcp.keepalive.enabled
Immediate
NVM Backup
tcp.keepalive.initial_timeout
Immediate
NVM Backup
tcp.keepalive.retry_count
Immediate
NVM Backup
tcp.keepalive.retry_timeout
Immediate
NVM Backup
tcp.server.auto_interface
Network Restart
tcp.server.auto_start
Network Restart
tcp.server.connected_gpio
Network Restart
tcp.server.data_gpio
Network Restart
tcp.server.idle_timeout
Network Restart
tcp.server.port
Network Restart
time.rtc
Immediate
time.zone
Immediate
uart.baud
UART Update
Save and Reboot
Safe Mode
NVM Backup
Lockable
uart.data
UART Update
Save and Reboot
Safe Mode | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-6 | NVM Backup
Lockable
uart.data
UART Update
Save and Reboot
Safe Mode
NVM Backup
Lockable
uart.flow
UART Update
Save and Reboot
Safe Mode
NVM Backup
Lockable
uart.parity
UART Update
Save and Reboot
Safe Mode
NVM Backup
Lockable
uart.stop
UART Update
Save and Reboot
Safe Mode
NVM Backup
Lockable
udp.client.auto_interface
Network Restart
udp.client.auto_start
Network Restart
udp.client.remote_host
Immediate
udp.client.remote_port
Immediate
udp.server.auto_interface
Network Restart
udp.server.auto_start
Network Restart
udp.server.data_gpio
Network Restart
udp.server.lock_client
Network Restart
udp.server.port
Network Restart
udp.server.remote_host
Network Restart
udp.server.remote_port
Network Restart
wlan.auto_join.enabled
Network Restart
wlan.auto_join.retries
Save and Reboot
wlan.auto_join.retry_delay
Save and Reboot
wlan.dhcp.enabled
Network Restart
Safe Mode
NVM Backup
wlan.dhcp.hostname
Network Restart
wlan.hide_passkey
Immediate
Safe Mode
NVM Backup
wlan.join.retries
Network Restart
Safe Mode
NVM Backup
wlan.join.timeout
Save and Reboot
Safe Mode
NVM Backup
wlan.mac
Safe Mode
wlan.network.dns
Safe Mode
wlan.network.gateway
Safe Mode
wlan.network.ip
Safe Mode
wlan.network.netmask
Safe Mode
wlan.network.status
Safe Mode
wlan.passkey
Network Restart
Safe Mode
NVM Backup
wlan.rate.protocol
Network Restart
Safe Mode
NVM Backup
wlan.ssid
Network Restart
Safe Mode
NVM Backup
wlan.static.dns
Network Restart
Safe Mode
NVM Backup
wlan.static.gateway
Network Restart | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
5d1be5ed53a7-7 | Network Restart
Safe Mode
NVM Backup
wlan.static.gateway
Network Restart
Safe Mode
NVM Backup
wlan.static.ip
Network Restart
Safe Mode
NVM Backup
wlan.static.netmask
Network Restart
Safe Mode
NVM Backup
wlan.tx_power
Immediate
Safe Mode
NVM Backup | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\cmd\variables\index.html |
c7975f4b382d-0 | Gecko OS 2.3 Hardware Support
Overview
Silabs provides software and tools for building connected products, from silicon to cloud.
Gecko OS is the operating system that allows rapid building of complex connected products.
Silabs provides platforms that run Gecko OS. Platforms include modules and evaluation boards.
For each hardware item below, the documentation includes links for product details and purchasing information.
Platforms
A platform is the basis of Gecko OS connectivity device. Gecko OS runs on a number of platforms.
A platform is a configuration of hardware capable of running Gecko OS. A platform runs a version of Gecko OS compiled specifically for that platform. A product is compiled for one or more platforms. The Silabs Device Management Server (DMS) classifies products by the platforms on which they can run. The Gecko OS SDK detects the device platform.
Where procedures and features vary, depending on the platform, the details are noted throughout the documentation.
Where a configuration consists of subcomponents, a platform is the smallest Gecko OS-capable component that can be obtained separately. For example, a Gecko OS AMW106-E03 evaluation board contains a Gecko OS AMW106 module. The platform is the Gecko OS AMW106 module. In the case of the NXP-SCCK, no smaller module is available, and the platform is the NXP-SCCK evaluation board.
Wi-Fi Modules
Silabs
AMW007
Spectre
Wi-Fi module
Gecko OS-AMW007
Silabs
AMW037
Spectre 037
Wi-Fi module
Gecko OS-AMW007 | rtdocs\docs.silabs.com\gecko-os\2\amw007-w00001\latest\hardware\index.html |
6acee5c2ba6a-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Gecko Platform
Gecko Platform is the common foundation for the Gecko SDK Suite.
Gecko Platform Components
EMLIB Peripheral Library
Common Utilities
Drivers
Services
Machine Learning
Middleware
Development Board APIs
External Device Drivers
Micrium OS
RAIL Library
Third-Party Libraries
ARM CMSIS
ARM mbed TLS | rtdocs\docs.silabs.com\gecko-platform\4.2\index.html |
ca92306defcb-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Platform Drivers
Platform drivers is a set of function specific high performance drivers for
EFM32, EZR32 and EFR32 on-chip peripherals. Drivers are typically DMA or
interrupt based and are using all available low-energy features. For most
drivers, the API offers both synchronous and asynchronous functions.
Most drivers are compile-time configurable to allow the highest possible
code size optimization for the application. Compile-time configuration is
defined in *_config.h files. Templates for the configuration files can be
found in the config for each driver. When adding a driver using the Project
Configurator in Simplicity Studio, the config files are automatically added
to the project.
Plaform drivers are located in either the platform/driver or platform/emdrv
folders. Drivers in platform/driver use error codes defined in
sl_status.h, while emdrv drivers use error
codes defined in ecode.h. | rtdocs\docs.silabs.com\gecko-platform\4.2\driver\index.html |
4307e8ee74a1-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Board APIs
The board APIs controls features specific to the Silicon Labs kit boards, like GPIO controlled power to external sensors. The board control API consists of both runtime functions to control the state and compile time configuration done through config headers which are editable by the user. During device initialization the configuration header settings are then applied by the board component itself.
Board Configuration Headers
The hardware/board/config subdirectory contains copies of configuration headers for miscellaneous drivers from the entire SDK. These configuration headers are tailored for the specific board, ensuring correct settings for pinout and other board-specific properties. The board-specific configuration headers override the default configuration header for the driver whenever the board is selected as a component in the SLC project.
All configuration headers are copied to the config/ directory of the project during SLC project generation. If a custom configuration is required, the configuration header in the project config/ directory can be further modified to fit application needs.
If developing for production hardware, you can start the project using a development board, and later change the target board to "Custom Board". In Simplicity Studio, this will show a prompt of whether to keep or overwrite the existing configuration file. If "keep my file" is selected, the board configuration settings from the development board are kept.
Note : The configuration must be modified on the copied board configuration headers in the generated project, under path config/ and not in the original SDK.
Thunderboard Sense 2 (BRD4166A) Support
Thunderboard Sense 2 has several I2C buses connected to the various sensors that are all connected to the EFR32. The BRD4166A support component provides functions to route pin connections of an I2C peripheral to the various I2C buses. This allows time multiplexed access to several I2C buses using only one I2C peripheral. | rtdocs\docs.silabs.com\gecko-platform\4.2\hardware-board\index.html |
58fed64e3c4b-0 | You are viewing documentation for version: 4.2 (latest) | Version History
External Device Drivers
The external device driver APIs enable using devices that are external to the EFR32/EFM32, such as sensors, displays, and external memory. While the drivers support external devices on the Silicon Labs kits, the drivers are board agnostic and can be used with other boards that include the same devices. | rtdocs\docs.silabs.com\gecko-platform\4.2\hardware-driver\index.html |
4da0f14f447e-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Platform Services
Gecko Platform Service components are high-level, device-independent and thread-safe APIs. Each service may have a hardware abstraction layer (HAL).
Note: All the Platform Services components also tightly integrate with SDK Programming model when configuring the project.
Platform Services Components
Command Line Interface -- Handles keyboard input, parsing and dispatching to handler functions.
Device Initialization -- Utility functions that bring the device from the reset state to a fully initialized state.
HFXO Manager -- High-frequency crystal oscillator startup manager to support sleepy crystals.
IO Stream -- Provides Input/Output functions by providing Streams.
Legacy HAL -- Hardware Abstraction Layer.
RAM execution disable -- Provides Utilities for disabling execution from RAM and other memory regions, using the MPU.
Microsecond Delay -- Provides utilities to provide microsecond delay.
Power Manager -- Manages system's energy modes.
Secure Engine Manager -- Provides APIs to Secure Engine Manager's mailbox interface.
Sleep Timer -- Provides software timers, delays, timekeeping and date functions using a low-frequency real-time clock peripheral.
System Initialization and Action Processing -- Initializes system and products.
Token Manager -- Provides routines for working with tokens.
CPC -- Co-Processor Communication | rtdocs\docs.silabs.com\gecko-platform\4.2\service\index.html |
ad7523185db4-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Gecko Platform
Gecko Platform is the common foundation for the Gecko SDK Suite.
Gecko Platform Components
EMLIB Peripheral Library
Common Utilities
Drivers
Services
Machine Learning
Middleware
Development Board APIs
External Device Drivers
Micrium OS
RAIL Library
Third-Party Libraries
ARM CMSIS
ARM mbed TLS | rtdocs\docs.silabs.com\gecko-platform\latest\index.html |
e4a50f587eb3-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Platform Drivers
Platform drivers is a set of function specific high performance drivers for
EFM32, EZR32 and EFR32 on-chip peripherals. Drivers are typically DMA or
interrupt based and are using all available low-energy features. For most
drivers, the API offers both synchronous and asynchronous functions.
Most drivers are compile-time configurable to allow the highest possible
code size optimization for the application. Compile-time configuration is
defined in *_config.h files. Templates for the configuration files can be
found in the config for each driver. When adding a driver using the Project
Configurator in Simplicity Studio, the config files are automatically added
to the project.
Plaform drivers are located in either the platform/driver or platform/emdrv
folders. Drivers in platform/driver use error codes defined in
sl_status.h, while emdrv drivers use error
codes defined in ecode.h. | rtdocs\docs.silabs.com\gecko-platform\latest\driver\index.html |
a9fc7d3b13c4-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Board APIs
The board APIs controls features specific to the Silicon Labs kit boards, like GPIO controlled power to external sensors. The board control API consists of both runtime functions to control the state and compile time configuration done through config headers which are editable by the user. During device initialization the configuration header settings are then applied by the board component itself.
Board Configuration Headers
The hardware/board/config subdirectory contains copies of configuration headers for miscellaneous drivers from the entire SDK. These configuration headers are tailored for the specific board, ensuring correct settings for pinout and other board-specific properties. The board-specific configuration headers override the default configuration header for the driver whenever the board is selected as a component in the SLC project.
All configuration headers are copied to the config/ directory of the project during SLC project generation. If a custom configuration is required, the configuration header in the project config/ directory can be further modified to fit application needs.
If developing for production hardware, you can start the project using a development board, and later change the target board to "Custom Board". In Simplicity Studio, this will show a prompt of whether to keep or overwrite the existing configuration file. If "keep my file" is selected, the board configuration settings from the development board are kept.
Note : The configuration must be modified on the copied board configuration headers in the generated project, under path config/ and not in the original SDK.
Thunderboard Sense 2 (BRD4166A) Support
Thunderboard Sense 2 has several I2C buses connected to the various sensors that are all connected to the EFR32. The BRD4166A support component provides functions to route pin connections of an I2C peripheral to the various I2C buses. This allows time multiplexed access to several I2C buses using only one I2C peripheral. | rtdocs\docs.silabs.com\gecko-platform\latest\hardware-board\index.html |
601dd2299f65-0 | You are viewing documentation for version: 4.2 (latest) | Version History
External Device Drivers
The external device driver APIs enable using devices that are external to the EFR32/EFM32, such as sensors, displays, and external memory. While the drivers support external devices on the Silicon Labs kits, the drivers are board agnostic and can be used with other boards that include the same devices. | rtdocs\docs.silabs.com\gecko-platform\latest\hardware-driver\index.html |
8ae35102c382-0 | You are viewing documentation for version: 4.2 (latest) | Version History
Platform Services
Gecko Platform Service components are high-level, device-independent and thread-safe APIs. Each service may have a hardware abstraction layer (HAL).
Note: All the Platform Services components also tightly integrate with SDK Programming model when configuring the project.
Platform Services Components
Command Line Interface -- Handles keyboard input, parsing and dispatching to handler functions.
Device Initialization -- Utility functions that bring the device from the reset state to a fully initialized state.
HFXO Manager -- High-frequency crystal oscillator startup manager to support sleepy crystals.
IO Stream -- Provides Input/Output functions by providing Streams.
Legacy HAL -- Hardware Abstraction Layer.
RAM execution disable -- Provides Utilities for disabling execution from RAM and other memory regions, using the MPU.
Microsecond Delay -- Provides utilities to provide microsecond delay.
Power Manager -- Manages system's energy modes.
Secure Engine Manager -- Provides APIs to Secure Engine Manager's mailbox interface.
Sleep Timer -- Provides software timers, delays, timekeeping and date functions using a low-frequency real-time clock peripheral.
System Initialization and Action Processing -- Initializes system and products.
Token Manager -- Provides routines for working with tokens.
CPC -- Co-Processor Communication | rtdocs\docs.silabs.com\gecko-platform\latest\service\index.html |
67fdc55e2e06-0 | Mbed TLS documentation hub
Mbed TLS provides an open-source implementation of cryptographic primitives,
X.509 certificate handling and the SSL/TLS and DTLS protocols. It provides a
reference implementation of the PSA Cryptography API.
The project also supports the PSA Cryptoprocessor Driver Interface which enables
support for cryptoprocessor drivers. The small code footprint makes the project
suitable for embedded systems. It has many users, including
TF-A,
TF-M and
OP-TEE.
This documentation is undergoing continuous improvement over time to address
gaps, etc. We welcome contributions!
For more information, see the following:
GitHub repository
Documentation GitHub repository
Mbed TLS website
PSA Crypto API specification
Contents
Getting started with Mbed TLS
Downloading
Building
Using PSA
API Reference
Reviews
Mbed TLS Review Guidelines
PR Prioritisation
Roadmap
Long-term plans for Mbed TLS
Library organization
API design
Features
Security
Tech Updates / Security Advisories
Advisories
Mbed TLS Maintainers
Overview
Gatekeepers
Maintainers
Trusted Reviewers
Contributing to This Documentation
Making a Contribution
Knowledge Base
Attacks
Compiling and Building
Cryptography
Development
Generic
How to
Licensing | rtdocs\docs.silabs.com\mbed-tls\2.16.6\index.html |
44aecfb5794e-0 | You are viewing documentation for version: 2.1 (latest) | 2.1 | Version History
Gecko Bootloader API Reference
Additional Gecko Bootloader Documentation | Release Notes | Downloads
To use the application interface in your application, include the api/btl_interface.h header in your application, and add the following files to the build:
api/btl_interface.c
api/btl_interface_storage.c
See the Application Interface documentation for more information.
Bootloader Components
The bootloader itself consists of multiple parts:
Core
The bootloader core contains the main function of both bootloader stages. It also contains functionality to write to the internal main flash, to perform a bootloader upgrade, and to reset into the application flagging applicable reset reasons. See the core documentation for more information.
Driver
Different bootloading applications require different hardware drivers for use by the other components of the bootloader. See the driver documentation for more information.
Plugin
All parts of the bootloader that are either optional or swappable for different implementations are implemented as plugins. Each plugin has a generic header file, and one or more implementations. The current release contains plugins for functionality like UART and SPI communication protocols, SPI flash storage, internal flash storage, and different cryptographic operations. For more information about the different plugins, see the plugin documentation.
Additional Gecko Bootloader Documentation
The following are Gecko Bootloader documents that apply to most protocol SDKs in the Gecko SDK Suite.
Some protocol SDKs also include information specific to working with that protocol. These are included as well.
Developing with the Gecko Bootloader
UG103.06: Bootloader Fundamentals -
Introduces bootloading for Silicon Labs networking devices. Discusses the Gecko Bootloader as well as legacy Ember and Bluetooth bootloaders, and describes the file formats used by each. | rtdocs\docs.silabs.com\mcu-bootloader\2.1\index.html |
44aecfb5794e-1 | UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher -
Describes the high-level implementation of the Silicon Labs Gecko Bootloader for EFR32 SoCs and NCPs, and provides information on how to get started using the Gecko Bootloader with Silicon Labs wireless protocol stacks in GSDK 4.0 and higher.
AN1326: Transitioning to the Updated Gecko Bootloader in GSDK 4.0 and Higher -
Gecko Bootloader v2.x, introduced in GSDK 4.0, contains a number of changes compared to Gecko Bootloader v1.x. This document describes the differences between the versions, including how to configure the new Gecko Bootloader in Simplicity Studio 5.
AN1218: Series 2 Secure Boot with RTSL -
Contains detailed information on configuring and using the Secure Boot with hardware Root of Trust and Secure Loader on Series 2 devices, including how to provision the signing key. This is a companion document to UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher.
Protocol-Specific Information
AN1086: Using the Gecko Bootloader with Silicon Labs Bluetooth Applications -
Includes detailed information on using the Gecko Bootloader with Silicon Labs Bluetooth applications. It supplements the general Gecko Bootloader implementation information provided in UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher.
AN1085: Using the Gecko Bootloader with Silicon Labs Connect -
Includes detailed information on using the Silicon Labs Gecko Bootloader with Connect. It supplements the general Gecko Bootloader implementation information provided in UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher. | rtdocs\docs.silabs.com\mcu-bootloader\2.1\index.html |
44aecfb5794e-2 | AN1084: Using the Gecko Bootloader with Zigbee EmberZNet -
Includes detailed information on using the Silicon Labs Gecko Bootloader with EmberZNet. It supplements the general Gecko Bootloader implementation information provided in UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher. | rtdocs\docs.silabs.com\mcu-bootloader\2.1\index.html |
88cbfcbbf261-0 | You are viewing documentation for version: 2.2 (latest) | 2.1 | Version History
OpenThread
OpenThread Documentation
Silicon Labs Documentation | Release Notes | Open Source Documentation
What is OpenThread?
OpenThread released by Google is
an open-source implementation of the Thread networking protocol.** Google Nest has released OpenThread to make the technology used in Nest products more broadly available to developers to accelerate the development of products for the connected home.
OS and platform agnostic**, with a narrow platform abstraction layer and a small memory footprint, making it highly portable. It supports both system-on-chip (SoC) and network co-processor (NCP) designs.
a Thread Certified Component**, implementing all features defined in the Thread 1.1.1 specification, including all Thread networking layers (IPv6, 6LoWPAN, IEEE 802.15.4 with MAC security, Mesh Link Establishment, Mesh Routing) and device roles, as well as Border Router support.
More information about Thread can be found at threadgroup.org. Thread is a registered trademark of the Thread Group, Inc.
Who supports OpenThread?
Getting started
All end-user documentation and guides are located at openthread.io. If you're looking to do things like...
Learn more about OpenThread features and enhancements
Use OpenThread in your products
Learn how to build and configure a Thread network
Port OpenThread to a new platform
Build an application on top of OpenThread
Certify a product using OpenThread
...then openthread.io is the place for you.
Note: For users in China, end-user documentation is available at openthread.google.cn.
If you're interested in contributing to OpenThread, read on.
Contributing
We would love for you to contribute to OpenThread and help make it even better than it is today! See our Contributing Guidelines for more information. | rtdocs\docs.silabs.com\openthread\2.2\index.html |
88cbfcbbf261-1 | Contributors are required to abide by our Code of Conduct and Coding Conventions and Style Guide.
Versioning
OpenThread follows the Semantic Versioning guidelines for release cycle transparency and to maintain backwards compatibility. OpenThread's versioning is independent of the Thread protocol specification version but will clearly indicate which version of the specification it currently supports.
License
OpenThread is released under the BSD 3-Clause license. See the LICENSE file for more information.
Please only use the OpenThread name and marks when accurately referencing this software distribution. Do not use the marks in a way that suggests you are endorsed by or otherwise affiliated with Nest, Google, or The Thread Group.
Need help?
There are numerous avenues for OpenThread support:
Bugs and feature requests — submit to the Issue Tracker
Stack Overflow — post questions using the openthread tag
Google Groups — discussion and announcements at openthread-users
The openthread-users Google Group is the recommended place for users to discuss OpenThread and interact directly with the OpenThread team.
Silicon Labs Documentation
Getting Started
Getting Started with Simplicity Studio 5 and the Gecko SDK -
Describes downloading development tools and the Gecko SDK, which includes Silicon Labs OpenThread. Introduces the Simplicity Studio 5 interface.
QSG170: Silicon Labs OpenThread Quick Start Guide -
Provides basic information on configuring, building, and installing applications using the Silicon Labs OpenThread stack.
UG103.11: Thread Fundamentals -
For those new to OpenThread, includes a brief background on the emergence of Thread, provides a technology overview, and describes some key features of Thread to consider when implementing a Thread solution.
UG103.01: Wireless Networking Fundamentals -
For those new to wireless networking, introduces some fundamental concepts of wireless networking. These concepts are referred to in other Fundamentals documents.
Developing with OpenThread | rtdocs\docs.silabs.com\openthread\2.2\index.html |
88cbfcbbf261-2 | Developing with OpenThread
AN1256: Using the Silicon Labs RCP with the OpenThread Border Router -
Describes using the OpenThread Border Router GitHub repository and the Silicon Labs OpenThread Radio Co-Processor (RCP) application to create a Thread Border Router.
AN1350: Single-Band Proprietary Sub-GHz Support with OpenThread -
Describes how to configure OpenThread applications to operate on a proprietary sub-GHz band using the Silicon Labs OpenThread SDK and Simplicity Studio 5 with a compatible mainboard. It also provides details on the proprietary radio PHY supported with this feature.
AN1264: Using OpenThread with Free RTOS -
Describes how to build OpenThread applications with FreeRTOS.
AN1372: Configuring OpenThread Applications for Thread 1.3 -
Provides instructions for configuring OpenThread SoC and Border Router applications to use Thread 1.3 features.
UG162: Simplicity Commander Reference Guide -
Describes how and when to use Simplicity Commander's Command-Line Interface.
Multiprotocol
UG103.16: Multiprotocol Fundamentals -
Describes the four multiprotocol modes, discusses considerations when selecting protocols for multiprotocol implementations, and reviews the Radio Scheduler, a required component of a dynamic multiprotocol solution.
AN1265: Dynamic Multiprotocol Development with Bluetooth and OpenThread in GSDK v3.x -
Provides details on developing Dynamic Multiprotocol applications using Bluetooth and OpenThread.
UG305: Dynamic Multiprotocol User's Guide -
Describes how to implement a dynamic multiprotocol solution. | rtdocs\docs.silabs.com\openthread\2.2\index.html |
88cbfcbbf261-3 | AN1333: Running Zigbee, OpenThread, and Bluetooth Concurrently on a Linux Host with a Multiprotocol Co-Processor -
Describes how to run any combination of Zigbee EmberZNet, OpenThread, and Bluetooth networking stacks on a Linux host processor, interfacing with a single EFR32 Radio Co-processor (RCP) with multiprotocol and multi-PAN support, as well as how to run the Zigbee stack on the EFR32 as a network co-processor (NCP) alongside the OpenThread RCP.
Coexistence
UG103.17: Wi-Fi Coexistence Fundamentals -
Introduces methods to improve the coexistence of 2.4 GHz IEEE 802.11b/g/n Wi-Fi and other 2.4 GHz radios such as Bluetooth, Bluetooth Mesh, Bluetooth Low Energy, and IEEE 802.15.4-based radios such as Zigbee and OpenThread
AN1017: Zigbee and Thread Coexistence with Wi-Fi -
Details the impact of Wi-Fi on Zigbee and Thread, and methods to improve coexistence. First, methods to improve coexistence without direct interaction between Zigbee/Thread and Wi-Fi radios are described. Second, Silicon Labs's Packet Traffic Arbitration (PTA) support to coordinate 2.5 GHz RF traffic for co-located Zigbee/Thread and Wi-Fi radios is described (for the EFR32MG only).
AN1294: Configuring Antenna Diversity for OpenThread -
Describes how to use Project Configurator and Component Editor in Simplicity Studio 5 to configure antenna diversity in OpenThread applications.
Security | rtdocs\docs.silabs.com\openthread\2.2\index.html |
88cbfcbbf261-4 | Security
UG103.05: IoT Endpoint Security Fundamentals -
Introduces the security concepts that must be considered when implementing an Internet of Things (IoT) system. Using the ioXt Alliance's eight security principles as a structure, it clearly delineates the solutions Silicon Labs provides to support endpoint security and what you must do outside of the Silicon Labs framework.
AN1329: Using Silicon Labs Secure Vault Features with OpenThread -
Describes how Secure Vault features are leveraged in OpenThread applications. It focuses on specific PSA features and emphasizes how these are integrated into the OpenThread stack.
AN1190: Series 2 Secure Debug -
Describes how to lock and unlock the debug access of EFR32 Gecko Series 2 devices. Many aspects of the debug access, including the secure debug unlock are described. The Debug Challenge Interface (DCI) and Secure Engine (SE) Mailbox Interface for locking and unlocking debug access are also included.
AN1222: Production Programming of Series 2 Devices -
Provides details on programming, provisioning, and configuring Series 2 devices in production environments. Covers Secure Engine Subsystem of Series 2 devices, which runs easily upgradeable Secure Engine (SE) or Virtual Secure Engine (VSE) firmware.
AN1247: Anti-Tamper Protection Configuration and Use -
Shows how to program, provision, and configure the anti-tamper module on EFR32 Series 2 devices with Secure Vault.
AN1268: Authenticating Silicon Labs Devices using Device Certificates -
How to authenticate an EFR32 Series 2 device with Secure Vault, using secure device certificates and signatures.
AN1271: Secure Key Storage -
Explains how to securely "wrap" keys in EFR32 Series 2 devices with Secure Vault, so they can be stored in non-volatile storage. | rtdocs\docs.silabs.com\openthread\2.2\index.html |
88cbfcbbf261-5 | AN1303: Programming Series 2 Devices Using the Debug Challenge Interface (DCI) and Serial Wire Debug (SWD) -
Describes how to provision and configure Series 2 devices through the DCI and SWD.
AN1311: Integrating Crypto Functionality Using PSA Crypto Compared to Mbed TLS -
Describes how to integrate crypto functionality into applications using PSA Crypto compared to Mbed TLS.
Bootloading
UG103.06: Bootloader Fundamentals -
Introduces bootloading for Silicon Labs networking devices. Discusses the Gecko Bootloader as well as legacy Ember and Bluetooth bootloaders, and describes the file formats used by each.
UG489: Silicon Labs Gecko Bootloader User's Guide for GSDK 4.0 and Higher -
Describes the high-level implementation of the Silicon Labs Gecko Bootloader for EFR32 SoCs and NCPs, and provides information on how to get started using the Gecko Bootloader with Silicon Labs wireless protocol stacks in GSDK 4.0 and higher.
AN1326: Transitioning to the Updated Gecko Bootloader in GSDK 4.0 and Higher -
Gecko Bootloader v2.x, introduced in GSDK 4.0, contains a number of changes compared to Gecko Bootloader v1.x. This document describes the differences between the versions, including how to configure the new Gecko Bootloader in Simplicity Studio 5.
AN1218: Series 2 Secure Boot with RTSL -
Contains detailed information on configuring and using the Secure Boot with hardware Root of Trust and Secure Loader on Series 2 devices, including how to provision the signing key. This is a companion document to UG266: Silicon Labs Gecko Bootloader User's Guide.
Non-Volatile Data Storage | rtdocs\docs.silabs.com\openthread\2.2\index.html |
88cbfcbbf261-6 | Non-Volatile Data Storage
UG103.07: Non-Volatile Data Storage Fundamentals -
Introduces non-volatile data storage using flash and the three different storage implementations offered for Silicon Labs microcontrollers and SoCs: Simulated EEPROM, PS Store, and NVM3.
AN1135: Using Third Generation Non-Volatile Memory (NVM3) Data Storage -
Explains how NVM3 can be used as non-volatile data storage in various protocol implementations.
Testing
AN718: Manufacturing Test Overview -
Provides a high-level description of the different options for integrating RF testing and characterization into standard test flows. It is intended for customers who are moving from the early prototype development stage to the manufacturing production environment and need assistance with manufacturing test.
AN700.1: Manufacturing Test Guidelines for the EFR32 -
Details the different options for integrating RF testing and characterization into standard test flows.
Performance Results for Multi-PAN RCP for OpenThread and Zigbee -
Summarizes the results of simultaneous Thread and Zigbee throughput performance testing for the concurrent multiprotocol / multi-PAN RCP, running both OpenThread and Zigbee on the host processor.
Performance
AN1142: Mesh Network Performance Comparison -
Reviews the Zigbee, Thread, and Bluetooth mesh networks to evaluate their differences in performance and behavior.
AN1141: Thread Mesh Network Performance -
Details methods for testing Thread mesh network performance; results are intended to provide guidance on design practices and principles as well as expected field performance results. | rtdocs\docs.silabs.com\openthread\2.2\index.html |
51bf4c871d56-0 | You are viewing documentation for version: 2.9 | 2.13 | Version History
Getting Started with RAIL
Release Notes | Downloads
Silicon Labs RAIL (Radio Abstraction Interface Layer) provides
an intuitive, easily-customizable radio interface layer that supports
proprietary or standards-based wireless protocols. RAIL is
designed to simplify and shorten the development process. Developers
no longer have to deal with hundreds of registers across
multiple products, but can instead rely on a unified software API.
RAIL, delivered through the Silicon Labs Flex SDK (Software Development
Kit), also makes applications portable across Silicon
Labs wireless products. RAILtest, included with the Flex SDK,
supports lab evaluation as well as application development. | rtdocs\docs.silabs.com\rail\2.9\index.html |
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d1e166f86e65-0 | RS9116 Wi-Fi/Bluetooth Solutions
RS9116 wireless connectivity products are a family of SoC's and modules providing comprehensive 2.4/5 GHz Wi-Fi and dual-mode Bluetooth 5 wireless connectivity. The product family is divided into two basic types depending on the type of host processor used.
RS9116W-based products are used with an embedded host microprocessor (MCU) together with WiSeConnect™ drivers.
RS9116N-based products are used with a Linux application processor together with n-Link™ drivers.
Product pages for the RS9116 provide features and specifications for various RS9116 SoCs and modules.
RS9116W - WiSeConnect™
WiSeConnect™ offers a full network offload option for embedded systems with low-end host microcontrollers running an RTOS or bare metal OS. The RS9116W connects to a host MCU using UART, SPI or SDIO interfaces. A complete set of wireless, networking and security stacks run on the RS9116W device, however the networking stack can be bypassed if required. Communication with the host MCU is achieved with AT Commands, or alternately a simple binary API referred to as SAPI. Embedded products provide greater than 20 Mbps Wi-Fi application throughput with multiple operating modes including Wi-Fi Client, Wi-Fi Access Point, Simultaneous Wi-Fi Client & Access Point and Dual-mode Bluetooth.
Read WiSeConnect™ Documentation
Download the latest WiSeConnect™ Software Driver Package
RS9116N - n-Link™ | rtdocs\docs.silabs.com\rs9116\latest\index.html |
d1e166f86e65-1 | Download the latest WiSeConnect™ Software Driver Package
RS9116N - n-Link™
n-Link™ offers low-level Wi-Fi and Bluetooth connectivity for systems that have a higher-end 32-bit applications processor running a Linux-based operating system. The RS9116N interfaces to a processor using SDIO or USB host interfaces, with the networking and wireless stacks/profiles running on the applications processor. n-Link™ provides up to 50 Mbps Wi-Fi application throughput with multiple operating modes including Wi-Fi Client, Wi-Fi Access Point, Simultaneous Wi-Fi Client & Access Point, and Dual-mode Bluetooth.
Read n-Link™ Documentation
Download the latest n-Link™ Open Source Driver
Download the legacy n-Link™ Proprietary Driver | rtdocs\docs.silabs.com\rs9116\latest\index.html |
28f242fd8293-0 | You are viewing documentation for version: 2.6 | Version History
RS9116W BLE AT Command PRM
About this Document
This document describes the Bluetooth Low Energy (BLE) commands; including the parameters used in commands, valid values for each command, and the expected responses from the RS911X Modules. This document is also used to write software for the Host MCU in order to control and operate the module. | rtdocs\docs.silabs.com\rs9116\wiseconnect\rs9116w-ble-at-command-prm\latest\index.html |
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