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Hello,  Here are some helpful steps to follow when working with the NXP GitHub SDK. Step1: Ensure the necessary toolchains are installed:  https://mcuxpresso.nxp.com/mcuxsdk/latest/html/gsd/repo.html  Additional notes and links: VS code: https://code.visualstudio.com/ MCUXpresso plugin: https://www.nxp.com/design/design-center/software/development-software/mcuxpresso-software-and-tools-/mcuxpresso-for-visual-studio-code:MCUXPRESSO-VSC Getting started with MCUXpresso for VS Code: https://www.nxp.com/design/design-center/training/TIP-GETTING-STARTED-WITH-MCUXPRESSO-FOR-VS-CODE   Step 2: Download and Install the SDK: GUI Method: - Open VS Code, navigate to Import Repository and select the Remote option as shown below: - Upon successful import, the repository will show up in the Imported Repositories window:    Command Line Method: - west commands: # Initialize west with the manifest repository west init -m https://github.com/nxp-mcuxpresso/mcuxsdk-manifests/ mcuxpresso-sdk # Update the west projects cd mcuxpresso-sdk west update More details:  https://mcuxpresso.nxp.com/mcuxsdk/latest/html/gsd/installation.html#get-mcuxpresso-sdk-repo  - import the local repository to VS code: Open VS Code, navigate to Import Repository and select the Local option and Browse.. to your local repo:   Step3: Run a Bluetooth LE Example Step3a: Run a Bluetooth LE Example using MCUXpresso for VS code - click Import Example from Repository from the QuickStart Panel - From the open dialog, select the MCUXpresso SDK, the Arm GNU toolchain, your target board, desired template, and application type, and proceed by clicking Import:   For the application type, you’ll typically see two options:  - Repository application  - Freestanding application. The key difference lies in where the project is imported. Repository applications are placed within the MCUXpresso SDK directory, while Freestanding applications can be imported to a custom location defined by the user. - Next, VS Code will prompt you to verify trust for the imported files—click Yes. Navigate to the PROJECTS view. - Identify your project, right click and select the Prestine Build icon to begin building:  - details of the build are into the terminal window: - using Debug button will allow you to download and debug the software:   (useful link: https://mcuxpresso.nxp.com/mcuxsdk/latest/html/gsd/run_a_demo_using_mcuxvsc.html ) Step3b: Run a Bluetooth LE Example using IAR Embedded Workbench for ARM: - use the west list_projects command to list the supported example for boards and the corresponding toolchain: Example to list Bluetooth examples:  west list_project -p .\examples\wireless_examples\bluetooth\ or if you know the platform or/and the project you can use: west list_project -b kw45b41zevk -p .\examples\wireless_examples\bluetooth\w_uart  west list_project -b frdmmcxw23 -p .\examples\wireless_examples\bluetooth\w_uart   Once you've confirmed that the project is available for the IAR toolchain, run the appropriate command to build it: west build -p always examples/wireless_examples/bluetooth/w_uart/freertos --toolchain iar --config debug -b kw45b41zevk The build folder will contain the generated output:   To work with IDE add  -t guiproject in the west command: west build -p always examples/wireless_examples/bluetooth/w_uart/freertos --toolchain iar --config debug -b kw45b41zevk -t guiproject --pristine --build-dir=build/w_uart_freertos_kw45    The result of the build will indicate the path to the *.eww/*.ewp:   (additional details: https://mcuxpresso.nxp.com/mcuxsdk/latest/html/gsd/run_project.html )   Step4: Create a standalone example With the freestanding project approach, only the application code is included in the export folder. Other essential files remain linked to the repository. To generate a complete standalone project, the recommended method is using West by adding -t standalone_project option. Example of command for kw45b41zevk, IAR toolchain: west build -b kw45b41zevk ./examples/wireless_examples/bluetooth/w_uart/freertos -p always --toolchain iar --config debug -t standalone_project -d c:\work\w_uart_kw45  The result of the build will indicate the path to the *.eww/*.ewp:   Example of command for kw45b41zevk, armgcc toolchain: west build -b kw45b41zevk ./examples/wireless_examples/bluetooth/w_uart/freertos -p always --toolchain armgcc --config debug -t standalone_project -d c:\work\w_uart_KW45_armgcc The result of the build will indicate the path to the project that need to be imported in VsCode: Regards, Ovidiu  
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Introduction: Bluetooth Low Energy offers the ability to broadcast data in format of non-connectable advertising packets while not being in a connection. This GAP Advertisement is widely known as a beacon.   In this post we will explore some of the features of the beacon_freertos example included in the SDK package of the KW45B41Z Evaluation Kit for MCUXpresso, for updating a counter every 5 seconds and broadcasting its value with the beacon, so the user can see it using the IoT Toolbox application.    Setup: 1 – SDK installation Download the latest version of the KW45B41Z-EVK SDK package from MCUXpresso SDK Builder Drag and drop the SDK zip file into the Installed SDKs window:   2 – Importing the project In the QuickStart Panel, click on Import SDK example From wireless_examples, select beacon_freertos. It is recommended to select UART for Debug Console when using BLE projects.  Click on finish   App Customization  1 – app_preinclude.h file: Set the following definitions to "0" in order to disable Extended Advertising and Low Power functionality.   2 – app_advertiser.h file: Add these aux prototypes that will allow to get and set the value of some flags.   /*Functions for data exchanging with beacon application*/ bool_t GetBleAppStarted(void); bool_t GetmAdvertisingOn(void); void SetmAdvertisingOn(bool_t value);   3 – app_advertiser.c file: Include fsl_component_timer_manager.h Add the macro UPDATE_BEACON_TIMER (5) to set the update timer to 5 seconds Create a timer ID by using TIMER_MANAGER_HANDLE_DEFINE Declare the callback for the timer Declare and define the "flag" BleAppStarted Include extern variable gAppAdvertisingData   Define the aux functions that will allow to get and set the value of BleAppStarted and mAdvertisingOn flags.   Define the timer callback, which will add the value of the counter into "A" field of the Beacon packet. #include "fsl_component_timer_manager.h" #define UPDATE_BEACON_TIMER (5) //in seconds /*Create timer ID*/ static TIMER_MANAGER_HANDLE_DEFINE(BeaconUpdateDataTimerID); /*Callback prototype*/ static void UpdateBeaconTimerCallback(void * pParam); /*Define the variables*/ static bool_t BleAppStarted = FALSE; static bool_t mAdvertisingOn = FALSE; /*Declare variable as external*/ extern gapAdvertisingData_t gAppAdvertisingData; /*Define functions for data echange*/ bool_t GetBleAppStarted(void) { return BleAppStarted; } bool_t GetmAdvertisingOn(void) { return mAdvertisingOn; } void SetmAdvertisingOn(bool_t value) { mAdvertisingOn = value; } /*define the timer callback*/ static void UpdateBeaconTimerCallback(void * pParam) { /*Value that will be advertised*/ static int32_t count = 1; /* Stop ADV and handle the update on the callbacks*/ Gap_StopAdvertising(); mAdvertisingOn = !mAdvertisingOn; /* On ADV data 0-1 = company ID, 2 = Beacon ID, 3 -18 = UUID, /* 19-20: A Data, 21-22: B Data, 23-24: C Data */ gAppAdvertisingData.aAdStructures[1].aData[19] = (uint8_t)((count >> 8) & 0xFF); gAppAdvertisingData.aAdStructures[1].aData[20] = (uint8_t)(count & 0xFF); count++; }   Inside App_AdvertiserHandler function, gAdvertisingParametersSetupComplete_c event is triggered when the advertising parameters setup is complete. Here, Advertising Data is set, and we are going to use this event to start the timer. Once the Advertising Data Setup is complete, we are going to use gAdvertisingDataSetupComplete_c event in App_AdvertiserHandler function to start advertising and update the timer. Every time the Data Setup is complete, the timer will start again.  case gAdvertisingParametersSetupComplete_c: { (void)Gap_SetAdvertisingData(mpAdvParams->pGapAdvData, mpAdvParams->pScanResponseData); if (!BleAppStarted) { BleAppStarted = TRUE; /*Allocate timer*/ (void) TM_Open(BeaconUpdateDataTimerID); /* Start data update timer */ (void) TM_InstallCallback((timer_handle_t) BeaconUpdateDataTimerID, UpdateBeaconTimerCallback, NULL); (void) TM_Start((timer_handle_t) BeaconUpdateDataTimerID, (uint8_t) kTimerModeSingleShot | (uint8_t) kTimerModeLowPowerTimer, TmSecondsToMilliseconds(UPDATE_BEACON_TIMER)); } } break; case gAdvertisingDataSetupComplete_c: { (void) Gap_StartAdvertising(App_AdvertisingCallback, App_ConnectionCallback); /* Start data update timer */ (void) TM_InstallCallback((timer_handle_t) BeaconUpdateDataTimerID, UpdateBeaconTimerCallback, NULL); (void) TM_Start((timer_handle_t) BeaconUpdateDataTimerID, (uint8_t) kTimerModeSingleShot | (uint8_t) kTimerModeLowPowerTimer, TmSecondsToMilliseconds(UPDATE_BEACON_TIMER)); } break;   4 – beacon.c file:  Wrap the mAppExtAdvParams structure inside gBeaconAE_c definition macro to avoid problems with the declaration of the extended advertising parameters  #if defined(gBeaconAE_c) && (gBeaconAE_c) static appExtAdvertisingParams_t mAppExtAdvParams = { &gExtAdvParams, &gAppExtAdvertisingData, NULL, mBeaconExtHandleId_c, gBleExtAdvNoDuration_c, gBleExtAdvNoMaxEvents_c }; #endif /*gBeaconAE_c */   BleApp_AdvertisingCallback handles BLE Advertising callback from the host stack. Every time advertising state changes, we are going to update Advertising Data when the device is not advertising and BleApp has already started. Replace the existing content of gAdvertisingStateChanged_c event.  case gAdvertisingStateChanged_c: { /* update ADV data when is disabled */ if((!GetmAdvertisingOn()) && GetBleAppStarted()) { Gap_SetAdvertisingData(&gAppAdvertisingData, NULL); SetmAdvertisingOn(true); } if(GetmAdvertisingOn()) { Led1On(); } else { Led1Off(); #if defined(gBeaconAE_c) && (gBeaconAE_c) if(mAppTargetState == mAppState_ExtAdv_c) { if (gBleSuccess_c != BluetoothLEHost_StartExtAdvertising(&mAppExtAdvParams, BleApp_AdvertisingCallback, NULL)) { panic(0, 0, 0, 0); } } #endif } } break;   Testing the application: The IoT Toolbox is an all-in-one application that demonstrates NXP’s BLE functionalities, the implementation of BLE and custom profiles and the compatibility with different smartphones. This mobile application can be downloaded from the App Store and Google Play Store.  Please, refer to the IoT Toolbox Mobile Application User Manual for more information on features, requirements and how to install the application.  Select Beacons  Press scan Press the USERINTERFACE Button (carrier board) to start advertising  In the IoT Toolbox app, you should be able to see the counter increasing its value every 5 seconds in the field "A"
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The RW61x series is a highly integrated, low-power tri-radio wireless MCU with an integrated MCU and Wi-Fi ®  6 + Bluetooth ®  Low Energy (LE) 5.4 / 802.15.4 radios designed for a broad array of applications, including connected smart home devices, enterprise and industrial automation, smart accessories and smart energy. The RW61x series MCU subsystem includes a 260 MHz Arm ®  Cortex ® -M33 core with Trustzone ™ -M, 1.2 MB on-chip SRAM and a high-bandwidth Quad SPI interface with an on-the-fly decryption engine for securely accessing off-chip XIP flash. The RW61x series includes a full-featured 1x1 dual-band (2.4 GHz/5 GHz) 20 MHz Wi-Fi 6 (802.11ax) subsystem bringing higher throughput, better network efficiency, lower latency and improved range over previous generation Wi-Fi standards. The Bluetooth LE radio supports 2 Mbit/s high-speed data rate, long range and extended advertising. The on-chip 802.15.4 radio can support the latest Thread mesh networking protocol. In addition, the RW612 can support Matter over Wi-Fi or Matter over Thread offering a common, interoperable application layer across ecosystems and products. NXP RW61x Block Diagram Documents RW610 Datasheet: RW610 Datasheet RW612 Datasheet: RW612 Datasheet RW61x User Manual: UM11865: RW61x User Manual RW61x Register Manual: RM00278: RX16x Registers     RW61x Modules Azurewave: RW612 - AW-CU570is a highly integrated, low-power tri-radio Wireless RW612 MCU with an integrated MCU and Wi-Fi 6 + Bluetooth Low Energy (LE) 5.2 / 802.15.4 radios designed for a broad array of applications. RW610 - AW-CU598 is a highly integrated, low-power tri-radio Wireless RW610 MCU with an integrated MCU and Wi-Fi 6 + Bluetooth Low Energy (LE) 5.3 radios designed for a broad array of applications U-blox: RW612 - IRIS-W10 Series are small, stand-alone, dual-band Wi-Fi and Bluetooth Low Energy wireless microcontroller unit (MCU) modules. The modules are ideal for users looking to add advanced wireless connectivity to their end products. RW610 - IRIS-W16 Series are small, stand-alone, dual-band Wi-Fi and Bluetooth Low Energy wireless modules, with everything needed for integration into end-products. The modules are ideal for users looking to add advanced wireless connectivity to their end products.  Murata: RW612 - LBES0ZZ2FR-580 Murata’s Type 2FR is a small and very high-performance module based on NXP RW612 combo chipset, supporting IEEE 802.11a/b/g/n/ac/ax + Bluetooth LE 5.4 / IEEE 802.15.4. RW610 - LBES0ZZ2FP-580 Type 2FR/2FP is a family of small and highly integrated multi-radio modules with built-in high-performance MCU with advanced security features for connected smart devices in smart homes, enterprise and industrial automation, smart accessories, and smart energy. It supports the latest Matter smart home connectivity protocol. California Eastern Laboratories (CEL): RW612 - CMP4612 is a fully integrated Dual-Band, Tri-mode (Wi-Fi 6, BT5.4, 802.15.4) radio, that includes a host MCU, Flash, RAM, peripherals, and numerous interfaces (SDIO, UART, USB, Ethernet. SPI, I2C) to support both HOSTLESS (RTOS) and HOSTED (NCP mode) architectures. CEL's solution includes either an on-board antenna or connector.   Evaluation boards  FRDM-RW612 FRDM-RW612 is a compact and scalable development board for rapid prototyping of the RW61x series of Wi-Fi 6 + Bluetooth Low Energy + 802.15.4 tri-radio wireless MCUs. It offers easy access to the MCU’s I/O's and peripherals, integrated open-standard serial interfaces, external flash memory and on-board MCU-Link debugger. FRDM-RW612 Getting Started Getting Started with FRDM-RW612 FRDM-RW612 User Manual: UM12160: FRDM-RW612 Board User Manual FRDM-RW612 Quick Start Guide FRDM-RW612 Quick Start Guide Current Measurement configuration: Remove the 0-ohms resistor R103 Solder a couple of pins in JP5. When trying to measure the RW61x current consumption, connect your current meter using the pins in JP5. When using the FRDM board in normal operation, connect a jumper to the pins in JP5.   u-blox   USB-IRIS-W1 The USB-IRIS-W1 development platform is built on the dual-band Wi-Fi 6 and Bluetooth LE module IRIS-W1, based on the NXP RW610/612 chip. The board is designed with a USB interface to simplify evaluation and prototyping directly from a PC. In addition to the IRIS-W1 module with integrated antenna, it also integrates four buttons, an RGB LED, and a USB/UART converter, to further support an easy evaluation. u-blox   EVK-IRIS-W1 The EVK-IRIS-W1 evaluation kit provides stand-alone use of the IRIS-W1 module series featuring the NXP RW610/612 chipset. Azurewave    AW-CU570-EVB Evaluation board for AW-CU570 module includes wireless MCU with Integrated Tri-radio Wi-Fi 6 + Bluetooth Low Energy 5.3 /802.15.4. Murata   2FR EVK Evaluation kit for Murata Type 2FR module (Murata part number LBES0ZZ2FR) includes 3 radios: Wi-Fi, BLE and 802.15.4. It is based on NXP’s RW612 chip. California Eastern Laboratories (CEL) CMP4612-2-EVB The CMP4612 Evaluation Board (CMP4612-2-EVB), based on the NXP RW612 chipset, features dual-band Wi-Fi 6, BLE 5.4 and 802.15.4 radios. The CMP4612 Evaluation Board includes an onboard Ethernet port and PHY hardware as well as an Arduino header, MCULink SWD, and USB ports. This board is designed to facilitate a seamless and efficient evaluation process for customers wanting a certified module for their end product.   Application Notes RM00287: Wi-Fi Driver API for SDK 2.16.100     The radio driver source code provides APIs to send and receive packets over the radio interfaces by communicating with the firmware images. This manual provides the reference documentation for the Wi-Fi driver and Wi-Fi Connection Manager.  UM12133: NXP NCP Application Guide for RW612 with MCU Host - User manual     This user manual describes: • The NXP NCP application for RW612 with MCU host platform i.MX RT1060 as example. • The hardware connections for one of the four supported interfaces to enable NCP mode on the NXP RW612 BGA V4 board (UART, USB, SDIO, or SPI). • The method to build and run the NCP applications on both the NCP host (i.MX RT1060) and the NCP device (RW612). The applications apply to Wi-Fi, Bluetooth Low Energy and OpenThread (OT)    UM12095:  NXP NCP Application Guide for RW612 with MPU Host - User manual      This user manual describes: • The NXP NCP application for RW612 with MPU host platform i.MX 8M Mini as example. • The hardware connections for one of the four supported interfaces to enable NCP mode on the NXP RW612 BGA V4 board (UART, USB, SDIO, or SPI). • The method to build and run the NCP applications on both the NCP host (i.MX 8M Mini) and the NCP device (RW612). The applications apply to Wi-Fi, Bluetooth Low Energy and OpenThread (OT).  AN14439: Migration Guide from FRDM-RW612 Board to Third-Party Module board This Application note provides an overview of what it means to migrate the application to a different board with different flash and pSRAM AN14111: Target Wake Time (TWT) on RW16x This application note describes the target wake time feature and provides examples for RW61X AN13006: Compliance and Certification Considerations This application note provides guidance and tips on how to test products on NXP Wi-Fi devices for regulatory compliance. AN13049: Wi-Fi/Bluetooth/802.15.4 M.2 Key E Pinout Definition This Application note defines M.2 usage for both NXP Wi-Fi/Bluetooth and Tri-Radio M.2 module design AN14489 – Wi-Fi Firmware Automatic Recovery on RW61x Describes Wi-Fi automatic recovery feature as well as how to enable and verify it on RW61x SDK. Security: AN14544 – EdgeLock 2GO Services for MPU and MCU This application note introduces various methods that the EdgeLock 2GO service can be used with MCU and MPU devices and the features available for each method. AN13813 – Secure Boot on RW61x Describes how to generate and run the secure boot (signed image) on RW61x. AN13814 – Debug Authentication on RW61x Describes the steps for debug authentication using the secure provisioning SDK tool. Community Support If you have questions regarding RW61x series, please leave your comments in our Wireless MCU Community! here    Training FRDM-RW612 Training Wi-Fi 6 Tri-Radio in a secure i.MX RT MCU RW61x Series Training - NXP Community   Equipment Wireless Equipment: This article provides the links to the wireless equipment to help you accelerate your project development Development Tools  SDK builder  The MCUXpresso SDK brings open-source drivers, middleware, and reference example application to speed your software development. NXP MCUXpresso MCUXpresso IDE offers advanced editing, compiling and debugging features with the addition of MCU-Specific debugging and supports connections with all general-purpose Arm Cortex-M.  VSCode MCUXpresso for Visual Studio Code (VS Code) provides an optimized embedded developer experience for code editing and development. Zephyr RTOS  The Zephyr OS is based on a small-footprint kernel designed for use on resource-constrained and embedded systems: from simple embedded environmental sensors and LED wearables to sophisticated embedded controllers, smart watches, and IoT wireless applications. NXP Application Code Hub Application Code Hub (ACH) repository enables engineers to easily find microcontroller software examples, code snippets, application software packs and demos developed by our in-house experts. This space provides a quick, easy and consistent way to find microcontroller applications. NXP SPSDK Is a unified, reliable, and easy to use Python SDK library working across the NXP MCU portfolio providing a strong foundation from quick customer prototyping up to production deployment. NXP SEC Tool The MCUXpresso Secure Provisioning Tool us a GUI-based application provided to simplify generation and provisioning of bootable executables on NCP MCU devices. NXP OTAP Tool Is an application that helps the user to perform an over the air firmware update of an NXP development board. SDK Examples for Wireless MCUs The wireless examples feature many common connectivity configurations.   Useful Links     Bluetooth Specifications Bluetooth_5.0_Feature_Overview  Bluetooth_5.1_Feature_Overview  Bluetooth_5.2_Feature_Overview Bluetooth_5.3_Feature_Overview Bluetooth_5.4_Feature_Overview Bluetooth_6_Feature_Overview  
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KW45’s three-core architecture integrates a 96 MHz CM33 application core, dedicated CM3 radio core and an isolated EdgeLock Secure Enclave. The Flash-based radio core with dedicated SRAM delivers a highly configurable and upgradeable software-implemented radio, freeing resources on the main core for customer application space. The Bluetooth Low Energy 5.3-compliant radio supports up to 24 simultaneous secure connections. The EdgeLock Secure Enclave’s isolated execution environment provides a set of cryptographic accelerators, key store operations and secure lifecycle management that minimizes main core security responsibilities. The KW45 MCU additionally integrates FlexCAN, helping enable seamless integration into an automobile’s in-vehicle or industrial CAN communication network. The FlexCAN module can support CAN’s flexible data rate (CAN FD) for increased bandwidth and lower latency. KW45 Block Diagram KW45 Architecture Block Diagram Documents Reference Manual Datasheet Errata Secure Reference manual** Certifications SESIP Cert SESIP ST PSA Certification RED Certification EUROPEAN UNION DECLARATION OF CONFORMITY (EVK) EUROPEAN UNION DECLARATION OF CONFORMITY (LOC) Japan MIC KW45-LOC _TELEC-20250221 see attached below Bluetooth Specifications Bluetooth_5.0_Feature_Overview  Bluetooth_5.1_Feature_Overview  Bluetooth_5.2_Feature_Overview Bluetooth_5.3_Feature_Overview Bluetooth_5.4_Feature_Overview Bluetooth_6_Feature_Overview Evaluation boards KW45 KW45-EVK KW45-EVK Schematic KW45-EVK Design Files KW45-EVK User manual KW45-LOC User manual KW45-EVK Getting Started Application Notes Software, Hardware and Peripherals: AN14122 : How to use RTC on KW45 This application note describes how to configure and use the RTC peripheral in a BLE demo AN14141 : Enabling Watchdog Timer Module on KW45 Bluetooth Low Energy Connectivity Stack This application note describes the process to implement the WDOG timer in a Connectivity Stack demo. AN13855 : KW45/K32W1 Integrating the OTAP Client Service into a Bluetooth LE Peripheral Device This Application note provides the steps and process for integrating the Over the Air Programming Client Service into a BLE peripheral device. AN13584 : Kinetis KW45 and K32W1 Loadpull Report This application note describes measurement methodology and associated results on the load-pull characteristics. AN13860 : Creating Firmware Update Image for KW45/K32W1 using OTAP tool This application note provides the steps to create and upgrade the image on the KW45 board via OTAP. AN14077 : Steps to migrating KW45 (1MB) to KW45 (512kB) This application note describes the initial steps require to migrate from 1MB flash to 512kB flash. Power Management: AN13230: Kinetis KW45 and K32W1 Bluetooth LE Power Consumption Analysis This application note provides information about the power consumption of KW45 wireless MCUs, the hardware design and optimized for low power operation. AN13831: KW45/K32W1 Power Management Hardware This application note describes the usage of the different modules dedicated to power management in the KW45/K32W1 MCU. RF: AN13687 : K32W1 Connectivity test for 802.15.4 Application This application note describes how to use the connectivity test tool to perform K32W1 802.15.4 RF performance. AN13728 : KW45 RF System Evaluation Report for Bluetooth LE and IEEE 802.15.4 Applications This application note provides the radio frequency evaluation test results of the KW45 board for BLE (2FSK modulation) and for IEEE 802.15.4 (OQPSK modulation) applications. Also describes the setup and tools that can be used to perform the tests.  AN14098: KW45-LOC RF Test Report This application note provides basic RF test result of the KW45B41Z localization board.  AN13228 : KW45-EVK RF System Evaluation Report for BLE Applications This application note provides the RF evaluation test result of the KW45B41Z-EVK for BLE application using two frequency Shift Keying modulation. AN13229 : KW45-EVK Co-existence with RF System Evaluation Report for BLE application This application note provides the RF evaluation test results of the KW45B41Z-EVK for BLE application (2FSK modulation) AN13512 : Kinetis Wireless Family Products BLE Coexistence with Wi-Fi Application This application note provides the K32W1/4X low energy family products immunity on Wi-Fi signals and methods to improve coexistence with Wi-Fi  Security: AN13859 : KW45/K32W1 In-System Programming Utility This application note provides steps to boot KW45/K32W1 MCU in ISP mode and establish various serial connections to communicate with the MCU. AN1403 : Programming the KW45 Flash for Application and Radio Firmware via Serial Wire Debug during mass production This application note describes the steps to write, burn and programming all the necessary settings via SWD in mass production.  AN13883 : Updating KW45 Radio Firmware Via ISP Using SPSDK This application note provides steps to boot KW45/K32W1 MCU in ISP mode and update the radio firmware with secure binary. AN14109 : KW45 and K32W148 Secure  Boot Using the SEC Tool This application note provides steps to do secure boot KW45/K32W1 MCU using signed images and secure binaries on the SEC GUI tool. AN13838 :  KW45 and K32W148 Secure  Boot Using the SPSDK Command line Tool This application note provides steps to do secure boot KW45/K32W1 MCU using signed images and secure binaries on the SPSDK command line tool. AN13931 : Managing Lifecycles on KW45 and K32W148 This application note provides steps to do transition lifecycles KW45/K32W1 MCU using the SEC GUI and SPSDK command line tools.  AN14158: Debug Authentication on KW45/ K32W148 This application note describes how to do debug authentication to securely debug an application in the field.  AN14544 : EdgeLock 2GO Services for MPU and MCU This application note introduces the EL2GO services for NXP devices. This allows trust provisioning of the device in an untrusted environment.  AN14174: KW45/K32W1 Flash Encryption using NPXThis application note provides steps to do enable on-the-fly encryption on KW45/K32W1 MCU. AN14158: debug authentication on KW45/K32W148 This application note describes the steps for debug authentication using the Secure Provisioning SDK tool (SPSDK). Support If you have questions regarding KW45, please leave your question in our Wireless MCU Community! here   Useful Links Reference Designs - NXP Community [MCUXSDK] How to use GitHub SDK for KW4x, MCXW7x, MCXW2x - NXP Community this community post provides step by step how to use GitHub SDK [MCUXSDK] GitHub SDK - Documentation for Bluetooth LE platforms - NXP Community this community post provides the documentation for BLE platforms.  Clock Measuring using the Signal Frequency Analyzer (SFA) module for KW45/KW47/MCXW71/MCXW72 - NXP Community : this community provides the steps on how to use the Signal Frequency Analyzer  The best way to build a PCB first time right with KW45 (Automotive) or K32W1/MCXW71 (IoT/Industrial)... Community : In this community provides the important link to build a PCB using a KW45 or K32W148 and MCXW71 and all concerning the radio performances, low power and radio certification (CE/FCC/ICC) How to use the HCI_bb on Kinetis family products and get access to the DTM mode:  This article is presenting two parts: How to flash the HCI_bb binary into the Kinetis product. Perform RF measurement using the R&S CMW270 BLE HCI Application to set transmitter/receiver test commands: This article provides the steps to show how user could send serial commands to the device. Bluetooth LE HCI Black Box Quick Start Guide : This article describes a simple process for enabling the user controls the radio through serial commands. Kinetis (K32/38/KW45 & K32W1/MCXW71) Power Profile Tools:  This page is dedicated to the Kinetis (KW35/KW38/KW45) and MCX W7x (MCX W71) Power Profile Tools. It will help you to estimate the power consumption in your application (Automotive or IoT) and evaluate the battery lifetime of your solution. KW45/K32W1 32MHz & 32kHz Oscillation margins: this article provides the properly configuration for the Oscillation margins for the circuit. KW45/MCXW71 Changing Clocking peripherals from FRO6M to other clock sources:  This article provides a comprehensive guide to selecting and configuring alternative clock sources   Demo (video) KW45 Based CS 1 to Many Demo NXP - Channel Sounding   Training BLE Introduction  RF Switch Comparison Absorptive/Reflective Standards Comparison ETSI / FCC / ARIB requirements BLE Channel Sounding  - Overview BLE Channel Sounding - RF Hardware BLE Channel Sounding - ANSYS Modeling Tools  BLE Channel Sounding - Antenna Prototypes Validation Measurements     Equipment Wireless Equipment: This article provides the links to the Equipment that helps to the project development  Development Tools  SDK builder: The MCUXpresso SDK brings open-source drivers, middleware, and reference example application to speed your software development. SDK GitHub: SDK open-source Drivers, middleware and reference examples in Github NXP MCUXpresso: MCUXpresso IDE offers advanced editing, compiling and debugging features with the addition of MCU-Specific debugging. Supports connections with all general-purpose Arm Cortex-M.  NXP SPSDK: Is a unified, reliable, and easy to use Python SDK library working across the NXP MCU portfolio providing a strong foundation from quick customer prototyping up to production deployment. NXP SEC Tool: The MCUXpresso Secure Provisioning Tool us a GUI-based application provided to simplify generation and provisioning of bootable executables on NCP MCU devices. NXP OTAP Tool: Is an application that helps the user to perform an over the air firmware update of an NXP development board. Config Tool: MCUXpresso Config Tools, an integrated suite of configuration tools, these configuration tools allow developers to quickly build a custom SDK and leverage pins, clocks and peripheral to generate initialization C code or register values for custom board support. SDK Examples for Wireless MCUs: The wireless examples feature many common Bluetooth configurations. **For secure files is necessary to request additional access. 
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The QN9090 is a Bluetooth Low Energy device that achieves ultra-low-power consumption and integrates an Arm ® Cortex ® -M4 CPU with a comprehensive mix of analog and digital peripherals. If the developer is working with the Development platform for QN9090 wireless MCUs for the first time, it is recommended to follow the QN9090-DK Development kit Getting Started (this guide can be found in QN9090DK Documentation section). This Quick Start document provides an overview about the QN9090 DK and its software tools and lists the steps to install the hardware and the software. For this document, Temperature Sensor and Temperature Collector examples will be used to demonstrate the implementation of a custom profile (both examples can be found in the SDK). This article will explain how to add the Humidity Profile and how to modify the code to get the Humidity Sensor and Collector working.   Introduction   Generic Attribute Profile (GATT) GATT defines the way that profile and user data are exchanged between devices over a BLE connection. GATT deals with actual data transfer procedures and formats. All standard BLE profiles are based on GATT and must comply with it to operate correctly, making it a key section of the BLE specification since every single item of data relevant to applications and users must be formatted, packed and sent according to the rules. There are two GATT roles that define the devices exchanging data: GATT Server This device contains a GATT Database and stores the data transported over the Attribute Protocol (ATT). The Server accepts ATT requests, commands and confirmations sent by the Client; and it can be configured to send data on its own through notifications and indications. GATT Client This is the “active” device that accesses data on the remote GATT Server via read, write, notify, or indicate operations. Notify and indicate operations are enabled by the client but initiated by the server, providing a way to push data to the client. Notifications are unacknowledged, while indications are acknowledged. Notifications are therefore faster, but less reliable. GATT Database establishes a hierarchy to organize attributes and is a collection of Services and Characteristics exposing meaningful data. Profiles are high level definitions that define how Services can be used to enable an application; Services are collections of Characteristics. Descriptors define attributes that describe a characteristic value.   Server (Sensor)   The Temperature Sensor project will be used as base to create our Humidity Custom Profile Server (Sensor). BLE SIG profiles Some Profiles or Services are already defined in the specification, and we can verify this in the Bluetooth SIG profiles document. Also, we need to check in the ble_sig_defines.h files (${workspace_loc:/${ProjName}/bluetooth/host/interface}) if this is already declared in the code. In this case, the Service is not declared, but the Characteristic of the humidity is declared in the specification. Then, we need to check if the Characteristic is already included in ble_sig_defines.h. Since the characteristic is not included, we define it as shown: /*! Humidity Characteristic UUID */ #define gBleSig_Humidity_d                   0x2A6FU GATT Database The Humidity Sensor will act as GATT Server since it will be the device containing all the information for the GATT Client. Temperature Sensor demo already implements the Battery Service and Device Information, so we only have to change the Temperature Service to Humidity Service.   In order to create the demo, we need to define a Service that must be the same as in the GATT Client, this is declared in the gatt_uuid128.h. If the new service is not the same, Client and Server will not be able to communicate each other. All macros, functions or structures in the SDK have a common template which helps the application to act accordingly. Hence, we need to define this service in the gatt_uui128.h as shown next: /* Humidity */ UUID128(uuid_service_humidity, 0xfe, 0x34, 0x9b, 0x5f, 0x80, 0x00, 0x00, 0x80, 0x00, 0x10, 0x00, 0x02, 0x00, 0xfa, 0x10, 0x10) Units All the Services and Characteristics are declared in gatt_db.h. Descriptor are declared after the Characteristic Value declaration, but before the next Characteristic declaration. In this case the permission is the CharPresFormatDescriptor that have specific description by the standard. The Units for Humidity Characteristic is Percentage, defined in the Bluetooth SIG profiles document as 0x27AD. Descriptor Client Characteristic Configuration Descriptor (CCCD) is a descriptor where Clients write some of the bits to activate Server notifications and/or indications. PRIMARY_SERVICE_UUID128(service_humidity, uuid_service_humidity)        CHARACTERISTIC(char_humidity, gBleSig_Humidity_d, (gGattCharPropNotify_c))              VALUE(value_humidity, gBleSig_Humidity_d, (gPermissionNone_c), 2, 0x00, 0x25)              DESCRIPTOR(desc_humidity, gBleSig_CharPresFormatDescriptor_d, (gPermissionFlagReadable_c), 7, 0x0E, 0x00, 0xAD, 0x27, 0x00, 0x00, 0x00)              CCCD(cccd_humidity) Humidity service and interface Create a folder named “humidity” in path ${workspace_loc:/${ProjName}/bluetooth/profiles}. In the same path you can find the “temperature” folder; copy the temperature_service.c file and paste it inside the “humidity” folder with another name (humidity_service.c). After this, go back to the “temperature” folder and copy the temperature_interface.h file; paste it inside the “humidity” folder and rename it (humidity_interface.h). You will need to include the path of the created folder. Go to Project properties > C/C++ Build > Settings > Tool Settings > MCU C Compiler > Includes: Humidity Interface The humidity_interface.h file should include the following code, where the Service structure contains the Service handle and the initialization value: /*! Humidity Service - Configuration */ typedef struct humsConfig_tag {        uint16_t serviceHandle;        int16_t initialHumidity; } humsConfig_t; /*! Humidity Client - Configuration */ typedef struct humcConfig_tag {        uint16_t hService;        uint16_t hHumidity;        uint16_t hHumCccd;        uint16_t hHumDesc;        gattDbCharPresFormat_t humFormat; } humcConfig_t; Humidity service At minimum, humidity_service.c file must contain the following code: /*! Humidity Service - Subscribed Client*/ static deviceId_t mHums_SubscribedClientId; The Service stores the device identification for the connected client. This value is changed on subscription and non-subscription events. Initialization Initialization of the Service is made by calling the start procedure. This function is usually called when the application is initialized. In this case, this is done in the BleApp_Config() function. bleResult_t Hums_Start(humsConfig_t *pServiceConfig) {     mHums_SubscribedClientId = gInvalidDeviceId_c;     /* Set the initial value of the humidity characteristic */     return Hums_RecordHumidityMeasurement(pServiceConfig->serviceHandle,                                             pServiceConfig->initialHumidity); } Stop & Unsubscribe On stop function, the unsubscribe function is called. bleResult_t Hums_Stop(humsConfig_t *pServiceConfig) {     /* Stop functionality by unsubscribing */     return Hums_Unsubscribe(); } bleResult_t Hums_Unsubscribe(void) {     /* Unsubscribe by invalidating the client ID */     mHums_SubscribedClientId = gInvalidDeviceId_c;     return gBleSuccess_c; } Subscribe The subscribe function will be used in the main file to subscribe the GATT client to the Humidity Service. bleResult_t Hums_Subscribe(deviceId_t clientDeviceId) {     /* Subscribe by saving the client ID */     mHums_SubscribedClientId = clientDeviceId;     return gBleSuccess_c; } Record Humidity Depending on the complexity of the Service, the API will implement additional functions. For the Humidity Sensor will only have one Characteristic. The measurement will be saved on the GATT Database and send the notification to the Client. This function will need the Service handle and the new value as input parameters. bleResult_t Hums_RecordHumidityMeasurement(uint16_t serviceHandle, int16_t humidity) {        uint16_t handle;        bleResult_t result;        bleUuid_t uuid = Uuid16(gBleSig_Humidity_d);        /* Get handle of Humidity characteristic */        result = GattDb_FindCharValueHandleInService(serviceHandle,                      gBleUuidType16_c, &uuid, &handle);        if (result == gBleSuccess_c)        {              /* Update characteristic value */              result = GattDb_WriteAttribute(handle, sizeof(uint16_t), (uint8_t *)&humidity);              if (result == gBleSuccess_c)              {                     /* Notify the humidity value */                     Hts_SendHumidityMeasurementNotification(handle);              }        }        return result; } Remember to add/update the prototype for Initialization, Subscribe, Unsubscribe, Stop and Record Humidity Measurement functions in humidity_interface.h. Send notification After saving the measurement on the GATT Database by using the GattDb_WriteAttribute function, we can send the notification. To send this notification, first we have to get the CCCD and check if the notification is active after that; if it is active, then we send the notification. static void Hts_SendHumidityMeasurementNotification (              uint16_t handle ) {        uint16_t hCccd;        bool_t isNotificationActive;        /* Get handle of CCCD */        if (GattDb_FindCccdHandleForCharValueHandle(handle, &hCccd)                     != gBleSuccess_c)              return;        if (gBleSuccess_c == Gap_CheckNotificationStatus                     (mHums_SubscribedClientId, hCccd, &isNotificationActive) &&                     TRUE == isNotificationActive)        {              GattServer_SendNotification(mHums_SubscribedClientId, handle);        } } Remember to add or modify the prototype for Send Humidity Measurement Notification function.   Main file There are some modifications that need to be done in the Sensor main file: Add humidity_interface.h in main file /* Profile / Services */ #include "humidity_interface.h" Declare humidity service There are some modifications that have to be done in order to use the new Humidity Profile in the Sensor example. First, we need to declare the Humidity Service: static humsConfig_t humsServiceConfig = {(uint16_t)service_humidity, 0};   Rename BleApp_SendTemperature -> BleApp_SendHumidity static void BleApp_SendHumidity(void); After this, we need to add or modify the following functions and events: Modify BleApp_Start /* Device is connected, send humidity value */        BleApp_SendHumidity();   Ble_AppConfig Start Humidity Service and modify the Serial_Print line. /* Start services */ humsServiceConfig.initialHumidity = 0; (void)Hums_Start(&humsServiceConfig); (void)Serial_Print(gAppSerMgrIf, "\n\rHumidity sensor -> Press switch to start advertising.\n\r", gAllowToBlock_d);   BleApp_ConnectionCallback events - Event: gConnEvtConnected_c (void)Hums_Subscribe(peerDeviceId);   - Event: gConnEvtDisconnected_c (void)Hums_Unsubscribe();   Notify value in BleApp_GattServerCallback function /* Notify the humidity value when CCCD is written */ BleApp_SendHumidity(); Add the Hums_RecordHumidityMeasurement function and modify the initial value update in BleApp_SendHumidity function /* Update with initial humidity */ (void)Hums_RecordHumidityMeasurement((uint16_t)service_humidity,                                            (int16_t)(BOARD_GetTemperature())); Note: in this example, the Record Humidity uses the BOARD_GetTemperature to allow the developer to use the example without any external sensor and to be able to see a change in the collector, but in this section, there should be a GetHumidity function.   app_config.c file There are some modifications that need to be done inside app_config.c file: Modify Scanning and Advertising Data {     .length = NumberOfElements(uuid_service_humidity) + 1,     .adType = gAdComplete128bitServiceList_c,     .aData = (uint8_t *)uuid_service_humidity }   *Optional* Modify name {     .adType = gAdShortenedLocalName_c,     .length = 9,     .aData = (uint8_t*)"NXP_HUM" }   Modify Service Security Requirements {     .requirements = {         .securityModeLevel = gSecurityMode_1_Level_3_c,         .authorization = FALSE,         .minimumEncryptionKeySize = gDefaultEncryptionKeySize_d     },     .serviceHandle = (uint16_t)service_humidity }   Client (Collector)   We will use the Temperature Collector project as base to create our Humidity Custom Profile Client (Collector). BLE SIG profiles As mentioned in the Server section, we need to verify if the Profile or Service is already defined in the specification. For this, we can take a look at the Bluetooth SIG profiles document and check in the ble_sig_defines.h file (${workspace_loc:/${ProjName}/bluetooth/host/interface}) if this is already declared in the code. In our case, the Service is not declared, but the Characteristic of the Humidity is declared in the specification. Then, we need to check if the Characteristic is already included in ble_sig_defines.h. Since the Characteristic is not included, we need to define it as shown: /*! Humidity Characteristic UUID */ #define gBleSig_Humidity_d                    0x2A6FU GATT Database The Humidity Collector is going to have the GATT client; this is the device that will receive all new information from the GATT Server. The demo provided in this article works in the same way as the Temperature Collector. When the Collector enables the notifications from the Sensor, received notifications will be printed in the seral terminal. In order to create the demo, we need to define or develop a Service that must be the same as in the GATT Server, this is declared in the gatt_uuid128.h file. If the new Service is no the same, Client and Server will not be able to communicate each other. All macros, functions or structures in the SDK have a common template which helps the application to act accordingly. Hence, we need to define this service in the gatt_uui128.h as shown next: /* Humidity */ UUID128(uuid_service_humidity, 0xfe, 0x34, 0x9b, 0x5f, 0x80, 0x00, 0x00, 0x80, 0x00, 0x10, 0x00, 0x02, 0x00, 0xfa, 0x10, 0x10) Includes After that, copy the humidity profile folder from the Sensor project and paste it into the Collector project inside ${workspace_loc:/${ProjName}/bluetooth/profiles}. Also, include the path of the new folder.   Main file In the Collector main file, we need to do some modifications to use the Humidity Profile Include humidity_interface.h /* Profile / Services */ #include "humidity_interface.h"   Modify the Custom Info of the Peer device humcConfig_t     humsClientConfig;   Modify BleApp_StoreServiceHandles function static void BleApp_StoreServiceHandles {     APP_DBG_LOG("");     uint8_t i,j;     if ((pService->uuidType == gBleUuidType128_c) &&              FLib_MemCmp(pService->uuid.uuid128, uuid_service_humidity, 16))     {         /* Found Humidity Service */        mPeerInformation.customInfo.humsClientConfig.hService = pService->startHandle;         for (i = 0; i < pService->cNumCharacteristics; i++)         {             if ((pService->aCharacteristics[i].value.uuidType == gBleUuidType16_c) &&                     (pService->aCharacteristics[i].value.uuid.uuid16 == gBleSig_Humidity_d))             {                 /* Found Humidity Char */             mPeerInformation.customInfo.humsClientConfig.hHumidity = pService->aCharacteristics[i].value.handle;                 for (j = 0; j < pService->aCharacteristics[i].cNumDescriptors; j++)                 {                     if (pService->aCharacteristics[i].aDescriptors[j].uuidType == gBleUuidType16_c)                     {                         switch (pService->aCharacteristics[i].aDescriptors[j].uuid.uuid16)                         {                             /* Found Humidity Char Presentation Format Descriptor */                             case gBleSig_CharPresFormatDescriptor_d:                             {                                 mPeerInformation.customInfo.humsClientConfig.hHumDesc = pService->aCharacteristics[i].aDescriptors[j].handle;                                 break;                             }                             /* Found Humidity Char CCCD */                             case gBleSig_CCCD_d:                             {                                 mPeerInformation.customInfo.humsClientConfig.hHumCccd = pService->aCharacteristics[i].aDescriptors[j].handle;                                 break;                             }                             default:                                 ; /* No action required */                                 break;                         }                     }                 }             }         }     } }   Modify BleApp_StoreDescValues function if (pDesc->handle == mPeerInformation.customInfo.humsClientConfig.hHumDesc) {        /* Store Humidity format*/        FLib_MemCpy(&mPeerInformation.customInfo.humsClientConfig.humFormat,                     pDesc->paValue,                     pDesc->valueLength); }   Implement BleApp_PrintHumidity function static void BleApp_PrintHumidity (     uint16_t humidity ) {     APP_DBG_LOG("");     shell_write("Humidity: ");     shell_writeDec((uint32_t)humidity);     /* Add '%' for Percentage - UUID 0x27AD.        www.bluetooth.com/specifications/assigned-numbers/units */     if (mPeerInformation.customInfo.humsClientConfig.humFormat.unitUuid16 == 0x27ADU)     {         shell_write(" %\r\n");     }     else     {         shell_write("\r\n");     } }   Modify BleApp_GattNotificationCallback function if (characteristicValueHandle == mPeerInformation.customInfo.humsClientConfig.hHumidity) { BleApp_PrintHumidity(Utils_ExtractTwoByteValue(aValue)); }   Modify CheckScanEvent function foundMatch = MatchDataInAdvElementList(&adElement, &uuid_service_humidity, 16);   Some events inside BleApp_StateMachineHandler need to be modified: BleApp_StateMachineHandler - Event: mAppIdle_c if (mPeerInformation.customInfo.humsClientConfig.hHumidity != gGattDbInvalidHandle_d)   - Event: mAppServiceDisc_c if (mPeerInformation.customInfo.humsClientConfig.hHumDesc != 0U)  mpCharProcBuffer->handle = mPeerInformation.customInfo.humsClientConfig.hHumDesc;   - Event: mAppReadDescriptor_c if (mPeerInformation.customInfo.humsClientConfig.hHumCccd != 0U)   Modify BleApp_ConfigureNotifications function mpCharProcBuffer->handle = mPeerInformation.customInfo.humsClientConfig.hHumCccd;   Demonstration   In order to print the relevant data in console, it may be necessary to disable Power Down mode in app_preinclude.h file. This file can be found inside source folder. For this, cPWR_UsePowerDownMode and cPWR_FullPowerDownMode should be set to 0. Now, after connection, every time that you press the User Interface Button on QN9090 Humidity Sensor is going to send the value to QN9090 Humidity Collector. Humidity Sensor   Humidity Collector  
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The border router device provides connectivity of the nodes in the Thread network with the possibility to connect to the networks as the www. Requirements Hardware K32W/JN5189 DK6 Board Udoo Neo Ethernet Cable Software MCUXpresso IDE v11.4.1 o newer. SDK 2.6.4. https://mcuxpresso.nxp.com/en/dashboard DK6 Production Flash Programmer Tool udoo_neo_os_nxp.img Docker Image Software Set up 1. Flash udoo_neo_os_nxp.img on an SD card using a tool. You could use any tool to flash the image, make sure that the SD card is correctly formatted. 2. Flash the ot-rcp.bin file on the USB Dongle(K32W/JN5189),  included in the SDK. \K32W061DK6\middleware\wireless\openthread\openthread\output\k32w061\bin DK6Programmer.exe -V5 -s COM2 -p ot-rcp.bin Running OpenThread BorderRouter You have connected your Udoo Neo board to an Ethernet cable, just open a new terminal to be sure that you have a connection. You could type the ping 8.8.8.8 command. If you do not have the IPV4, you could access connection your board to your computer and use the USB IP. After that, you could open a browser and enter to the Udoo Neo page using the USB IP. You could use the different address for creating a SSH connection.   Install Docker Copy the Docker image and Bash scripts to the Udoo Board; Install docker; curl -sSl https://get.docker.com | sh; The command will take some time   Verify the Docker images was successfully loaded Launch a Docker container   In this case, the UDOO NEO Extended doesn't have an Ethernet port, so, there is a USB converter to Ethernet. The OpenThread Example requires an IPV6 address sudo ./run_br_container.sh; Note: You have to have Ethernet Connection because the OpenThread requires IPV6. Be sure that the file has the execute permissions. The image below shows the process of the container. You cannot use this terminal, as this is a running Docker instance. It will output logs from the wpantund while it’s running.   Open a new terminal and look at for the container ID     After that, open a browser and search the IPV4 of your UDOO Neo, and you will find an OpenThread web page.     On the left side, select the option form, and a new page will be displayed for the network creation. Then you can ask for the wpanctl status, it will show all the Thread information, the address, the channel of the network, etc. sudo wpanctl status sudo wpanctl getprop Thread:OnMeshPrefixes Node A In the same UDOO terminal, start the border router internal commissioner and allow that a Thread node with the preshared key could join in this network. sudo wpanctl commissioner start; sudo wpanctl commissioner joiner-add “*” 120 J01NME; Node B Flash another JN5189/K32W using the REED example and type the next command for enabling and join to a Thread Network. \K32W061DK6\boards\k32w061dk6\wireless_examples\openthread\reed ifconfig up joiner start J01NME After the joining process is complete, type the next command to attach to the border router. thread start Look at the image below, you will notice the Node B Commands.   Ping the external internet 64:ff9b::808:808 to be sure that you have access to the internet.   For a better reference please look at the OpenThread Demo Applications User Guide included in your SDK documentation. "\K32W061DK6\docs\wireless\OpenThread" 11 Chapter Running Border Router Application Scenarios   Regards, Mario    
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The High Power board design files can be found on the JN5189 product webpage, in the JN-RD-6054-JN5189 Design Files. More precisely, the reference manual and the design files are attached to this article (OM15072-2_MOD_EXT_AMP_QFN40_PCB2467-2.0.zip and JN-RM-2078-JN5189-Module-Development_1V4.pdf) Some guidance is available here. The RF performances are presented in the attached test report (powerpoint file). The FCC/IC Certificates or Declarations of conformity are in the article "Certificates/Declarations of conformity (nxp community)".  
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The radio certification has been performed on JN5189, QN9090 and K32W products. The certificates or declaration of conformity are available in attached files.   And click here to know more on the best way to build a PCB the first time right with K32W061, QN9090 or JN5189 ! 
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This example of custom profile uses the Temperature Sensor and Temperature Collector examples as a base, so it can be easily modified. Both examples are in the SDK, so this document explains how to add the Humidity profile, and how to modify the code to get the Humidity Sensor and Collector working. Introduction Generic Attribute Profile (GATT) establishes in detail how to exchange all profile and user data over a BLE connection. GATT deals only with actual data transfer procedures and formats. All standard BLE profiles are based on GATT and must comply with it to operate correctly. This makes GATT a key section of the BLE specification, because every single item of data relevant to applications and users must be formatted, packed, and sent according to the rules. GATT defines two roles: Server and Client. The GATT server stores the data transported over the Attribute Protocol (ATT) and accepts Attribute Protocol requests, commands and confirmations from the GATT client. The GATT client accesses data on the remote GATT server via read, write, notify, or indicate operations. Notify and indicate operations are enabled by the client but initiated by the server, providing a way to push data to the client. Notifications are unacknowledged, while indications are acknowledged. Notifications are therefore faster, but less reliable.  GATT Database establishes a hierarchy to organize attributes. These are the Profile, Service, Characteristic and Descriptor. Profiles are high level definitions that define how services can be used to enable an application and Services are collections of characteristics. Descriptors defined attributes that describe a characteristic value.    To define a GATT Database several macros are provided by the GATT_DB API in the Freescale BLE Stack, which is part KW38 SDK. Server (Sensor)  First, we need to use the Temperature Sensor project as a base, to create our Humidity Custom Profile Server (Sensor). BLE SIG profiles To know if the Profile or service is already defined in the specification, you have to look for in Bluetooth SIG profiles and check in the ble_sig_defines.h file (${workspace_loc:/${ProjName}/bluetooth/host/interface) if this is already declared in the code. In our case, the service is not declared, but the characteristic of the humidity is declared in the specification. Then, we need to check if the characteristic is already included in ble_sig_defines.h. Since, the characteristic is not included, we need to define it as shown next:   /*! Humidity Charactristic UUID */ #define gBleSig_Humidity_d 0x2A6F   GATT Database The Humidity Sensor is going to have the GATT Server, because is going to be the device that has all the information for the GATT Client. On the Temperature Sensor demo have the Battery Service and Device Information, so you only have to change the Temperature Service to Humidity Service    In order to create the demo we need to define or develop a service that has to be the same as in the GATT Client, this is declared in the gatt_uuid128.h.If the new service is not the same, they will never be able to communicate each other. All macros, function or structure in SDK have a common template which helps the application to act accordingly. Hence, we need to define this service in the gatt_uuid128.h as shown next:    /* Humidity */ UUID128(uuid_service_humidity, 0xfe ,0x34 ,0x9b ,0x5f ,0x80 ,0x00 ,0x00 ,0x80 ,0x00 ,0x10 ,0x00 ,0x02 ,0x00 ,0xfa ,0x10 ,0x10)   All the Service and Characteristics is declared in gattdb.h. Descriptors are declared after the Characteristic Value declaration but before the next Characteristic declaration. In this case the permission is the CharPresFormatDescriptor that have specific description by the standard. The Units of the Humidity Characteristic is on Percentage that is 0x27AD. Client Characteristic Configuration Descriptor (CCCD) is a descriptor where clients write some of the bits to activate Server notifications and/or indications.   PRIMARY_SERVICE_UUID128(service_humidity, uuid_service_humidity) CHARACTERISTIC(char_humidity, gBleSig_Humidity_d, (gGattCharPropNotify_c)) VALUE(value_humidity, gBleSig_Humidity_d, (gPermissionNone_c), 2, 0x00, 0x25) DESCRIPTOR(desc_humidity, gBleSig_CharPresFormatDescriptor_d, (gPermissionFlagReadable_c), 7, 0x0E, 0x00, 0xAD, 0x27, 0x00, 0x00, 0x00) CCCD(cccd_humidity)   After that, create a folder humidity in the next path ${workspace_loc:/${ProjName}/bluetooth/profiles. Found the temperature folder, copy the temperature_service.c and paste inside of the humidity folder with another name (humidity_service.c). Then go back and look for the interface folder, copy temperature_interface.h and change the name (humidity_interface.h) in the same path. You need to include the path of the created folder. Project properties>C/C+ Build>Settings>Tool Settings>MCU C Compiler>Includes: Humidity Interface The humidity_interface.h file should have the following code. The Service structure has the service handle, and the initialization value.   /*! Humidity Service - Configuration */ typedef struct humsConfig_tag { uint16_t serviceHandle; int16_t initialHumidity; } humsConfig_t; /*! Humidity Client - Configuration */ typedef struct humcConfig_tag { uint16_t hService; uint16_t hHumidity; uint16_t hHumCccd; uint16_t hHumDesc; gattDbCharPresFormat_t humFormat; } humcConfig_t;   Humidity Service At minimum on humidity_service.c file, should have the following code. The service stores the device identification for the connected client. This value is changed on subscription and non-subscription events.   /*! Humidity Service - Subscribed Client*/ static deviceId_t mHums_SubscribedClientId;   The initialization of the service is made by calling the start procedure. This function is usually called when the application is initialized. In this case is on the BleApp_Config().   bleResult_t Hums_Start(humsConfig_t *pServiceConfig) { mHums_SubscribedClientId = gInvalidDeviceId_c; /* Set the initial value of the humidity characteristic */ return Hums_RecordHumidityMeasurement(pServiceConfig->serviceHandle, pServiceConfig->initialHumidity); }   On stop function, the unsubscribe function is called.   bleResult_t Hums_Stop(humsConfig_t *pServiceConfig) { /* Stop functionality by unsubscribing */ return Hums_Unsubscribe(); } bleResult_t Hums_Unsubscribe(void) { /* Unsubscribe by invalidating the client ID */ mHums_SubscribedClientId = gInvalidDeviceId_c; return gBleSuccess_c; }   The subscribe function will be used in the main file, to subscribe the GATT client to the Humidity service.   bleResult_t Hums_Subscribe(deviceId_t clientDeviceId) { /* Subscribe by saving the client ID */ mHums_SubscribedClientId = clientDeviceId; return gBleSuccess_c; }   Depending on the complexity of the service, the API will implement additional functions. For the Humidity Sensor only have a one characteristic. The measurement will be saving on the GATT database and send the notification to the client. This function will need the service handle and the new value as input parameters.   bleResult_t Hums_RecordHumidityMeasurement(uint16_t serviceHandle, int16_t humidity) { uint16_t handle; bleResult_t result; bleUuid_t uuid = Uuid16(gBleSig_Humidity_d); /* Get handle of Humidity characteristic */ result = GattDb_FindCharValueHandleInService(serviceHandle, gBleUuidType16_c, &uuid, &handle); if (result != gBleSuccess_c) return result; /* Update characteristic value */ result = GattDb_WriteAttribute(handle, sizeof(uint16_t), (uint8_t*) &humidity); if (result != gBleSuccess_c) return result; Hts_SendHumidityMeasurementNotification(handle); return gBleSuccess_c; }   After save the measurement on the GATT database with GattDb_WriteAttribute function we send the notification. To send the notification, first have to get the CCCD and after check if the notification is active, if is active send the notification.   static void Hts_SendHumidityMeasurementNotification ( uint16_t handle ) { uint16_t hCccd; bool_t isNotificationActive; /* Get handle of CCCD */ if (GattDb_FindCccdHandleForCharValueHandle(handle, &hCccd) != gBleSuccess_c) return; if (gBleSuccess_c == Gap_CheckNotificationStatus (mHums_SubscribedClientId, hCccd, &isNotificationActive) && TRUE == isNotificationActive) { GattServer_SendNotification(mHums_SubscribedClientId, handle); } }   Humidity Sensor Main file There are some modifications that have to be done, to use the new Humidity profile in our sensor example. First, we need to declare the humidity service:   static humsConfig_t humsServiceConfig = {(uint16_t)service_humidity, 0};   Then, we need to add or modify the following functions: BleApp_Start You need to modify this line:   /* Device is connected, send humidity value */ BleApp_SendHumidity();   BleApp_Config You need to start the Humidity Service, and to modify the PrintString line:   humsServiceConfig.initialHumidity = 0; (void)Hums_Start(&humsServiceConfig);     AppPrintString("\r\nHumidity sensor -> Press switch to start advertising.\r\n");   BleApp_ConnectionCallback There are some modifications required in two Connection Events. gConnEvtConnected_c   (void)Hums_Subscribe(peerDeviceId); gConnEvtDisconnected_c   gConnEvtDisconnected_c   (void)Hums_Unsubscribe();   BleApp_GattServerCallback   /* Notify the humidity value when CCCD is written */ BleApp_SendHumidity()   BleApp_SendHumidity And, we need to add this function:   static void BleApp_SendHumidity(void) { (void)TMR_StopTimer(appTimerId); /* Update with initial humidity */ (void)Hums_RecordHumidityMeasurement((uint16_t)service_humidity, (int16_t)(BOARD_GetTemperature())); #if defined(cPWR_UsePowerDownMode) && (cPWR_UsePowerDownMode) /* Start Sleep After Data timer */ (void)TMR_StartLowPowerTimer(appTimerId, gTmrLowPowerSecondTimer_c, TmrSeconds(gGoToSleepAfterDataTime_c), DisconnectTimerCallback, NULL); #endif }   In this example, the Record Humidity uses the BOARD_GetTemperature, to use the example without any external sensor and to be able to see a change in the collector, but, in this section would be a GetHumidity function. Client (Collector)  First, we need to use the Temperature Collector project as a base, to create our Humidity Custom Profile Client (Collector). BLE SIG profiles The same applies for the Client. To know if the Profile or service is already defined in the specification, you have to look for in Bluetooth SIG profiles and check in the ble_sig_defines.h file (${workspace_loc:/${ProjName}/bluetooth/host/interface) if this is already declared in the code. In our case, the service is not declared, but the characteristic of the humidity is declared in the specification. Then, we need to check if the characteristic is already included in ble_sig_defines.h. Since, the characteristic is not included, we need to define it as shown next:   /*! Humidity Charactristic UUID */ #define gBleSig_Humidity_d 0x2A6F   GATT Database The Humidity Collector is going to have the GATT client; this is the device that will receive all information from  the GATT server. Demo provided in this post works like the Temperature Collector. When the Collector enables the notifications from the sensor, received notifications will be printed in the serial terminal. In order to create the demo we need to define or develop a service that has to be the same as in the GATT Server, this is declared in the gatt_uuid128.h.If the new service is not the same, they will never be able to communicate each other. All macros, function or structure in SDK have a common template which helps the application to act accordingly. Hence, we need to define this service in the gatt_uuid128.h as shown next:   /* Humidity */ UUID128(uuid_service_humidity, 0xfe ,0x34 ,0x9b ,0x5f ,0x80 ,0x00 ,0x00 ,0x80 ,0x00 ,0x10 ,0x00 ,0x02 ,0x00 ,0xfa ,0x10 ,0x10)   After that, copy the humidity profile folder from the Sensor project, to the Collector project ${workspace_loc:/${ProjName}/bluetooth/profiles. And also for this project, include the path of the new folder. Project properties>C/C+ Build>Settings>Tool Settings>MCU C Compiler>Includes: Humidity Collector Main file In the Collector source file, we need to do also some modifications, to use the Humidity Profile. First, we need to modify the Custom Information of the Peer device:   humcConfig_t humsClientConfig;   BleApp_StoreServiceHandles   static void BleApp_StoreServiceHandles ( gattService_t *pService ) { uint8_t i,j; if ((pService->uuidType == gBleUuidType128_c) && FLib_MemCmp(pService->uuid.uuid128, uuid_service_humidity, 16)) { /* Found Humidity Service */ mPeerInformation.customInfo.humsClientConfig.hService = pService->startHandle; for (i = 0; i < pService->cNumCharacteristics; i++) { if ((pService->aCharacteristics[i].value.uuidType == gBleUuidType16_c) && (pService->aCharacteristics[i].value.uuid.uuid16 == gBleSig_Humidity_d)) { /* Found Humudity Char */ mPeerInformation.customInfo.humsClientConfig.hHumidity = pService->aCharacteristics[i].value.handle; for (j = 0; j < pService->aCharacteristics[i].cNumDescriptors; j++) { if (pService->aCharacteristics[i].aDescriptors[j].uuidType == gBleUuidType16_c) { switch (pService->aCharacteristics[i].aDescriptors[j].uuid.uuid16) { /* Found Humidity Char Presentation Format Descriptor */ case gBleSig_CharPresFormatDescriptor_d: { mPeerInformation.customInfo.humsClientConfig.hHumDesc = pService->aCharacteristics[i].aDescriptors[j].handle; break; } /* Found Humidity Char CCCD */ case gBleSig_CCCD_d: { mPeerInformation.customInfo.humsClientConfig.hHumCccd = pService->aCharacteristics[i].aDescriptors[j].handle; break; } default: ; /* No action required */ break; } } } } } } }   BleApp_StoreDescValues   if (pDesc->handle == mPeerInformation.customInfo.humsClientConfig.hHumDesc) { /* Store Humidity format*/ FLib_MemCpy(&mPeerInformation.customInfo.humsClientConfig.humFormat, pDesc->paValue, pDesc->valueLength); }   BleApp_PrintHumidity   /*www.bluetooth.com/specifications/assigned-numbers/units */ if (mPeerInformation.customInfo.humsClientConfig.humFormat.unitUuid16 == 0x27ADU) { AppPrintString(" %\r\n"); } else { AppPrintString("\r\n"); }   BleApp_GattNotificationCallback   if (characteristicValueHandle == mPeerInformation.customInfo.humsClientConfig.hHumidity) { BleApp_PrintHumidity(Utils_ExtractTwoByteValue(aValue)); }    CheckScanEvent   foundMatch = MatchDataInAdvElementList(&adElement, &uuid_service_humidity, 16);   BleApp_StateMachineHandler mAppIdle_c   if (mPeerInformation.customInfo.humsClientConfig.hHumidity != gGattDbInvalidHandle_d)   mAppServiceDisc_c   if (mPeerInformation.customInfo.humsClientConfig.hHumDesc != 0U) mpCharProcBuffer->handle = mPeerInformation.customInfo.humsClientConfig.hHumDesc;   mAppReadDescriptor_c   if (mPeerInformation.customInfo.humsClientConfig.hHumCccd != 0U)   BleApp_ConfigureNotifications   mpCharProcBuffer->handle = mPeerInformation.customInfo.humsClientConfig.hHumCccd;   Demonstration Now, after connection, every time that you press the SW3 on KW38 Humidity Sensor is going to send the value to KW38 Humidity Collector.  
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Where can I find the KW20-30-40 radio certification documents?     FRDM-KW40 platforms have passed the CE RED & FCC radio certification (BLE & 15.4).  Find below for information the certification documents and test reports.  For further information on the FRDM board and the product please refer to the corresponding KW40 Product Summary page and FRDM-KW40.
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KW39_38_37 radio certification information 
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This Document describes the additional changes needed for JN-AN-1229 ZigBee PRO Application Template for ZigBee version 1002 to be able to compile correctly with the latest update SDK JN-SW-4170 Version 1745 and JN-SW-4270 Version 1746. Note:  These modifications can be also found in the JN516x ZigBee 3.0 SDK Release Notes v1745 (Chapter 4.3 Modifications Required) Tool modifications The .zpscfg file contains all the information available of the setup of the ZigBee network, this file it’s located in C:\...\...\workspace\ JN-AN-1229\Common The first step is to add the MAC Interface List to The ZigBee devices (Co-ordinator, Router, and Sleeping End Device) in the .zpscfg file. Then, add the MAC Interface selecting the New Child option. In the Properties tab, the Co-ordinator and the Router should have the Router Allowed option set to True. Stack modifications The new stack has support for better throughput and automatic buffering of data packets during route discovery. This requires the addition of a new queue in the application. Open the app_common.h file which it’s located in the Common folder. This queue should be tied to the stack definition: extern PUBLIC tszQueue zps_msgMcpsDcfm; After that, open the app_router.c and app_sleeping_enddevice.c. The ZPS_tsAplAib structure has been changed, so, the vStartup function should be modified Old version /* Set channel to scan and start stack */ ZPS_psAplAibGetAib()->apsChannelMask = 1 << u8Channel; Update needed /* Set channel to scan and start stack */ ZPS_psAplAibGetAib()->pau32ApsChannelMask[0] = 1 << u8Channel; Add the next code to the app_start.c(Coordinator and Router) and app_start_SED.c(Sleeping End Device) The buffer of the Router device should be modified. The size of the queue is defined as: #define MCPS_DCFM_QUEUE_SIZE 5 The storage of the queue must be defined: PRIVATE MAC_tsMcpsVsCfmData asMacMcpsDcfm[MCPS_DCFM_QUEUE_SIZE]; In the APP_vInitResources function an additional queue must be added: ZQ_vQueueCreate(&zps_msgMcpsDcfm, MCPS_DCFM_QUEUE_SIZE,  sizeof(MAC_tsMcpsVsCfmData),(uint8*)asMacMcpsDcfm);  
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Document Purpose This post entry provides an example of a hybrid application (Wireless_UART + GFSK Advertising) by covering Bluetooth Low Energy multiple node connections in parallel with GFSK (Generic Frequency Shift Keying) communication.  This is an additional example for the SDK where we have defined a Hybrid application for Bluetooth LE advertising and scanning in parallel with GFSK communication. Audience The goal of this post is to serve as a guide for software developers who want to use, adapt and integrate GFSK functionality in a Bluetooth Low Energy application.    Setting up the development environment Toolchain:           - IAR Embedded Workbench 8.32 or newer;            https://www.iar.com/iar-embedded-workbench/   SDK:          - This version of firmware has been tested using SDK_2.2.1_FRDM-KW36, that can be downloaded using the following link: https://mcuxpresso.nxp.com/en/select            (please consider to select as Toolchain/IDE: All toolchains);             Hardware:       - 2 to 5 FRDM-KW36 development board:  FRDM-KW36 Development Kit KW36/35 MCUs | NXP  Implementation This demo application is design for the FRDM-KW36 platform and can be easily integrated into any board that is using KW35/36 MCU family. The functionality is based on the coexistence mechanism available on the SDK (Mobile Wireless System - MWS module). Based on the HW link-layer implementation, the Bluetooth Low Energy has a higher priority than the GFSK protocol and as the effect, the GFSK communication is executed during the Idle states (inactive periods) of the Bluetooth LE.  For more details related to the MWS module, please refer to connectivity framework documentation from SDK (Connectivity Framework Reference Manual.pdf). As for functionality on the Bluetooth low energy, both roles, central and peripheral, are supported.  Integration to the KW36 SDK - download the attached file and unzip to ...\SDK_2.2.1_FRDM-KW36\boards\frdmkw36\wireless_examples\hybrid folder: - open IAR project (SDK_2.2.1_FRDM-KW36_2019_07_19\boards\frdmkw36\wireless_examples\hybrid\ble_w_uart_gfsk\freertos\iar\ble_w_uart_gfsk_freertos.eww). - the project is organized like below: Functionality Switches functionality:     - functionality is defined in main.c file, BleApp_Handle Keys function;    - on the FRDM-KW36 we have:                 - SW2 - start scanning - Central device;                 - Long SW2 - start advertising - Peripheral device; (long SW2 - SW2 pressed for more than 3 seconds)                 - SW3 - start/stop GFSK TX operation (advertising);                 - Long SW3 - start/stop GFSK RX operation (long SW3 - SW3 pressed for more than 3 seconds) Logs:    - Serial events for different states of the board;    - BaudRate 115200; Validation The solution has been validated using 1 Master and 4 Slave devices as below: 1. Create the network:     a. Open serial communication of all devices. After reset you will see the following message:    b. On the Central device press SW2 to start scanning;    c. On the Peripheral device press Long SW2 to start advertising and wait for the confirmation on the serial port:   d. Repeat steps b. and c. for all of the slave devices.   e. When the network is completed on the Central device you will see something like below:   f. Check the over the air connections (connection interval = 312.5 ms): 2. Validate functionality on the Bluetooth LE: - from each slave (Peripheral) serial terminal write a message (e.g: testslaveX) and check that the message is printed on the master serial port. - do the same test from the master (Central) serial terminal. - Below is an example of this step:   - over the air log: 3. Initiate GFSK communication: - in one of the board's press SW3 to start GFSK TX operation (Advertising packet with AdvAddress = 0909090909); At every 1 second (gGenFskApp_TxInterval_c), an ADV packet will be sent over the air. - Select other board and press Long Sw3 to initiate GFSK RX operation (RX interval = 100ms = gGenFskApp_RxInterval_c); - Each time an ADV packet from address = 0909090909 is received this will be listed on the serial port as below: - over the air the GFSK TX packets will be listed as a ADV_NONCONN_IND: 4. Validate Bluetooth LE in parallel with GFSK: - write a message on the Master (Central) serial terminal and check the feedback on the slave(Peripheral) serial terminals: Attached is the source code for this application. Regards, Ovidiu
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Customer is designing QN9090 module. They have IQxel non-signaling equipment and ask if QN9090 can be tested with IQxel-MW. We co-work with ACE Solution Taiwan Co.Ltd. to Integrate QN9090 and IQxel to perform 1M bps, 2M bps and Frame error rate test. This document will address the QN9090 setup and IQxel connection setup. Finally we show the 1M bps, 2M bps and packet error rate results.
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Development environment Hardware: i.MX6Q SabreSD connecting rtl8188cus or rtl8192cus wifi dongle Software: FSL JB 4.2.2-1.1.0-GA release   Advantage brought by JB4.2.2 As we may know that in JB4.0.x, Wifi-Direct is exclusive to normal Wifi access AP, so means that you have to turn off  Wifi normal AP access, then turn on Wifi-Direct. But in JB4.2.x, it can support the following topologies in use scene as following: So that means you can keep p2p connection meanwhile access internet throught AP.     Feature verified 1. Wifi connection support internet surf, and DLNA. 2. Wifi-Direct can support files transmission like Gallery sharing based on Wifi-Direct Demo.apk from FSL. 3. Particial support Wifi-Display, but due to unavailability of Wifi-Display sink module, so cannot be verified fully.   Usage: untar the attached file, then "patch -p1 <" in corresponding subdirectories. It would be better to untar the file in an empty directory, so you can understand which subdirectories are newly created (ex. hardware/realtek is newly created), then within these newly created subdirectoies, you need to "git init" first, then do "patch -p1<" to adopt all newly added files and subdirectories. Original Attachment has been moved to: WiFiDirectDemo.apk.zip Original Attachment has been moved to: patch4rtl8188_8192_on_jb4_2_2-ga.tar.gz
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This document provides information on distance measurements depending of the Bluetooth LE data rate (1Mbps, 2Mbps, LR S=2 & LR S=8). The FRDM-KW38 boards are used to perform the measurements. Results are similar on KW37 and KW39.  
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Hello All, I designed a ultra low low cost evaluation board (ULC-Zigbee) based in Kinetis wireless MCUs, take a look at the attached PDF for the brief description.  I was able to build three of them at ~$10USD each. The ULC-Zigbee is covered under the GNU General Public License. The required files to build the board are attached, it measures 30 x 50mm. My partner AngelC   wrote a sample code. The software basically communicates wirelessly the ULC-Zigbee board with a USB-KW24D512. An FXOS8700 is externally connected through the prototype board connector and the magnetic and acceleration values are then wirelessly transmitted to the USB stick, then the values can be printed in a HyperTerminal. The attached zip file contains the following files: File name Description ULC-Zigbee-EBV_V10.pdf Brief description of the ULC-Zigbee board MKW2x_Eagle_library.lbr  Required EAGLE CADSOFT LIBRARY ULC-Zigbee-EBV_V10.brd EAGLE v6.5 Board ULC-Zigbee-EBV_V10.sch EAGLE v6.5 Schematic ULC-Zigbee-EBV_V10_SCH.pdf ULC-Zigbee board schematic ULC-Zigbee-EBV_V10_BOM.xlsx Bill of materials ULC-Zigbee-EBV_V10_GERBER_FILES.zip Gerber files WirelessUART_MKW2x_v1.3_eCompass_TX_v1.zip ULC-Zigbee board sample software WirelessUART_MKW2x_v1.3_eCompass_RX_v1.zip USB-KW24D512 sample software     Hope it helps!   -Josh   Este documento fue generado desde la siguiente discusión:Ultra Low Cost Zigbee Evaluation Board
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This post explains the implementation to operate the KW36 MCU on VLPR when the clocking mode is BLPE or BLPI. It's also included the explanation on how to configure clocks for BLPE and BLPI modes. For this example, the beacon demo from the wireless examples of the FRDM-KW36 is used. FRDM-KW36 SDK can be downloaded from MCUXpresso webpage. A recommended option to configure clock modes is "Config Tools" from MCUXpresso. Config Tools is embedded to MCUXpresso IDE, or you can download Config Tools from this LINK if you are using other supported IDE for this tool. MCUXpresso IDE is used in this example. Configure BLPE or BLPI clocking modes Select your proyect on MCUXpresso IDE, then open the clocks configuration window from Config Tools by clicking the arrow next to Config Tools icon from your MCUXpresso IDE, and then select "Open Clocks" as shown in Figure 1. Figure 1. Open Clocks from Config Tools using MCUXpresso IDE. A clocks diagram window will be opened. To configure the clock modes just select your option "BLPI" or "BLPE" on MCG Mode as shown in Figure 2. Clock will be automatically configured. Figure 2. MCG Mode selection. Now let's configure the appropiate clocks for Core clock and Bus clock to run in VLPR. Figure 3 taken from KW36 Reference Manual shows achievables frequencies when MCU is on VLPR.  Figure 3. VLPR clocks. Core clock should be 4MHz for BLPE and BLPI clocking modes, and Bus clock should be 1MHz for BLPE and 800kHz for BLPI.  Figure 4 shows clocks distribution for BLPE and Figure 5 for BLPI to operate with discussed frequencies. Figure 4. Clock distribution - VLPR and BLPE. Figure 5. Clock distribution - VLPR and BLPI. Press "Update Project" (Figure 6) to apply your new clock configuration to your firmware, then change perspective to "Develop" icon on right corner up to go to your project (See Figure 7). Compile your project to apply the changes. Figure 6. Update Project button. Figure 7. Develop button. At this point your project is ready to work with BLPE or BLPI clocks modes. Now, let's configure MCU to go to VLPR power mode. Configure VLPR mode VLPR mode can be configured using Config Tools too, but you may have an error trying to configure it when BLPE mode, this is because CLKDIV1 register cannot be written when the device is on VLPR mode. For this example, let's configure MCU into VLPR mode by firmware. Follow next steps to configure KW36 into VLPR power mode: 1. Configure RF Ref Oscillator to operate in VLPR mode. By default, the RF Ref Osc it's configured to operate into RUN mode. To change it to operate on VLPR mode just change the bits RF_OSC_EN from Radio System Control from 1 (RUN) to 7 (VLPR). Figure 8 taken from KW36 Reference Manual shows RF_OSC_EN value options from Radio System Control.    Figure 8. RF_OSC_EN bits from Radio System Control register. Go to clock_config.c file in your MCUXpresso project and search for "BOARD_RfOscInit" function. Change the code line as shown in Figure 9 to configure RF Ref Osc to work into VLPR mode. You may see a window asking if you want to make writable the read-only file, click Yes. Figure 9. Code line to configure RF Ref Osc to work into VLPR mode Be aware that code line shown in Figure 9 may change with updates done in clocks using Config Tools. Note 2. Configure DCDC in continuous mode. According to KW36 Reference Manual, the use of BLPE in VLPR mode is only feasible when the DCDC is configured for continuous mode. First, let's define gDCDC_Enabled_d flag to 1 on preprocesor. With this implementation, the use of DCDC_Init function will be enabled, and it's where we going to add the code line to enable continuous mode. Right click on your project, select Properties, go to Settings under C/C++ Build, then Preprocessor under MCU C Compiler (Figure 10).   Figure 10. MCUXpresso Preprocessor   Click on add button from Defined symbols, write gDCDC_Enabled_d=1 and click OK to finish (Figure 11).  Re-compile your project. Figure 11. MCUXpresso Defined symbols   Now let's set VLPR_VLPW_CONFIG_DCDC_HP bits to 1 from DCDC_REG0 register. Figure 12 was taken from KW36 Reference Manual. Figure 12. VLPR_VLPW_CONFIG_DCDC_HP values. Go to DCDC_Init  function and add the next code line to enable continuous mode on DCDC: DCDC->REG0 |= DCDC_REG0_VLPR_VLPW_CONFIG_DCDC_HP_MASK; Figure 13 shows the previous code line implemented in firmware project inside of DCDC_Init function. Figure 13. Continuous mode for DCDC enabled. 3. Configure MCU into VLPR mode To finish, let's write the code to configure MCU into VLPR power mode. Copy and paste next code just after doing implementation described on step 1 and 2: #if (defined(FSL_FEATURE_SMC_HAS_LPWUI) && FSL_FEATURE_SMC_HAS_LPWUI) SMC_SetPowerModeVlpr(SMC, false); #else SMC_SetPowerModeVlpr(SMC); #endif while (kSMC_PowerStateVlpr != SMC_GetPowerModeState(SMC)) { } It may be needed to add the SMC library: #include "fsl_smc.h" The code is configuring MCU into VLPR mode with bits RUNM from SMC_PMCTRL register (Figure 14) and then check if it was correctly configured by reading status bits PMSTAT from SMC_PMSTAT register (Figure 15) Figure 14. RUNM bits from SMC_PMCTRL register. Figure 15. PMSTAT bits from  SMC_PMSTAT register. KW36 is ready to operate and BLPE or BLPI clocking modes with VLPR power mode.
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Commissioner Authentication server for new Thread devices and the authorizer for providing the network credentials they require to join the network. A device capable of being elected as a Commissioner is called a Commissioner Candidate. Devices without Thread interfaces may perform this role, but those that have them may combine this role with all other roles except the Joiner. This device may be, for example, a cell phone or a server in the cloud, and typically provides the interface by which a human administrator manages joining a new device to the Thread Network. Commissioner Candidate A device that is capable of becoming the Commissioner, and either intends or is currently petitioning the Leader to become the Commissioner, but has not yet been formally assigned the role of Commissioner. Commissioner Credential A human-scaled passphrase for use in authenticating that a device may petition to become the commissioner of the network. This credential can be thought of as the network administrator password for a Thread Network. The first device in a network, typically the initial Leader, MUST be out-of-band commissioned to inject the correct user generated Commissioning Credential into the Thread Network, or provide a known default Commissioning Credential to be changed later. Joiner A device to be added by a human administrator to a commissioned Thread Network. This role requires a Thread interface to perform and cannot be combined with another role in one device. The Joiner does not have network credentials. Joiner Router An existing Thread router or REED (Router-Eligible End Device) on the secure Thread Network that is one radio hop away from the Joiner. The Joiner Router requires a Thread interface to operate, and may be combined in any device with other roles except the Joiner role. Information extracted from the Thread Whitepapers available at threadgroup.org
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Hello community, This time I bring to you a document which explains how to run a demo from BeeKit and how to sniff it. Before to start you need to install the BeeKit Wireless Connectivity Toolkit.     I hope you find this guide useful. Enjoy this guide! Any feedback is welcome. Best regards, Earl Orlando Ramírez-Sánchez Technical Support Engineer NXP Semiconductors
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