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Please find here all the information needed to build your own PCB based on K32W061/041(AM/A), QN9090/9030(T) or JN5189/5188(T). Your first task before to send any inquiry to NXP support is to fill the K32W Design In CHECK LIST available in this ticket.   K32W061 Manufacturing package  Find here all the product pages, most of the HW documents are in the corresponding platforms web pages: K32W061/041 (AM/A) QN9090/9030(T) JN5189/5188(T)   The K32W EVK getting started webpage: IOT_ZTB-DK006 Get started page (nxp.com) IoT_ZTB getting started manual (nxp.com)   HW: HW design consideration : JN-RM-2078-JN5189-Module-Development_1V4.pdf (see attached file) JN-RM-2079-QN9090-Module-Development_1V0.pdf (see attached file) JN-RM-2080-K32W-Module-Development_1V0.pdf (see attached file)   Radio: RF report:  JN5189: https://www.nxp.com/docs/en/application-note/AN12154.pdf (nxp.com) QN9090: https://www.nxp.com/docs/en/nxp/application-notes/AN12610.pdf (nxp.com) K32W: https://www.nxp.com/docs/en/application-note/AN12798.pdf (nxp.com) Antenna: https://www.nxp.com/docs/en/application-note/AN2731.pdf (nxp.com)   Low Power Consumption:  JN5189: https://www.nxp.com/docs/en/application-note/AN12898.pdf (nxp.com) QN9090: https://www.nxp.com/docs/en/application-note/AN12902.pdf (nxp.com) K32W: https://www.nxp.com/docs/en/application-note/AN12846.pdf (nxp.com) A power calculator tool is available here: https://community.nxp.com/t5/Connectivity-Support-QN-JN-KW/QN9090-Bluetooth-LE-Power-Profile-Calculator-Tool/ta-p/1209602 SW tools: Customer Module Evaluation Tool  (nxp.com) Bluetooth Low Energy Certification Tool (nxp.com) K32W041/K32W061/QN9090(T)/QN9030(T) Bluetooth Low Energy Certification Tool User's Guide (nxp.com)     Certification: Certificates/Declarations of conformity (nxp community)  
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Based on i.MX8MN-EVK And Linux 5.4.70_2.3.0 BSP As an example of NXP Bluetooth Bluetooth application, this article describes how to use Bluetooth to realize file transfer between windows PC and i.MX8MN-EVK (linux), and between Android mobile phone and i.MX8MN-EVK. The test architecture used in this example is as follows: The following steps are for the application example: Step 1 Preparation  --Downloading DEMO Image For i.MX8MN-EVK  --Downloading uuu tool  --Compiling L5.4.70_2.3.0 BSP for i.MX8MN-EVK  --Copying rootfs to the DEMO Image directory  --Modifying example_kernel_emmc.uuu as uuu programming script  --Programming images to i.MX8MN-EVK board  Booting i.MX8MN-EVK board Step 2 Loading WIFI/BT driver and Enable Bluetooth Step 3 File Transter between Windows 10 PC and i.MX8MN-EVK board Step 4 File Transter between Android Mobile and i.MX8MN-EVK board [Summary] More detailed information, see attachment, please!
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The homologation requirements in China (MIIT [2002]353) obviously are planned (end of December 2022) to be sharpened (MIIT publication from 2021-01-27: “Notice on Matters Related to Radio Management in the 2400MHz, 5100MHz and 5800MHz Bands”).   A modification register is need on the KW38 and KW36 to pass the new Chinese  requirement with acceptable margin: PA_RAMP_SEL value must be set to 0x02h (2us) instead of 0x01h (1us default value) Modification SW: XCVR_TX_DIG_PA_CTRL_PA_RAMP_SEL(2) in the nxp_xcvr_common_config.c All the details are in the attached file.   Note: This SW modification is for China country only.
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In the process of practical application, customers often need the combination of ble + NFC. At present, our IOT-DK006 is the only development board with NFC module. But the NFC example is not perfect. So we porting the library of NFC reader- PN7150, to support KW series microcomputer so that KW series can handle the demand of ble + NFC function. Now I will introduce you how to port the NFC lib to KW. 1 PN7150 Introduction PN7150 is the high-performance version of PN7120, the plug’n play NFC solution for easy integration into any OS environment, reducing Bill of Material (BOM) size and cost. PN71xx controllers are ideal for home-automation applications such as gateways and work seamlessly with NFC connected tags. 2 Tools hardware:FRDM-KW36,PN7150 , some wire software:mcuxpresso11.3 package:NXP-NCI MCUXpresso example Project This package contains the nfc library and example that we need. We will refer the ‘NXPNCI-K64F_example’ firstly. Sdk version: 2.2.8, Example: frdmkw36_rtos_examples_freertos_i2c  3 Steps Hardware part:We need connect the PN7150 to KW36 like the picture. Although we can connect the PN7150 to board through the ardunio connector, the pin’s voltage is not enough to drive the PN7150. So we need a wire connected to U1 to get 3.3V.   PN7150 FRDM-KW36 VBAT/PVDD 3.3V VANT 5V GND GND IRQ PTA16 VEN PTC15 SCL PTB0,I2C0 SDA PTB1,I2C0 Software part:We should add the nfc library and directory into our project. You can check the following picture to know what file is necessary. If you want to know how to add directory into our project, you can refer this link. The red line shows what file we need. Please notice that when we add file path into the mcuxpresso configuration, we also need add the path into ‘Path and Symbols’ .   We need add some macro into ‘Preprocessor’.   We copy the NXPNCI-K64F_example’s main file content into our ‘freertos_i2c.c’. Next, we need modify the file pin_mux.c, tml.c and board.h   In file board.h,add the following macro. Don't forget to enable the pin clock. /* NXPNCI NFC related declaration */ #define BOARD_NXPNCI_I2C_INSTANCE I2C0 #define BOARD_NXPNCI_I2C_BAUDRATE (100000) #define BOARD_NXPNCI_I2C_ADDR       (0x28) #define BOARD_NXPNCI_IRQ_PORTIRQn PORTA_IRQn #define BOARD_NXPNCI_IRQ_GPIO     (GPIOA) #define BOARD_NXPNCI_IRQ_PORT     (PORTA) #define BOARD_NXPNCI_IRQ_PIN      (16U) #define BOARD_NXPNCI_VEN_GPIO     (GPIOC) #define BOARD_NXPNCI_VEN_PORT     (PORTC) #define NXPNCI_VEN_PIN            (5U)     In file pin_mux.c, add head file ‘board.h’. Add the following code in function ’ BOARD_InitPins’. The step is to configure the VEN, IRQ and I2C0. This example contains the I2C1’s code, you can comment them.     /* Initialize NXPNCI GPIO pins below */   /* IRQ and VEN PIN_MUX Configuration */   PORT_SetPinMux(BOARD_NXPNCI_IRQ_PORT, BOARD_NXPNCI_IRQ_PIN, kPORT_MuxAsGpio);   PORT_SetPinMux(BOARD_NXPNCI_VEN_PORT, NXPNCI_VEN_PIN, kPORT_MuxAsGpio);   /* IRQ interrupt Configuration */   NVIC_SetPriority(BOARD_NXPNCI_IRQ_PORTIRQn, 6);   EnableIRQ(BOARD_NXPNCI_IRQ_PORTIRQn);   PORT_SetPinInterruptConfig(BOARD_NXPNCI_IRQ_PORT, BOARD_NXPNCI_IRQ_PIN, kPORT_InterruptRisingEdge);   Finally, in file tml.c, modify PORTC_IRQHandler as PORTA_IRQHandler We finished all steps. 4 Results We use ntag to test the reading and writing operation.   When the tag is closed to the PN7150, we will get the following message.   The text recording is ‘VER=03’. Next, we will modify the text recording We need add the new macro to preprocessor.   We can modify the variable NDEF_MESSAGE in function task_nfc_reader to modify the text recording.   Then we download the program again. We will see the original text ‘VER=03’ and the text has been modified. Then we read the tag again. We will see the new text.   If we want to send the larger text, what should we do? We need modify the macro ‘ADD’. When only 4 characters are sent, ‘ADD’ is 0. And every additional character is added, the ‘ADD’ will add. We modify the tag as ‘Ver=03’, and we have two more characters. So ‘ADD’ needs to be defined as 2   It firstly shows the text ‘Test’. Then it will show the new text ‘Ver=03’. Other tags’ reading and writing operation can be enabled by defining some macro.      
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This article describes how to compile the Linux BSP of the i.MX platform under ubuntu 18.04, 20.04 LTS and debian-10. This is a necessary step to integrate WIFI/BT to the I.MX platform. See the attachment for detailed steps.
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This article describes how to use the tcpdump tool to capture wireless network data packets. The test block diagram is as follows: For more detailed information, See attachment,please!   NXP CAS-TIC Wireless MCU team Weidong Sun
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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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       The article will describe how to configure A2DP audio application Based On NXP platform and WIFI/BT chipset step by step. Users can easily make her A2DP audio based on NXP WIFI module work normally by following steps in the article. Environment for the validation Hardware Platform        i.MX8MN-EVK Software Kernel version: L5.4.70_2.3.0 rootfs : imx-image-multimedia WiFi module        AW-CM358SM: NXP 88W8987 chipset   For more detailed information, see attachment, please!   NXP CAS-TIC wireless MCU team Weidong Sun    
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1 Introduction Two development boards transmit control information through ble. One development board connects to paj7620 and provides gesture information through IIC bus. The other development board uses ble and USB HID. Ble is used to receive data, and USB HID is used to simulate keyboard input and control ppt                  Figure  1 2 Preparation We need two development boards qn908x and gesture control device paj7620. We use IAR as development enviroment.The example we use is temperature_sensor, and temperature_ colloctor. The SDK version is 2.2.3   3 Code 3.1  temperature_sensor code We want to implement IIC to read gesture information from paj7620 and send data. The pins used by IIC are PA6 and PA7 Simply encapsulate the IIC reading and writing code in the code to create i2c_ operation.c and i2c_ operation.h. Realize IIC initialization and reading / writing register function in it                        Figure  2                        Figure  3   3.1.1 After having these functions, we begin to write gesture recognition code. First, we add two blank files paj7620.c and paj7620.h into our project.   Select bank register area                               Figure 4   Wake up paj7620 to read device state                    Figure 5   Initialize device                    Figure 6   Gesture test function                                   Figure 7   3.1.2 When you are ready to read the device information, You should initialize IIC and paj7620 in BleApp_Init function                                Figure 8 In principle, we need to create a custom service for the PAJ device, but we replace the temperature data as our gesture control data. If you want to create a custom service, refer to this link custom profile   3.1.3 Create a timer that sends gesture data regularly. In file temerature_sensor.c Define a timer,static tmrTimerID_t dataTimerId; Allocate a timer, dataTimerId = TMR_AllocateTimer(); Define the callback function of this timer                                           Figure 9 Start timer                                    Figure 10 Close the low power mode. #define cPWR_UsePowerDownMode 0 3.2 temperature_collector code The most important thing here is to port USB HID into our project. The USB  example we use is the USB keyboard and mouse. 3.2.1 Add the OSA and USB folder under the example to the project directory, and copy the file to the corresponding folder according to the file structure of the original example.                      Figure 11 3.2.2 Add header file directory after completion                                           Figure 12 At the same time, in this tab, add two macro definitions USB_STACK_FREERTOS_HEAP_SIZE=16384 USB_STACK_FREERTOS   3.2.3 Next, we need to modify the main function in usb example . Open composite.c file.                      Figure 13 It calls the APP_task. So this function also need to be modified.                                   Figure 14 3.2.4Find hid_mouse.c,Comment function USB_DeviceHidMouseAction Find hid_keyboard.h. Define the gesture information.                                  Figure 15 Find hid_keyboard.c. We need to modify the function USB_DeviceHidKeyboardAction as following figure.                                                  Figure 16   Among them, we also need to implement the following function. When the up hand gesture is detected, the previous ppt will be played. The down hand gesture will be the next PPT, the left hand gesture will exit PPT, and the forward hand gesture will play ppt                                                  Figure 17 It also refers to an external variable gesture_from_server. The variable definition is in file temperature_ collocation.c,.     3.2.5 After that, let's go to BleApp_Statemachinehandler function in temperature_colloctor.c. In case mApppRunning_c, we will call usb_main to initialize USB HID                                                  Figure 18 3.2.6 In BleApp_PrintTemperature, we will save the gesture data to gesture_from_server                                                         Figure 19 We finished the all steps.        
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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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Introduction   This post explains how to create a BLE GATT database using FSCI commands sent to the BLE Server device. Additionally, this document explains how to set up the fields of each FSCI command used to create the BLE GATT database for the BLE Server.   Main FSCI commands to create the BLE GATT DB in the BLE Server device   The following, are the main commands to create, write and read the GATT DB from the BLE Server perspective. The purpose of this post is to serve as a reference and summary of the most important commands. The full list of commands FSCI commands can be found in the Framework Serial Connectivity Interface (FSCI) for Bluetooth Low Energy Host Stack documentation within your SDK package. GATT-InitRequest This command is used to initialize the GATT database at runtime, and it must be sent before any other command to declare a database in your BLE Server device. GATTServer-RegisterCallback.Request This command installs an application callback for the GATT Server module, enabling the device to respond to the FSCI request from the CPU application through an FSCI indication. GATTDBDynamic-AddPrimaryServiceDeclaration.Request It adds a primary service to the database. It has 3 parameters that should be configured, the desired handle, the UUID type (16 bits, 32 bits, 128 bits), and the UUID value. Usually, the desired handle should be set to zero and the stack will assign the handle of the primary service automatically.   If the GATT application callback was installed through the GATTServer-RegisterCallback.Request command, the GATT Server responds to the GATTDBDynamic-AddPrimaryServiceDeclaration.Request command with a GATTDBDynamic-AddPrimaryServiceDeclaration.Indication that contains the handle assigned to the primary service. The following example shows how to prepare this command to define the battery service in the database. GATTDBDynamic-AddCharacteristicDeclarationAndValue.Request It adds a characteristic and its value to the database. It has 7 parameters that should be configured, the UUID type (16 bits, 32 bits, 128 bits), the UUID value, characteristic properties, the maximum length of the value (only for variable-length values), the initial length of the value, the initial value of the characteristic and value access permissions. The characteristic declared using this command, belongs to the last primary service declared in the database. For values with a fixed length, the maximum length parameter should be set to 0, and the length is obtained from the initial length of the value parameter.   If the GATT application callback was installed, the response of this command is indicated by the GATTDBDynamic-AddCharacteristicDeclarationAndValue.Indication command. The following example shows how to prepare this command to define the battery level characteristic in the database with a fixed length of 1 byte and an initial value of 90%. GATTDBDynamic-AddCharacteristicDescriptor.Request It adds a characteristic descriptor to the database. It has 5 parameters that should be configured, the UUID type (16 bits, 32 bits, 128 bits), UUID value, length of the descriptor value, descriptor’s value, and descriptor access permissions. The descriptor declared using this command, belongs to the last characteristic declared in the database.   If the GATT application callback was installed, the response of this command is indicated by the GATTDBDynamic-AddCharacteristicDescriptor.Indication command. The following example shows how to prepare this command to add the characteristic presentation format descriptor of the battery level characteristic in the database.   GATTDBDynamic-AddCccd.Request It adds a CCDD into the database. This command does not have parameters. The CCCD declared using this command, belongs to the last characteristic declared in the database. The response of this command is indicated by GATTDBDynamic-AddCccd.Indication.   GATTDB-FindServiceHandle.Request This command is used to find the handle of a service previously declared in the database. It has 3 parameters that should be configured, the handle to start the search (should be 1 on the first call), the UUID type of the service to find (16 bits, 32 bits, 128 bits), and the UUID value of the service that you are searching.   If the GATT application callback was installed, the response of this command is indicated by the GATTDB-FindServiceHandle.Indication command, which contains the handle of the found service. The following example shows how to prepare this command to find the handle of the battery service declared in the previous examples. Notice that the result of the search corresponds to the handle returned by the GATTDBDynamic-AddPrimaryServiceDeclaration.Indication as expected.   GATTDB-FindCharValueHandleInService It finds the characteristic´s handle of a given service previously declared in the database. It has 3 parameters that should be configured, the handle of the service that contains the characteristic, the UUID type of the characteristic to find (16 bits, 32 bits, 128 bits), and the UUID value of the characteristic that you are searching for.   If the GATT application callback was installed, the response of this command is indicated by the GATTDB-FindCharValueHandleInService.Indication command, which contains the handle of the found characteristic’s value. The following example shows how to prepare this command to find the handle of the battery level value. Notice that the result of the search corresponds to the handle returned by the GATTDBDynamic-AddCharacteristicDeclarationAndValue.Indication plus one, because the AddCharacteristicDeclarationAndValueIndication command returns the handle of the characteristic and, on the other hand, FindCharValueHandleInService returns the handle of the characteristic’s value. GATTDB-FindDescriptorHandleForcharValueHandle.Request It finds the descriptor´s handle of a given characteristic previously declared in the database. It has 3 parameters that should be configured, the handle of the characteristic’s value that contains the descriptor, the UUID type of the descriptor to find (16 bits, 32 bits, 128 bits), and the UUID value of the descriptor that you are searching.   If the GATT application callback was installed, the response of this command is indicated by the GATTDB-FindDescriptorHandleForCharValueHandle.Indication command, which contains the handle of the found descriptor. The following example shows how to prepare this command to find the handle of the characteristic presentation format descriptor. The result corresponds to the handle returned by the GATTDBDynamic-AddCharacteristicDescriptor.Indication   GATTDB-FindCccdHandleForCharValueHandle.Request It finds the CCCD’s handle of a given characteristic previously declared in the database. It has only one parameter, the handle of the characteristic’s value that contains the CCCD.   If the GATT application callback was installed, the response of this command is indicated by the GATTDB-FindCccdHandleForCharValueHandle.Indication command, which contains the handle of the found CCCD. The following example shows how to prepare this command to find the handle of CCCD. The result corresponds to the handle returned by the GATTDBDynamic-AddCccd.Indication.   GATTDB-WriteAttribute.Request It writes the value of a given attribute from the application level. It has 3 parameters that should be configured, the handle of the attribute that you want to write, the length of the value in bytes, and the new value.   In the following example, we will modify the battery level characteristic’s value from 90% to 80%.   GATTDB-ReadAttribute.Request   It reads the value of a given attribute from the application level. It has 2 parameters that should be configured, the handle of the attribute that you want to read, and the maximum bytes that you want to read. The GATT application callback must be installed, since the response of this command indicated by the GATTDB-ReadAttribute.Indication command contains the value read from the database. In the following example, we will read the battery level characteristic’s value, the result is 80%.      
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This post covers the below details. Introduction to Framework Serial Communication Interface (FSCI). BLE Server. Useful Commands to create a GATT database. Demonstrate the heart rate sensor profile using the FSCI black box application with Test Tool. Framework Serial Communication Interface The Framework Serial Communication Interface (FSCI) is a software module and a protocol that supports interfacing the Protocol Host Stack (i.e. BLE, Thread, and ZigBee) with a host or a PC tool (Test Tool for Connectivity Products) using a serial communication interface (e.g. UART, USB, SPI, and I2C). The below figure shows interaction between different layers.  Figure 1. System Overview The Host Processor (Application layer and control for Connectivity Stack) The Black Box application (APIs to interact with the Connectivity Stack) The below figure illustrates Interfacing between the host processor and black box application.  Figure 2. Protocol stack separation The Test Tool software for the connectivity products is an example of a host processor that can communicate with FSCI black boxes at various layers. The figure below shows FSCI based application structure.  Figure 3. FSCI based Application Structure The FSCI module executes in the context of the Serial Manager task. For more details regarding FSCI and Serial Manager module refer to the ‘Connectivity Framework Reference Manual.pdf’ document available inside SDK Documentation at location <SDK_Documentation\docs\wireless\Common>. The detailed description of the Bluetooth Low Energy Host Stack serial commands, communication packet structure, and usage of the Framework Serial Communication Interface is provided inside the ‘Bluetooth Low Energy Host Stack FSCI Reference Manual.pdf’ document available inside SDK Documentation at location <SDK_Documentation\docs\wireless\Bluetooth>. The detail about FSCI Host is described here. An example of FSCI based BLE temperature sensor application is described in AN12896. Bluetooth Low Energy Server Bluetooth Low Energy allows exchange of information using the Generic Attribute Profile (GATT), GATT defines below two roles: Server: Device that stores the information. Client: Device that request for information from the server. Going forward, this post describes how to implement a BLE Server using the FSCI black box application with Test Tool. The server device can implement the GATT Database using below two methods. Static database: MACROs are used to add services, characteristics, etc. Dynamic database: APIs are used to add services, characteristics, etc. It is useful when runtime database update is required. This is the approach used by FSCI for the management of GATT databases. The below figure shows an example of database hierarchy.  Figure 4. GATT Database Service: It is a set of information. i.e., sensor location, sensor read value, etc. Bluetooth SIG has defined universally unique identifier (UUID) for various services and characteristics. This UUID will be useful to add services and characteristics to the database. Heart Rate, Battery Information, Device Information are examples of the service. Characteristic and value: It is the actual entity where information and its value are stored when the characteristic and value are added into the database. i.e., Device information service can have characteristics like manufacturer name, model string, Hardware version, etc. Descriptor: It is used to provide additional information regarding the characteristic and its value, e.g. format, scale, unit, etc. Client Characteristic Configuration Descriptor (CCCD): It is a descriptor used by the client device to enable or disable the notifications or indications. When the specific component is added using GATT_DB APIs, the stack will assign a handle to that component to index it in the database. Useful commands to create GATT database FSCI provides a set of commands for the management of the GATT Database. The most used ones are described below. Table 1 Some of the Basic GATT_DB Command Command Description No. of Handle assigned GATTDBDynamic-AddPrimaryServiceDeclaration.Request To add the primary service. 1 GATTDBDynamic-AddCharacteristicDeclarationAndValue.Request To add the characteristic and its value. It will be added as part of previously added service. 2 GATTDBDynamic-AddCharacteristicDescriptor.Request To add the descriptor for the previously added characteristic. 1 GATTDBDynamic-AddCccd.Request To add the CCCD for the previously added characteristic. 1 The attached Test Tool macro file demonstrates steps and setup required to implement a Heart Rate Sensor profile. The steps to execute it are described in the attached lab guide.
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I want to share with you the information that I found about Indication and notification. I hope this information help you to understand more about these topics. Indication and notifications are commands that could be send through the attribute(ATT) protocol. So, there are two roles defined at the ATT layer: Client devices access remote resources over a BLE link using the GATT protocol. Usually, the master is also the client but this is not required or mandatory. Server devices have the GATT database, access control methods, and provide resources to the remote client. Usually, the slave is also the server. BLE standard define two ways to transfer data for the server to the client: notification and indication. Maximum data payload size defined by the specification in each message is 20 bytes. Notifications and indications are initiated by the Server but enabled by the Client. Notification don't need acknowledged, so they are faster. Hence, server does not know if the message reach to the client. Indication need acknowledged to communicated. The client sent a confirmation message back to the server, this way server knows that message reached the client. One interesting thing defined by the ATT protocol is that a Server can't send two consecutive indications if the confirmation was not received. In other words, you have to wait for the confirmation of each indication in order to send the next indication. Figure 1. Indication/Notification Nevertheless, server are not able to send indications or notifications at the beginning of the communication. First, client must enable notifications and indications permissions on the server side, so, the server is allowed to send indications or notifications. This procedure involves the client to write the Client Characteristic Configuration Descriptor (CCCD) of the characteristic that will be notified/indicated. In other words, the client may request a notification for a particular characteristic from the server. Once the client enabled the notifications for such characteristic in the server, server can send the value to the client whenever it becomes available. For example, thinking in a heart rate sensor application connecting to Heart Rate smartphone application. Heart Rate Service can notify its Heart Rate Measurement Characteristic.  In this case, the sensor is the server while the smartphone is the client. Once devices are connected, smartphone application must set the notifications permissions of the Heart Rate Measurement Characteristic through its CCCD. Then, when smartphone application(client) set the CCCD withe notifications enabled, Heart Rate Sensor (server) is able to send notifications whenever a heart rate measurement is available. This same procedure is needed if the characteristic has indication properties.  At the end, the client is the one that allow the server to indicate or notify a characteristic. Finally, it is worth to comment that unlike notification, the indication is more reliable, but slower, because the server sends the data but the client must to confirm when data is received.
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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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The SMAC & IEEE 802.15.4 protocol stacks are a KSDK add-on, therefore you need the installation of the KSDK 1.2 before installing these connectivity stacks. Install the Kinetis SDK 1.2: Software Development Kit for Kinetis MCUs|Freescale After installing the KSDK 1.2, download the desired protocol stack. The connectivity software for this platform can be found in the board webpage, in the downloads tab: Modular Reference Boards for Kinetis KW0x|Freescale The installation window will guide you through an easy way to install the software. Best regards, Luis Burgos.
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One of the most difficult part of creating connected medical applications is, actually, keep it connected. Different protocols are available to transmit information from a medical device to a database or user interface. Sometimes integrating our application to the current communication protocols can be as difficult as developing the device itself. Freescale has launched its Bluetooth® Low Energy (BLE) chips, and with them, a complete software stack that integrates most of the available profiles for BLE oriented applications. Using this set, it becomes easy to integrate your current medical application to use BLE as communications method. Freescale Connectivity Software Examples The connectivity software includes examples to demonstrate BLE communications with a smartphone device. Using these examples as a base facilitates the integration with an existing application and reduces the required time it takes to have a fully connected application. This post uses as an example the Heart Rate Monitor demo to show how these applications can be customized. Modifying general device information The BLE services information reported by the device is stored in a file named “gatt_db.h”. This services information is what is shown on a smartphone when the device has connected. The Generic Access Profile service includes the device name reported when advertising. To change it just replace the device name between “” and update the character count. Detailed device information is accessed via the Device Information Service including the manufacturer name, model and serial number etcetera. This information can also be adjusted to the custom device requirements by modifying the string between “” and updating the character number. Adapting example code to report application data The connectivity software includes some predefined services that can be used to customize the server to report our application data. These predefined services already include structures with the information that needs to be reported to the client. On the application example file app.c some of these services are configured. For the heart rate service, a variable of type hrsConfig_t is created containing configuration information of the heart rate sensor such as the supported characteristics and sensor location. All of these characteristics are described in the heart rate service file heart_rate_interface.h /* Service Data*/ static basConfig_t      basServiceConfig = {service_battery, 0}; static disConfig_t      disServiceConfig = {service_device_info}; static hrsUserData_t    hrsUserData; static hrsConfig_t hrsServiceConfig = {service_heart_rate, TRUE, TRUE, TRUE, gHrs_BodySensorLocChest_c, &hrsUserData}; static uint16_t cpHandles[1] = { value_hr_ctrl_point }; /*! Heart Rate Service - Configuration */ typedef struct hrsConfig_tag {     uint16_t             serviceHandle;     bool_t               sensorContactSupported;     bool_t               sensorContactDetected;     bool_t               energyExpandedEnabled;     hrsBodySensorLoc_t   bodySensorLocation;     hrsUserData_t        *pUserData; } hrsConfig_t; This information is used to configure the server when the function BleApp_Config is called. /* Start services */ hrsServiceConfig.sensorContactDetected = mContactStatus; #if gHrs_EnableRRIntervalMeasurements_d    hrsServiceConfig.pUserData->pStoredRrIntervals = MEM_BufferAlloc(sizeof(uint16_t) * gHrs_NumOfRRIntervalsRecorded_c); #endif    Hrs_Start(&hrsServiceConfig); basServiceConfig.batteryLevel = BOARD_GetBatteryLevel(); Bas_Start(&basServiceConfig); /* Allocate application timers */ mAdvTimerId = TMR_AllocateTimer(); Once the server is configured, the application is stated by entering the device in advertising state in order to make it visible for clients. This is done by calling the function BleApp_Advertise that configures the server to start advertising. void BleApp_Start(void) { /* Device is not connected and not advertising*/ if (!mAdvState.advOn) { #if gBondingSupported_d if (mcBondedDevices > 0) { mAdvState.advType = fastWhiteListAdvState_c; } else { #endif mAdvState.advType = fastAdvState_c; #if gBondingSupported_d } #endif BleApp_Advertise(); } #if (cPWR_UsePowerDownMode)    PWR_ChangeDeepSleepMode(1); /* MCU=LLS3, LL=DSM, wakeup on GPIO/LL */ PWR_AllowDeviceToSleep(); #endif       } Once the server has been found and a connection has been stablished with the client, the configured services must be started. This is done by calling the “subscribe” function for each service. For heart rate sensor, the function Hrs_Suscribe must be called. This function is available from the heart_rate_interface files. /* Subscribe client*/ Bas_Subscribe(peerDeviceId);        Hrs_Subscribe(peerDeviceId); #if (!cPWR_UsePowerDownMode)  /* UI */            During connection, the application measurements can be reported to the client by using the “record measurement” functions included in the service interfaces. For the heart rate sensor this is the Hrs_RecordHeartRateMeasurement function. static void TimerMeasurementCallback(void * pParam) { uint16_t hr = BOARD_GetPotentiometerLevel(); hr = (hr * mHeartRateRange_c) >> 12; #if gHrs_EnableRRIntervalMeasurements_d    Hrs_RecordRRInterval(&hrsUserData, (hr & 0x0F)); Hrs_RecordRRInterval(&hrsUserData,(hr & 0xF0)); #endif if (mToggle16BitHeartRate) { Hrs_RecordHeartRateMeasurement(service_heart_rate, 0x0100 + (hr & 0xFF), &hrsUserData); } else { Hrs_RecordHeartRateMeasurement(service_heart_rate, mHeartRateLowerLimit_c + hr, &hrsUserData); } Hrs_AddExpendedEnergy(&hrsUserData, 100); #if (cPWR_UsePowerDownMode) PWR_SetDeepSleepTimeInMs(900); PWR_ChangeDeepSleepMode(6); PWR_AllowDeviceToSleep();    #endif } This updates the current measurement and sends a notification to the client indicating that a new measurement report is ready. Many profiles are implemented in the connectivity software to enable already developed medical applications with BLE connectivity. APIs are easy to use and can significantly reduce the development times.
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802.15.4 wireless sniffers like the USB-KW41Z are capable of capturing over-the-air traffic. The captured packets are passed to a network protocol decoder like Wireshark over a network interface tunnel built by the Kinetis Protocol Analyzer.   Hardware  One USB-KW41Z preloaded with sniffer firmware ( instructions found at www.nxp.com/usb-kw41z )  Software Download & Install Thread Wireshark from wireshark.org which is an open-source network protocol analyzer capable of debugging over the air communication between Thread devices. Kinetis Protocol Analyzer is a software that provides a bridge between the USB-KW41 and Wireshark.  Wireshark Configuration  Open Wireshark from the Program Files Click Edit and select Preferences  Click Protocols to expand a list of protocols Select IEEE 802.15.4, click the Decryption Keys Edit... button Create a new key entry by pressing the plus button, then set the following values and click OK       Decryption key = 00112233445566778899aabbccddeeff      Decryption key index = 1      Key hash = Thread hash Find CoAP and configure it with CoAP UDP port number = 5683 Click Thread and select Decode CoAP for Thread  with Thread sequence counter = 00000000 as shown below At the 6LoWPAN preferences, add the Context 0 value of fd00:0db8::/64 Click OK and close Wireshark Configure Kinetis Protocol Analyzer  Connect the USB-KW41Z to one of the USB ports on your computer Open the device manager and look for the device connected port Open the "Kinetis Protocol Analyzer Adapter" program Make sure, you have a USB-KW41Z connected to your PC when opening the program because the Kinetis Protocol Adapter will start looking for kinetis sniffer hardware. Once the USB-KW41Z is detected, the previously identify COM port will be displayed Select the desired IEEE 802.15.4 channel to scan in the Kinetis Protocol Analyzer window. This guide selects channel 12 as an example  Click on the Wireshark icon to open Wireshark Network Protocol Analyzer An error may appear while opening Wireshark, click OK and continue Wireshark Sniffing Wireshark Network Analyzer will be opened. On the "Capture" option of the main window, select the Local Area Connection that was created by the Kinetis Protocol Analyzer, in this example, Kinetis Protocol Analyzer created "Local Area Connection 2", then click "Start" button. USB-KW41Z will start to sniff and upcoming data will be displayed in the "Capture" window of the Wireshark Network Protocol Analyzer.
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This document describes how to add additional cluster to the router application in the AN12061-MKW41Z-AN-Zigbee-3-0-Base-Device Application Note.   The Router application's main endpoint contains Basic, Groups, Identify and OnOff server. The steps below describe how to add two clusters to Router: Temperature Measurement server and OnOff client. Note that these changes only go as far as making the new clusters added and discoverable, no functionality has been added to these clusters. Router/app_zcl_cfg.h The first step is to update the application ZCL Configuration file to add the new clusters (OnOff Client, Temperature Measurement Server) to the Router application endpoint. The HA profile already contains few clusters but Temperature Measurement cluster was added:   /* Profile 'HA' */ #define HA_ILLUMINANCEMEASUREMENT_CLUSTER_ID (0x0400) #define HA_DEFAULT_CLUSTER_ID                (0xffff) #define HA_OTA_CLUSTER_ID                    (0x0019) #define HA_TEMPMEASUREMENT_CLUSTER_ID        (0x0402) Router/app_zcl_globals.c The OnOff client was already present in Router endpoint but made discoverable and the Temperature Measurement cluster was added and made discoverable into Router application endpoint.The clusters are added to the Input cluster list (Server side) and output cluster list (Client side) and made discoverable using DiscFlag only for the cluster list for which it is enabled. So, assuming you need to add OnOff cluster client, you would need to use add the cluster id (0x0006 for OnOff) into input cluster list (Server side of cluster) and output cluster list (Client side of the cluster) and make it discoverable for output cluster list as it is a client cluster. For temperature measurement, you need to make it discoverable for input Cluster list as below: PRIVATE const uint16 s_au16Endpoint1InputClusterList[6] = { 0x0000, 0x0004, 0x0003, 0x0006, HA_TEMPMEASUREMENT_CLUSTER_ID , 0xffff, }; PRIVATE const PDUM_thAPdu s_ahEndpoint1InputClusterAPdus[6] = { apduZCL, apduZCL, apduZCL, apduZCL, apduZCL, apduZCL, }; PRIVATE uint8 s_au8Endpoint1InputClusterDiscFlags[1] = { 0x1f }; PRIVATE const uint16 s_au16Endpoint1OutputClusterList[5] = { 0x0000, 0x0004, 0x0003, 0x0006, HA_TEMPMEASUREMENT_CLUSTER_ID, }; PRIVATE uint8 s_au8Endpoint1OutputClusterDiscFlags[1] = { 0x08 }; Now update Simple Descriptor structure (see the declaration of zps_tsAplAfSimpleDescCont and ZPS_tsAplAfSimpleDescriptor structures to understand how to correctly fill the various parameters) to reflect the input cluster and output cluster list correctly as below : PUBLIC zps_tsAplAfSimpleDescCont s_asSimpleDescConts[2] = { {    {       0x0000,       0,       0,       0,       84,       84,       s_au16Endpoint0InputClusterList,       s_au16Endpoint0OutputClusterList,       s_au8Endpoint0InputClusterDiscFlags,       s_au8Endpoint0OutputClusterDiscFlags,    },    s_ahEndpoint0InputClusterAPdus,    1 }, {    {       0x0104,       0,       1,       1,       6,       5,       s_au16Endpoint1InputClusterList,       s_au16Endpoint1OutputClusterList,       s_au8Endpoint1InputClusterDiscFlags,       s_au8Endpoint1OutputClusterDiscFlags,    },    s_ahEndpoint1InputClusterAPdus,    1 }, }; Router/zcl_options.h This file is used to set the options used by the ZCL. Enable Clusters The cluster functionality for the router endpoint was enabled: /****************************************************************************/ /*                             Enable Cluster                               */ /*                                                                          */ /* Add the following #define's to your zcl_options.h file to enable         */ /* cluster and their client or server instances                             */ /****************************************************************************/ #define CLD_BASIC #define BASIC_SERVER #define CLD_IDENTIFY #define IDENTIFY_SERVER #define CLD_GROUPS #define GROUPS_SERVER #define CLD_ONOFF #define ONOFF_SERVER #define ONOFF_CLIENT #define CLD_TEMPERATURE_MEASUREMENT #define TEMPERATURE_MEASUREMENT_SERVER Enable any optional Attributes and Commands for the clusters /****************************************************************************/ /* Temperature Measurement Cluster - Optional Attributes */ /* */ /* Add the following #define's to your zcl_options.h file to add optional */ /* attributes to the time cluster. */ /****************************************************************************/ #define CLD_TEMPMEAS_ATTR_TOLERANCE /****************************************************************************/ /* Basic Cluster - Optional Commands */ /* */ /* Add the following #define's to your zcl_options.h file to add optional */ /* commands to the basic cluster. */ /****************************************************************************/ #define CLD_BAS_CMD_RESET_TO_FACTORY_DEFAULTS /****************************************************************************/ /* OnOff Cluster - Optional Commands */ /* */ /* Add the following #define's to your zcl_options.h file to add optional */ /* commands to the OnOff cluster. */ /****************************************************************************/ #define CLD_ONOFF_CMD_OFF_WITH_EFFECT  Add the cluster creation and initialization into ZigBee Base device definitions The cluster functionality for some of the clusters (like OnOff Client) is already present on ZigBee Base Device. For Temperature Measurement cluster the functionality was added into ZigBee Base Device. <SDK>/middleware/wireless/Zigbee_3_0_6.0.6/core/ZCL/Devices/ZHA/Generic/Include/base_device.h The first step was including the Temperature Measurement header files into base device header file as shown below:  #ifdef CLD_TEMPERATURE_MEASUREMENT #include "TemperatureMeasurement.h" #endif The second step was adding cluster instance (tsZHA_BaseDeviceClusterInstances) into base device Instance as shown below: /* Temperature Measurement Instance */ #if (defined CLD_TEMPERATURE_MEASUREMENT) && (defined TEMPERATURE_MEASUREMENT_SERVER) tsZCL_ClusterInstance sTemperatureMeasurementServer; #endif The next step was to define the cluster into the base device structure (tsZHA_BaseDevice) as below: #if (defined CLD_TEMPERATURE_MEASUREMENT) && (defined TEMPERATURE_MEASUREMENT_SERVER) tsCLD_TemperatureMeasurement sTemperatureMeasurementServerCluster; #endif <SDK>/middleware/wireless/Zigbee_3_0_6.0.6/core/ZCL/Devices/ZHA/Generic/Include/base_device.c The cluster create function for Temperature Measurement cluster for server was called in ZigBee base device registration function:   #if (defined CLD_TEMPERATURE_MEASUREMENT) && (defined TEMPERATURE_MEASUREMENT_SERVER)    /* Create an instance of a Temperature Measurement cluster as a server */    if(eCLD_TemperatureMeasurementCreateTemperatureMeasurement(&psDeviceInfo->sClusterInstance.sTemperatureMeasurementServer,                                                    TRUE,                                                    &sCLD_TemperatureMeasurement,                                                    &psDeviceInfo->sTemperatureMeasurementServerCluster,                                                    &au8TemperatureMeasurementAttributeControlBits[0]) != E_ZCL_SUCCESS)   {       return E_ZCL_FAIL;    } #endif Router/app_zcl_task.c Temperature Measurement Server Cluster Data Initialization - APP_vZCL_DeviceSpecific_Init() The default attribute values for the Temperature Measurement clusters are initialized: PRIVATE void APP_vZCL_DeviceSpecific_Init(void) {    sBaseDevice.sOnOffServerCluster.bOnOff = FALSE;    FLib_MemCpy(sBaseDevice.sBasicServerCluster.au8ManufacturerName, "NXP", CLD_BAS_MANUF_NAME_SIZE);    FLib_MemCpy(sBaseDevice.sBasicServerCluster.au8ModelIdentifier, "BDB-Router", CLD_BAS_MODEL_ID_SIZE);    FLib_MemCpy(sBaseDevice.sBasicServerCluster.au8DateCode, "20150212", CLD_BAS_DATE_SIZE);    FLib_MemCpy(sBaseDevice.sBasicServerCluster.au8SWBuildID, "1000-0001", CLD_BAS_SW_BUILD_SIZE);    sBaseDevice.sTemperatureMeasurementServerCluster.i16MeasuredValue = 0;    sBaseDevice.sTemperatureMeasurementServerCluster.i16MinMeasuredValue = 0;    sBaseDevice.sTemperatureMeasurementServerCluster.i16MaxMeasuredValue = 0; }
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