Demo See NXP breakthrough automotive designs using radar that enhance safety and the driver experience with ADAS and other safety applications Products S32R27 Radar Processor • CPU: Dual Z7’s with Lock-step Z4 enabling ASIL-D applications • Embedded memory: 2 MB Flash & 1.5 MB SRAM (both ECC) • Radar signal processing toolkit: best in class performance per power MR3003 Radar Transceiver • Fully integrated SiGe radar front end for 76-81 GHz • Tx 5-bit phase rotators, and Tx BPSK modulator • 3 transmitter and 4 receiver channels • ISO 26262 compliant – ASIL level B • Optimized for fast chirp modulation • Support for 4 GHz bandwidth TEF810X Radar Transceiver • Fully integrated RFCMOS radar front end for 76-81 GHz • 3 transmitter and 4 receiver channels • LVDS, CIF and CSI-2 interface • ISO 26262 compliant – ASIL level B • Lowest power: 1.2 W • Support for 4 GHz bandwidth

  Overview NXP solutions enable AD/DC chargers in hybrid electric vehicles (HEV). The AD/DC charger interfaces with the battery management system to ensure a proper charge of electricity of the cells until it fulfills high-voltage (HV) requirements. Our comprehensive portfolio provides the critical building blocks for high-performance, efficient and safe pawer management control system for electric traction motors.   Use Cases This solution can be applied and various sectors of the industry, specially in the automotive field. NXP solutions enable Hybrid and Electric Vehicles applications as: Converters and Chargers Stop/Start Systems Power inverters   Block Diagram Products Category MCU Product URL S32K144EVB: S32K144 Evaluation Board  Product Description The S32K144EVB is a low-cost evaluation and development board for general purpose automotive applications.   Category Safety SBC Product URL 1 FS6500: Grade 1 and Grade 0 Safety Power System Basis Chip with CAN Flexible Data Transceiver  Product Description The NXP® FS6500 system basis chip (SBC) provides power to MCUs and optimizes energy consumption through DC/DC switching regulators, linear regulators, and ultra-low-power saving modes.   Category RTC Product URL PCA85073A: Automotive tiny Real-Time Clock/Calendar with alarm function and I2C-bus  Product Description The PCA85073A is a CMOS1 Real-Time Clock (RTC) and calendar optimized for low power consumption.   Category Serial Interface Product URL  MC33660: ISO K Line Serial Link Interface  Product Description The NXP® MC33660 is a serial link bus interface device designed to provide bi-directional half-duplex communication interfacing in automotive diagnostic applications.

Most of the Ethernet PHY support multi-functions and provide much more flexible configure capability to fine tune timing or function enable by configure their registers. Ethernet PHY registers tool provide a simple way to read/write PHY registers by MDC/MDIO. This will help in development or issue debug. 

This post entry provides a detailed description of how to develop an NFC pairing solution for audio devices. For that, we will describe in detail an audio speaker prototype made by NXP. This post entry has been structured as follows: Use cases for Bluetooth and Wi-Fi pairing via NFC As the number of connected devices grow, the more important it becomes to connect them in a simple way. At the same, it is required to provide a consistent and pleasant user experience. NFC pairing is one popular NFC use case, just bringing two NFC-enabled devices close together is all it takes to create a connection. For instance: To connect to your TV, to transfer a video from your phone, or sharing screens between your tablet and the TV. To connect to your camera to transfer pictures. To connect your phone to a wireless speaker. To connect your new devices to the home network. To connect to your wearables to read your heart rate. Or, to set-up a multi-audio system with NFC. Precisely, this post will guide you through the implementation of the NFC pairing solution for a multi-audio system. Benefits offered by the NFC pairing solution There are several benefits to consider adding NFC to your consumer device. First, from the consumer perspective: It provides a faster and simpler way to link wireless devices, only one touch. The credentials for establishing this connection are exchanged in a secure way. The device is identified instantly, without conflicts. In addition, from the manufacturer perspective, the benefits come mainly from: Making the device more attractive, by adding a new feature. And making the device easier to use, reducing the cost associated to customer technical support. Overall, NFC pairing is an interesting solution since it combines the simple, one-touch setup of NFC with the higher speed, longer distance communication of BT or Wi-Fi networks Pair and unpair Bluetooth headsets with just a tap with NFC NFC pairing process steps To pair and send music to a BT headset is as simple as: Select and play a music track in our phone. Tap the BT headset with the phone. When doing so, the BT pairing credentials are exchanged securely via NFC without any manual settings. The phone automatically initiates a BT connection request. After a second, audio is streamed via BT to the headset without entering any manual configuration. Furthermore, this is not only restricted to phones and headsets, but in general between any two NFC-enabled devices. Therefore, it is also possible to pair and send music to two Bluetooth headsets at the same time, creating what is known as “a silent disco”. Again, the process is simple: First, tap the two headsets with NFC capabilities. When doing so, the headsets automatically exchange the pairing credentials. The headsets establish a BT connection. And audio is streamed between them without requiring any manual setting. Similarly, instead of creating a silent disco, wireless speakers can be paired together via NFC to create a multi-audio system.  As such, NFC offers a real one-touch solution. It works with any NFC phone and no dedicated app needs to be installed. NFC unpairing process steps To stop sending music and un-pair the headset is easy as well. A second tap is the only action required to disconnect the headsets. After the tap, the second headset automatically de-activates the audio streaming and switches off. Best of all, we have instant identification of the device to be disconnected. Therefore, zero chances to unpair the wrong device as might happen through the phone settings, where we can unintentionally pick the wrong one. Multi-audio wireless speaker demo with NFC pairing capabilities During the rest of this post, we will tear-down an NFC multi-audio wireless speaker prototype developed by NXP based on PN7120 NFC controller solution. Hardware architecture This demo consists of two speakers with the same components, and therefore, the same functionality. If we dismount one of the speakers, the components we can find in the device PCB are: A system on chip solution, with an application processor, embedded flash memory and BT wireless connectivity. A system crystal clock, the BT antenna and two audio speakers A power supply unit, which includes three 1.5V batteries providing a stable 1.8V output. A NFC reader module, based on PN7120 chip, with an integrated antenna and a compact form factor. Application circuit for Bluetooth power on by NFC triggering If we have a closer look to the power unit interface, we see that: The VBAT pin is directly connected to the batteries. (PN7120 it supports a wide range of power supply voltages, from 5.5V down to 2.75V) The pad supply (PVDD), for the host interface operation, is connected to the 1.8V from the PMU. A wake-up trigger is built so that the BT controller is powered when an RF-field is detected. Regarding the host interface between the NFC controller and the main system MCU: The PN7120 module is connected to the BT controller via I2C slave interface. It supports standard, fast and high speed I2C modes (100 kHz SCL, 400 kHz SCL, 3.4 MHz SCL) The corresponding pull-up resistors are connected on the data and clock lines (SDA and SCL). The IRQ pin is used for ensuring the data flow control between PN7150 and the BT controller. The VEN (RESET) pin, used for setting the device in hard power down mode.  And, in respect to the antenna interface: The PN7120 VGA package Some discrete components for the antenna matching And the antenna coil surrounding the PCB edge. Software architecture and NCI interface In this section, we detail the solution software stack and how the NFC application logic works within the overall system. Using the block diagram, we have added the software blocks in orange.First, the PN7120 module includes: The NCI firmware & transport mapping layer for I2C communication (nothing to take care of from the developer side, since this firmware already comes embedded in the chip). Similarly, the host controller side requires: The NCI driver & transport mapping layer to communicate with PN7120 On top of these layers, the application logic for the BT pairing is implemented. Finally, the BT stack for the audio streaming, , but this software piece is not detailed here as it is out of the scope of the NFC implementation. NFC controller interface (NCI) specification details NCI describes the internal interface between an NFC Controller and the main host platform (in this case, between PN7120 and the BT chip). NCI is defined by the NFC Forum organization. As such, it provides manufacturers with a standard interface they can use for whatever kind of NFC-enabled device they build (making integration easier, saving time and effort). The next figure represents the NCI architecture: At the bottom, we find the transport mapping blocks, which map the NCI protocol to an underlying physical connection (I2C, SPI, UART, etc) The NCI core defines the messages, commands and data format for the different communications On top, the NCI modules implement specific functionalities, like the RF discovery which configures the NFC controller to communicate with other NFC tags or devices. From the overall NCI architecture, this implementation makes use of: The transport mapping is the I2C block The RF discovery is configured so that the speaker iterates between the reader, card and P2P modes NFC controller interface: RF Discovery PN7120 firmware can combine the three NFC modes of operation using the RF Discovery as defined in NCI spec. The RF discovery is a cyclic activity which activates various modes of operation. This consists of a loop which alternates two phases: The polling and the listen phases. In the polling phase, the PN7150 acts as Reader or NFC Initiator for the P2P mode, searching for passive tags or an NFC target device. If no card or target was detected, it enters a listening phase, to potentially be activated as card or P2P target If no device to interact is detected in the polling or listening phase, it switches back to polling phase after a timeout. All RF technologies supported by PN7120 can be independently enabled within this discovery loop. However, the PN7120 is in poll phase generates RF field and consumes current. Therefore, the more technologies to be polled, the larger the average current consumption. Multi-audio speaker prototype: RF dscovery configuration To enable the speaker-to-speaker pairing functionality, each of the speakers needs: To have the capability to discover a remote speaker and initiate a pairing operation. Or the other way around, be discovered by a remote speaker to complete a pairing operation. To accomplish this, the speakers need to sequentially move from polling and listening phases. As such, the discovery loop configured in the application iterates between reader, P2P and card modes.During the polling phase, the speaker generates an RF field, and uses an NFC-A polling sequence looking for: A remote card or device in card emulation. If found, the NDEF data with the pairing info will be retrieved and processed. Next, it looks for a remote P2P device. If found, it pushes an NDEF message with the pairing info to this remote peer. On the other hand, during the listening phase, the speaker turns off its RF field and waits to be discovered by a remote device: If it is discovered while operating as P2P target, it will pull an NDEF message coming from the remote speaker. If it is discovered while operating in card mode, its NDEF message will be read by the remote speaker. The precise communication that takes place between the two speakers will differ every time. It will depend on the polling loop status of both speakers at the instant they are tapped. Application logic Until now, we have described how both speakers are discovered, and therefore, how they can start a communication to exchange pairing data via NFC. The next step is to  describe which data and which data format is used to exchange the pairing details. NFC Forum specifications The NFC Forum organization defined a set of specs explaining how to exchange pairing data over NFC in an interoperable way with just a tap, independent of the manufacturer and without installing any dedicated application for it. These are: Connection handover: This spec defines how two NFC devices can negotiate and activate an alternative communication carrier.  NDEF: The NDEF spec defines a message format to exchange data between NFC devices, including pairing data. Tag 1 Type to Tag 5 Type specs: These specs define how NFC devices can interact with five different types of tag technology. As a result, any NDEF message store in any of these five types of tags will be processed by any NFC-compliant device. NFC pairing: Static handover As mentioned earlier, how pairing data is transferred between the two speakers will depend on the discovery loop status. The static handover takes place when: One speaker is in reader mode / polling mode. (left hand side) The other speaker is in card mode / listening mode, showing a Type 4 Tag with an NDEF message on it (right hand side). The process is as follows: The speaker in reader mode activates RF field and generates a NFC-A polling sequence. The remote speaker in card mode responds to the polling command. The reader retrieves the NDEF data from the remote speaker, using the commands as defined in Type 4 tag NFC forum spec. The reader processes the carrier data from the NDEF message and establishes a BT connection according to BT protocol. The speaker in card emulation mode deploys a Handover Select NDEF record, advertising its BT carrier. In The NDEF message, we store: The BT device address (MAC address) Bluetooth local name (Friendly name for the user) Class of the device (e.g. headset, mobile, etc) This is the carrier data that will be used by the application to trigger the BT connection. After this proces, both devices start streaming music over BT. NFC pairing: Negotiated handover The other possibility is that when both speakers are tapped, they find themselves during the P2P operation. In such a situation, the pairing process will be conducted according to the Negotiated handover mechanism. One of them will take the role of initiator, the other the target role: The initiator will poll for target devices The target will respond to the initiator command The initiator will send a handover request message, with the carrier details The target will respond with a handover select message, indicating the selected carrier option. On the received data, the initiator will establish a connection according to BT protocol. After that, both devices start streaming audio over BT. In this case, both speakers exchange data with their alternative carrier capabilities, could be more than one. The initiator communicates to the target device its carrier capabilities with a Handover request record followed by an NDEF record per each available carrier (in this case, just one BT carrier). After that, the target replies to the initiator with the selected carrier to be used for the out of band data transfer. As before, the BT configuration in the NDEF message includes fields such as: BT address, device class, BT local name, and optional data if secure pairing according to BT spec is required.The key here is that, this negotiation protocol and these message formats are specified and defined in the NFC Forum specs, so they offer an interoperable solution for any compliant-platform Support package  This section details resources and information provided by NXP you can use to replicate your own multi-audio speaker solution with NFC pairing capabilities. PN71xx family of NFC controllers PN71xx family are solutions integrating an RF frontend together with an embedded microcontroller with dedicated FW and NCI interface. They fully comply with the NFC Forum, include Linux®, Android™, and WinIoT drivers and sample code for bare metal and RTOS integration. Additionally, they support direct supply from a battery, different power states and an ultra-low power polling loop. Their features make it ideal for NFC integration into any application, especially those with OS system. Hardware support From a hardware point of view, several demokits are available to evaluate PN71xx family. They interface into popular platforms, such as: Raspberry Pi BeagleBone Black Any board featuring an Arduino compatible header like LPCXpresso or Kinetis Freedom among others. In case you have to evaluate PN71xx into any other platform, these kits can be reused, The PN71xx board provides all required signal pins easily accessible so that you can design and build your own interface board for your target platform. Software support From a software support point of view,  device manufacturers can easily integrate PN71xx family in Linux, Android and Win IoT systems through the available SW drivers. But also, NXP supplies a set of code examples running on LPC and Kinetis MCUs for Bare metal RTOS integration. Precisely, the demo presented in this post, leverages on the NullOS/RTOS SW examples. The software example for PN71xx integration into RTOS / Bare metal system is made of 3 components: The NXP-NCI module offers an API for configuring, starting and processing the NFC device discovery The NDEF library offers an API for processing NDEF data over reader, card and p2p modes: The transport mapping layer providing HW abstraction for the host – NFC controller connection On top of it, developers can implement their own application. Available resources PN7120 product website: www.nxp.com/products/:PN7120 PN7120 demokits: www.nxp.com/products/:OM5577 PN7120 product website: http://www.nxp.com/products/:PN7150 PN7120 demokits: www.nxp.com/products/:OM5578 Reference source code and related documentation: https://www.nxp.com/doc/SW4325 and http://www.nxp.com/docs/en/application-note/AN11990.pdf  Video recorded session

Overview   RFID enhances theft protection by giving each animal a unique, encrypted identification. Meat industry stakeholders can improve disease control by storing and updating vaccination and movement data directly into each animal’s chip, or by correlating the identification number with this information in the backend system. Such traceability ensures consumers healthy and tasty meat, with clear proof of origin. The ability to track livestock and their movements allows governments to trace what occurs in the supply chain, and to tax each player appropriately. In the case of disease outbreaks, the technology makes it possible to identify which flocks have been affected, which helps to avoid unnecessary waste. Application Benefits of RFID Livestock Management   Provides proof of origin Verifies age and supports disease control Automates handling at farm and auction house Provides theft protection Supports storage and updating of vaccination and movement data   RFID Features Beneficial to Application Permanent identification No line-of-sight requirement Simultaneous multiple identification Robust and suitable for harsh environments Compliance with government mandates   Recommended Products   RFID Link HITAG 2 transponder IC HT2x | NXP  HITAG µ / Advanced / Advanced+ HTMS1x01 HTMS8x01 | NXP 

  Overview Smart, integrated building systems empower users to improve energy efficiency, lower maintenance costs, and conveniently control environments from smartphones and advanced HMIs. Their interconnected features house a platform of big data to make smarter, environmental-friendly decisions while ensuring maximum comfort and performance. Features Smart Peephole implement camera capture and LCD display function at the same time. Touch screen to trigger JPEG compression and storage. User can take it as a reference for basic framework for video transfer. Optional WiFi & BLE module to transmit the captured information to the user. Use Cases Home secure. Supervising children and pets. Loss prevention. Locating bugs and pests. Vandalism deterrence. Block Diagram Products Category MCU Product URL i.MX RT1050 Crossover MCU with Arm® Cortex®-M7 core  Product Description The i.MX RT1050 is the industry's first crossover MCU and combines the high-performance and high level of integration on an applications processors with the ease of use and real-time functionality of a microcontroller.   Category RTC Product URL PCF85063TP: Tiny Real-Time Clock/calendar  Product Description The PCF85063TP is a CMOS Real-Time Clock (RTC) and calendar optimized for low power consumption.   Category Wireless Product URL 1 QN902X: Ultra low power Bluetooth LE system-on-chip solution  Product Description 1 QN902x is an ultra-low power, high-performance and highly integrated Bluetooth LE solution. Product URL 2 88W8801: 2.4 GHz Single-Band 1x1 Wi-Fi® 4 (802.11n) Solution  Product Description 2 The 88W8801 is a highly integrated, single-band (2.4 GHz) Wi-Fi 4 1x1 System-on-Chip (SoC), specifically designed to support High Throughput (HT) data rates.

NXP Content: PN7462, NTAG I²C plus NXP Recommends: PN7462, NTAG I²C plus The NFC Cube is a universal demo with which all 3 basic NFC operation modes can be shown: Interaction between a device and a card or tag Interaction between 2 electronic devices (NFC as cable replacement) Interaction between a device and an NFC phone Value Propositions The NFC Cube is a universal NFC demo Support Under https://nxp.box.com/NFCcube you find more information and a video showing the NFC Cube in action.

  Overview In the past , the production operator has to manually locate the components and assemble the various components with the right quantity for assembly production . And it is prone to Human error . So a solution its needed to provide a faster turnaround time for the production operation to consolidate all necessary components for assembly production for various models and decrease the error for human factors. In this particular deployment , the system assist the production operator to get all necessary components for assembly production without making mistakes due to Human error and also in shortest possible time. The system deployed using JN5168, raises productivity level of the production operator. The system also keep track of the Components stock levels and when require replenishment , it will raise a notification to the system. Block Diagram Products Category Zigbee Product URL JN5169: ZigBee and IEEE802.15.4 wireless microcontroller with 512 kB Flash, 32 kB RAM  Product Description The JN5169 is an ultra low power, high performance wireless microcontroller suitable for ZigBee applications.   Category LCD Driver Product URL PCF8553DTT: 40 × 4 LCD segment driver  Product Description PCF8553 is an ultra low-power LCD segment driver with 4 backplane- and 40 segment-driver outputs, with either an I²C- or an SPI-bus interface.

  Overview For companies working on package drone delivery solutions, NXP technology provides a way to confirm that drones are operating within authorized airspace corridors, and then to secure an electronic signature before the drone sets down on the ground. The NXP electronic signature solution uses NXP Bluetooth Low Energy (BLE) to obtain a valid signature for delivery: The consumer would receive an electronic package notification via BLE to their mobile device The drone hovers over the delivery zone until it obtains the electronic signature After receiving the signature, the drone releases the package and returns to the point of origin, or it could travel to a nearby location for a package return Benefits For consumers: Drone delivery equals rapid, as well as reduced cost delivery, however, for both businesses and consumers need a way to verify parcel receipt. NXP’s electronic signature solution is efficient and non-invasive For businesses: Wireless signature confirmation ensures a level of protection of a valuable piece of commercial equipment (the drone), and reduces potential liability for loss due to theft or inaccurate parcel delivery For regulatory bodies: The electronic identification traveling with the drone helps ensure compliance with flight corridor restrictions, especially if those corridors require dynamic mapping   Block Diagram   Recommended Products Category Products Features BLE SoC K32W061/41 MCUs for Zigbee®, Thread, and Bluetooth® Low Energy 5.0 |NXP Multiprotocol RF | NXP  Powered by an Arm® Cortex®-M4 MCU and with 640 KB on-board flash and 152 KB SRAM.   KW39/38/37 32-bit Bluetooth 5.0 Long-Range MCUs|NXP | NXP  Bluetooth Low Energy version 5.0 and generic FSK radio.   QN9090/30(T) Bluetooth 5.0 Low Energy MCU with NFC | NXP  Low energy devices that achieve ultra-low-power consumption and integrate an Arm®Cortex®-M4 CPU Up to 640KB onboard flash and 152 KB SRAM Drone PX4 Robotic Drone FMU | RDDRONE-FMUK66 Proven business-friendly open source software with available enterprise support: PX4, QGroundControl Supports all airframes: Use it for Quadcopters, Hexacopter, VTOL, planes, rovers, cars, and other robots Rapid-IOT to Drone adapter board Rapid-IOT to Drone adapter board Adapter board fully designed for Rapid IoT Prototyping Kit UAVCAN communication between drone and Rapid IOT Works with PX4 flight controllers such as RDDRONE-FMUK66 or Pixhawk NXP Rapid IoT Prototyping Kit Rapid IoT Prototyping Kit Expandable to most IoT end-node use cases with 400+ Click boards Multiple sensors (Gyroscope, Acc/Mag., Barometer/Temp., Air Quality, Ambient light and capacitive touch)

Demo This demo shows an infotainment and ADAS system based on NXP Ethernet components and is divided in three main parts: Infotainment, Network and ADAS. In the infotainment part, a “Head Unit” ECU plays locally an MPEG movie and also streams it over Ethernet to the second “Rear Seat Unit” ECU. Both ECUs also execute in the backroad the NXP AVB SW stack. This enables the two ECUs to be perfectly synchronized with each other. Therefore the two ECUs can playback the very same video (and audio) frame at the same time on their local displays. In the network part the new Automotive Ethernet Switch (SJA1105EL) and PHYs (TJA1100HN) implement the Ethernet connectivity of the system. The switch executes the AVB “gPTP” synchronization SW that enables the infotainment application described above to operate. In the ADAS part a surround view camera captures a video stream and streams it to a “Cluster” ECU also connected via the automotive Ethernet network. The camera is based on the NXP “MPC5604E ” Salsa processor and on a competitor’s BroadR-Reach PHY. This also shows the interoperability of the TJA1100HN PHY with competitor’s products. Features: All displays are implemented with NXP i.MX6 processor, and a full implementation of the NXP Ethernet AVB Stack running on Linux. The camera is based on an NXP Salsa processor (MPC5304EKIT) . The Switch board that connects all displays and the camera uses the NXP SJA1105EL Automotive Ethernet switch and the TJA1100HN BroadR-Reach Ethernet PHY ______________________________________________________________________________________________________________ Featured NXP Products: Product Link IEEE 100BASE-T1 compliant Automotive Ethernet PHY Transceiver TJA1100HN | Automotive Ethernet PHY Transceiver | NXP  i.MX 6 Series i.MX 6 Series Applications Processors | Multicore Arm Cortex-A7/A9/M4 | NXP  Audio Video Bridging Software https://www.nxp.com/design/design-services/audio-video-bridging-software:AVB-SOFTWARE?&fsrch=1&sr=4&pageNum=1 Development Kit Enabling Video Over Ethernet with NXP® MPC5604E MCU NXP® MPC5604EKIT:Development Kit | NXP  ___________________________________________________________________________________________________________

Description A bicycle with an integrated electric motor and a rechargeable battery, making it an eco-friendly, zero-emission vehicle ideal for smart cities. An important feature of an E-Bike is that it must be reliable and can be used for long periods.   Block Diagram   Products Category Name 1: Microcontroller Product 1 URL 1 https://www.nxp.com/products/processors-and-microcontrollers/arm-microcontrollers/general-purpose-mcus/ke-series-cortex-m4-m0-plus/kinetis-ke02-20-mhz-entry-level-microcontrollers-mcus-based-on-arm-cortex-m0-plus-core:KE02 Product 1 Description 1 The Kinetis KE02 includes a powerful array of analog, communication and timing and control peripherals with specific flash memory size and the pin count. The K02 acts as a low-power, high-robustness, and cost-effective microcontroller with one 6-channel FlexTimer/PWM and two 2-channel FlexTimer/PWM. Product 2 URL 1 Arm® Cortex®-M4|Kinetis® K64 120 MHz 32-bit MCUs | NXP  Product 2 Description 1 Kinetis ®  K64-120 MHz, 256 KB SRAM Microcontrollers (MCUs) based on Arm ®  Cortex ® -M4 Core   Category Name 2: Gate driver Product 1 URL 1 https://www.nxp.com/products/power-management/motor-and-solenoid-drivers/bldc-h-bridge-stepper/3-phase-brushless-motor-pre-driver:GD3000 Product 1 Description 1 The GD3000 is a gate driver IC for three-phase motor drive applications providing three half-bridge drivers, each capable of driving two N-channel MOSFETs.   Category Name 3: LED Driver Product URL 1 https://www.nxp.com/products/power-management/lighting-driver-and-controller-ics/ic-led-controllers/16-channel-fm-plus-ic-bus-57-ma-20-v-constant-current-led-driver:PCA9955BTW Product Description 1 The PCA9955B is an I2C-bus controlled 16-channel constant current LED driver optimized for dimming and blinking 57 mA Red/Green/Blue/Amber (RGBA) LEDs in amusement products. Each LED output has its own 8-bit resolution (256 steps) fixed frequency individual PWM controller that operates at 31.25 kHz with a duty cycle that is adjustable from 0 % to 100 % to allow the LED to be set to a specific brightness value.   Category Name 4: Logic USB Type-C Configuration Channel Product URL 1 https://www.nxp.com/products/interfaces/usb-interfaces/usb-type-c-true-plugn-play/usb-pd-phy-and-cc-logic/cc-logic-for-usb-type-c-applications:PTN5150 Product Description 1 PTN5150 is a small thin low power CC Logic chip supporting the USB Type-C connector application with Configuration Channel (CC) control logic detection and indication functions. The PTN5150 enables USB Type-C connector to be used in both host and device ends of the Type-C cable   Category Name 5: Current-Limited Power Switch Product URL 1 https://www.nxp.com/products/power-management/load-switches/usb-pd-and-type-c-current-limited-power-switch:NX5P3290UK Product Description 1 The NX5P3290 includes under-voltage lockout, over-temperature protection, and reverse current protection circuits to automatically isolate the switch terminals when a fault condition occurs.   Category Name 6: Secure Product 1 URL 1 A71CH | Plug and Trust for IoT | NXP  Product Description 1 Plug and Trust - The fast, easy way to deploy secure IoT connections   Category Name 7: NFC Product 1 URL 1 PN5180 | Full NFC Forum-compliant frontend IC | NXP  Product Description 1 Full NFC Forum-compliant frontend IC   Category Name 8: GPIO Expander Product 1 URL 1 PCAL6534 | Level translating GPIO Expander | NXP  Product Description 1 Ultra-low-voltage, level translating, 34-bit I2C-bus/SMBus I/O expander   Category Name 8: NFC smartcard Product 1 URL 1 https://www.nxp.com/products/rfid-nfc/mifare-hf/mifare-desfire/mifare-desfire-ev2:MIFARE_DESFIRE_EV2_2K_8K Product Description 1 Secure, contactless multi-application IC with an enhanced feature set for Smart City applications Related Documentation   Document URL Title https://www.nxp.com/docs/en/application-note/AN10439.pdf Wafer-level chip-scale package https://www.nxp.com/docs/en/application-note/AN5322.pdf AN5322, TPMS wheel location introduction and main concepts Training Training URL https://community.nxp.com/docs/DOC-341509 Related Demos from Communities URL Kinetis Microcontrollers  MCUXpresso SDK  MCUXpresso Software and Tools  UAV Speed Control with Kinetis KV5x Cortex-M7 MCU and GD3000 Motor Pre-Drivers   

This doc explain the S32G STR feature details and how to modify it to integrate with M kernel STBY demo, to achieve the fast boot. chinese version: 本文说明S32G A53核STR详细情况及定 制，定制部分说明如何与M7 standby demo结 合，来实现整个产品的快速启动。 请注意本文为培训和辅助文档，本文不是 官方文档的替代，请一切以官方文档为准。 目录 1 参考资料说明 ............................................................. 2 2 Demo创建运行过程 ................................................... 2 3 Linux STR流程 ........................................................... 2 4 ATF Suspend流程 ..................................................... 5 4.1 Suspend流程 .......................................................... 5 4.2 Full boot resume流程 ............................................. 7 5 定制修改 .................................................................... 9 5.1 ATF中实现主核切换为M7 ....................................... 9 5.2 ATF中去掉PMIC与I2C4 ....................................... 11 5.3 ATF中去掉wkpu驱动 ............................................ 17 5.4 Uboot中去掉PMIC与I2C4 ..................................... 18 5.5 Kernel中去掉I2C4 ................................................ 19 6 发布 ......................................................................... 20   This article explains the details and customization of S32G A53 core STR. The customization part explains how to combine with M7 standby demo to realize the quick start of the whole product. Please note that this article is a training and auxiliary document. This article is not a substitute for the official document. Please refer to the official document. Contents 1    Reference materials. 2 2    STR Demo. 2 3    Linux STR call flow.. 2 4    ATF Suspend call flow.. 5 4.1  Suspend flow.. 5 4.2  Full boot resume flow.. 7 5    Customization. 9 5.1  The STR main core is switched to M7 in ATF. 9 5.2  ATF remove PMIC and I2C4. 11 5.3  ATF remove wkpu driver 17 5.4  Uboot remove PMIC and I2C4. 18 5.5  Kernel remove I2C4. 19 6    Release. 20

  Overview China stopped providing analog walkie talkie licenses which consequently has created a high demand for more digital walkie talkie applications. The digital walkie talkies transmits speech in the form of digital encoding. DMR (time division),is more widely used and has a communication speed of 9.6kbps so efficient compression algorithms are necessary. Digital walkie-talkie advantages: Less bandwidth than analog walkie talkie Can use encryption algorithm for higher security Easy networking High quality speech The Airfast® RF power portfolio brings extreme ruggedness and high gain to mobile radio applications. The high gain of our devices helps eliminate amplification stages and reduce system cost. Plus, the high efficiency of the portfolio allows customers to use smaller heatsinks and housing while improving reliability. The broadband capability of the mobile radio devices enables full performance across each band. Block Diagram Products Category MCU Product URL K24_120: Kinetis® K24-120 MHz, Full-Speed USB, 256KB SRAM Microcontrollers (MCUs) based on Arm® Cortex®-M4 Core  Product Description The Kinetis® K24 120 MHz MCU family targets low-power, cost-sensitive applications requiring high-performance processing efficiency and large memory densities.   Category Accelerometer Product URL MMA8653FC: ±2g/±4g/±8g, Low g, 10-Bit Digital Accelerometer  Product Description The NXP® MMA8653FC 10-bit accelerometer has industry leading performance in a small DFN package.   Category Secure Element Product URL A1006: Secure Authenticator IC - Embedded Security Platform  Product Description The Secure Authenticator IC is manufactured in a high-density submicron technology.   Category Audio Amplifier Product URL TDF8530TH: I2C-Bus Controlled Quad Channel 45 W / 2 Ω Class-D Power Amplifier with Full Diagnostics  Product Description The TDF8530 is a quad Bridge-Tied Load (BTL) car audio amplifier comprising an NDMOST-NDMOST output stage based on SOI BCDMOS technology.

  Overview Factory automation systems connect with each other through robust communication paths and with the user through intuitive HMIs. To meet these needs and the demand for greener, more efficient industrial processes, these systems require ultra-reliable solutions for fast connectivity and solid security. NXP®, a longtime leader in industrial applications, enables flexible design cycles and provides industrial system designers with longevity programs and innovative security features. We’re focused on customer success, next-gen IoT tech and Industry 4.0. Computer numeric control (CNC) machines are electro-mechanical devices that manipulate machine shop tools using computer programming inputs. CNC is one of two common methods (3D printing is the other) to generate product (typically metal or plastic) from a digital software file. CNC is a subtractive technique; excess material is removed in manufacturing the final product. Block Diagram Products Category MPU Product URL Layerscape® 1028A Industrial Applications Processor  Product Description The Layerscape LS1028A industrial applications processor includes a TSN-enabled Ethernet switch and Ethernet controllers to support converged IT and OT networks.   Category Power Management Product URL MC34VR500: Multi-Output DC/DC Regulator  Product Description The NXP® MC34VR500 power management solution for network processor systems is a high-efficiency, quad buck regulator with up to 4.5 A output and five user-programmable LDOs.   Category Temperature Sensor Product URL SA56004X: SMBus-Compatible, 8-Pin, Remote/Local Digital Temperature Sensor  Product Description The NXP Semiconductors SA56004X is an SMBus compatible, 11-bit remote/local digital temperature sensor with over-temperature alarms.   Category USB Type C Product URL PTN5150: CC logic for USB Type-C applications  Product Description PTN5150 is a small thin low power CC Logic chip supporting the USB Type-C connector application with Configuration Channel (CC) control logic detection and indication functions.   Category Logic Controller Product URL NX5P2190UK: Logic controlled high-side power switch  Product Description The NX5P2190 is an advanced power switch with adjustable current limit. It includes under-voltage and over-voltage lockout, over-current, over-temperature, reverse bias and in-rush current protection circuits.

Overview The FAA now requires drone owners to register any device weighing more than 0.55 lbs. (250 g). For drones currently in the field, enforcing this new law might be problematic, as it relies on the honor system to some extent. But for new devices, NXP offers an easy enforcement method. How it Works NXP’s drone registration solution uses low-cost NFC technology to easily enforce compliance. Manufacturers could include an NFC reader within the drone housing. NXP makes this step straightforward by providing reference designs for drop-into-place design ease. Upon registration, consumers could receive an official government-issued registration certificate that comprises an NXP encrypted NFC tag in adhesive label form. Upon adhesion to the drone housing, the drone control electronics would wirelessly read the certificate. If valid, the drone microcontroller enables functionality. If not, the drone will not power up. Benefits Electronic registration provides more than just ease to government regulatory bodies, it also facilitates regulation of that drone to ensure the safety of all citizens. Upon application of the registration certificate sticker, the NFC chip inside the sticker could convey identification information to the drone microcontroller, such as the registration number, model/serial number of the drone, and its zoning classification. Because this information would now be housed with the drone, drone manufacturers could choose to broadcast select details, such as the classification information, via appropriate long-range wireless communication while in flight. If the drone flew within restricted airspace (near airports, sensitive government sites, stadiums, large public events, etc.), flight controllers could obtain the classification information (something virtually impossible to obtain visually) from the drone and thereby verify its authority (or lack thereof) to travel within a particular space, in order to help prevent potential catastrophes.   Block Diagram   Recommended Products Category Products Features RFID MIFARE DESFire EV2 | NXP  Contactless interface compliant with ISO/IEC 14443-2/3 A Fast data transfer: 106 kbit/s, 212 kbit/s, 424 kbit/s, 848 kbit/s   CLRC663 plus family | High-performance NFC frontends | NXP  Supports NFC Cockpit and NFC Reader Library RF standard compliance: ISO/IEC 14443A and MIFARE, NTAG ®  and SmartMX ®  families Drone PX4 Robotic Drone FMU | RDDRONE-FMUK66  Proven business-friendly open source software with available enterprise support: PX4, QGroundControl Supports all airframes: Use it for Quadcopters, Hexacopter, VTOL, planes, rovers, cars, and other robots Rapid-IOT to Drone adapter board Rapid-IOT to Drone adapter board  Adapter board fully designed for Rapid IoT Prototyping Kit UAVCAN communication between drone and Rapid IOT Works with PX4 flight controllers such as RDDRONE-FMUK66 or Pixhawk NXP Rapid IoT Prototyping Kit Rapid IoT Prototyping Kit  Expandable to most IoT end-node use cases with 400+ Click boards™ Multiple sensors (Gyroscope, Acc/Mag., Barometer/Temp., Air Quality, Ambient light and capacitive touch)

LPC54114 Audio and Voice Recognition Kit The LPC54114 Audio and Voice Recognition Kit provides a complete hardware and software platform for developers to evaluate and prototype with the LPC54114 processor family. It has been developed by NXP® to provide all that you need to develop an always-on low power voice triggering product. Features: LPCXpresso54114 (OM13089) development board with: LPC54114 dual-core (M4F and dual M0) MCU running at up to 100 MHz in LQFP64 package. Hi-speed USB based debug probe with CMSIS-DAP and SEGGER J-Link OB protocol options. Connectivity for external debug probes. Micro USB connector for LPC54114 USB device operation. Tri-color LED. Target Reset, ISP and interrupt/user buttons. On-board 1.8 V / 3.3 V or external power supply options. 8 Mb Macronix MX25R SPI flash. FTDI UART connector and built-in UART to USB bridge options. Built-in MCU power consumption and supply voltage measurement for LPC54114 device. UART, I²C and SPI port bridging from LPC54114 target to USB via Link2 device. FTDI UART connector. Digital Mic/Audio codec/OLED display (“MAO”) shield with: Knowles SPH0641LM4H digital microphone. Cirrus Logic (Wolfson) WM8904 audio codec with stereo line in/out sockets. Monochrome OLED display (160 x160 pixels). Demos: Include USB/I2S audio demo, as well as voice recognition demos leveraging partner technology (Malaspina and Sensory) http://cache.nxp.com/documents/application_note/AN11855.zip Videos: These videos showcase the NXP’s LPC54114 MCU in a kit designed for customers to evaluate its capabilities for audio and voice processing _______________________________________________________________________________________________________ Featured NXP Products: Product Link LPC54000 Series LPC54000|Power Efficient 32-bit Microcontrollers (MCUs)|Cortex®-M4 Core | NXP  LPC54114 Audio and Voice Recognition Kit https://www.nxp.com/design/microcontrollers-developer-resources/lpcxpresso-boards/lpc54114-audio-and-voice-recognition-kit:OM13090?&fsrch=1&sr=1&pageNum=1 _______________________________________________________________________________________________________

  Overview   Libraries strive to provide great service and to ensure easy access to media products. With thousands of visitors choosing from copious books, CDs, videos, and computer games, storing and controlling inventory poses huge challenges. To reduce the waiting time for visitors and to relieve staff, most libraries that use RFID rely on RFID-powered self-service media checkout stations. This approach reduces labor, ensures that books are returned to shelves quickly, shortens wait times and encourages more people to visit the library. Taking inventory with the aid of RFID takes only a fraction of the time required with traditional systems. With RFID labels easily applied to all types of media, library staff can use handheld RFID readers to quickly, conveniently and reliably locate misplaced books or other items. New systems such as Smart Shelves enable real-time location of all media within the library. Features   Faster check-out and 24/7 self return service Fast and automated sorting of returned books Improved inventory management Identification of misplaced books Reliable theft protection with Electronic Article Surveillance (EAS) Unique serialized identification No line-of-sight requirement Easily applicable to all media types Reliable, fast and convenient identification   Video     Recommended Products   Category Name ICODE ICODE SLIX SL2S2002; SL2S2102 | NXP  Standard: ISO 18000-3M1 User Memory (bit): 896 EAS protection: 32-bit password AFI protection: 32-bit password Longest read range of any standards-based passive HF RFID technology ICODE SLIX2 NFC Forum Type 5 Tag with originality signature SL2S2602 | NXP  Standard: ISO 18000-3M1 User Memory (bit): 2528 EAS protection: 32-bit password AFI protection: 32-bit password Longest read range of any standards-based passive HF RFID technology Persistent quiet and Originality signature enabled   Related Information   For publishers and retailers: How NFC will merge physical with online book sales ICODE Family data protection for Libraries

Overview   Smart, integrated building systems empower users to improve energy efficiency, lower maintenance costs and conveniently control environments from smartphones and advanced HMIs. Their interconnected features house a platform of big data to make smarter, environmental-friendly decisions while ensuring maximum comfort and performance. NXP® delivers all-encompassing solutions engineered to meet the environmental, longevity and energy-efficient requirements of smart buildings, from lighting to HVAC, networking to building access and beyond. Our integrated product features are helping to drive the next wave of intelligent buildings, lower system costs and speed time-to-market.   Use Cases   Smart Control and Access Building Safety HVAC Lighting Security Surveillance Connectivity   Block Diagram   Products Category MCU Product URL K70_120: Kinetis® K70-120–150 MHz, High-Speed USB, Ethernet, DDR and Anti-Tamper Microcontrollers based on Arm® Cortex®-M4 Core  Product Description The Kinetis® K70 MCU family offers industry-leading low power and mixed-signal analog integration for applications such as industrial control panels, navigational displays, point-of-sale terminals, and medical monitoring equipment.   Category Power Management Product URL 1 TEA1723FT: HV Start-up Flyback Controller with Integrated MOSFET for 11 W Applications, F~Burst = 1750 Hz  Product Description 1 The TEA1723 is a small and low cost module Switched Mode Power Supply (SMPS) controller IC for low power applications (up to 11 W) and operates directly from the rectified universal mains input. Product URL 2 NTS0104: Dual supply translating transceiver; open drain; auto direction sensing  Product Description 2 The NTS0104 is a 4-bit, dual supply translating transceiver with auto direction sensing, that enables bidirectional voltage level translation.   Category Zigbee Product URL JN5189/88 (T): High Performance and Ultra-low power MCUs for Zigbee® and Thread with Built-in NFC option  Product Description The JN5189 portfolio is designed to power the next generation of very low current wireless devices, supporting Zigbee 3.0, Thread, and IEEE 802.15.4.   Category Sensors Product URL 1 PCF85063A: Tiny Real-Time Clock/calendar with alarm function and I2C-bus  Product Description 1 The PCF85063ATL is a CMOS Real-Time Clock (RTC) and calendar optimized for low power consumption. Product URL 2 PCT2075: I2C-Bus Fm+, 1 Degree C Accuracy, Digital Temperature Sensor And Thermal Watchdog  Product Description 2 The PCT2075 is a temperature-to-digital converter featuring ±1 °C accuracy over ‑25 °C to +100 °C range.   Category Drivers Product URL 1 PCF85176: 40 x 4 universal LCD driver for low multiplex rates  Product Description 1 The PCF85176 is a peripheral device which interfaces to almost any Liquid Crystal Display (LCD) with low multiplex rates. Product URL 2 PCA9633: 4-bit Fm+ I²C-bus LED driver  Product Description 2 The PCA9633 is an I²C-bus controlled 4-bit LED driver optimized for Red/Green/Blue/Amber (RGBA) color mixing applications.   Category Interfaces Product URL 1 SC16IS752_SC16IS762: Dual UART with I²C-bus/SPI interface, 64 bytes of transmit and receive FIFOs, IrDA SIR built-in support  Product Description 1 The SC16IS752/SC16IS762 is an I²C-bus/SPI bus interface to a dual-channel high performance UART offering data rates up to 5 Mbit/s, low operating and sleeping current; it also provides the application with 8 additional programmable I/O pins. Product URL 2 TDA5051AT: Home automation modem  Product Description 2 The TDA5051A is a modem IC, specifically dedicated to ASK transmission by means of the home power supply network, at 600 baud or 1200 baud data rate. It operates from a single 5 V supply. Product URL 3 PCA9848: 8-channel ultra-low voltage, Fm+ I2C-bus switch with reset  Product Description 3 The PCA9848 is an ultra-low voltage, octal bidirectional translating switch controlled via the I²C-bus. Product URL 4 PCA6408A: Low-voltage, 8-bit I²C-bus and SMBus I/O expander with interrupt output, reset, and configuration registers  Product Description 4 The PCA6408A is an 8-bit general purpose I/O expander that provides remote I/O expansion for most microcontroller families via the I²C-bus interface. Product URL 5 PCA9629APW: Fm+ I2C-bus advanced stepper motor controller  Product Description 5 The PCA9629A is an I²C-bus controlled low-power CMOS device that provides all the logic and control required to drive a four phase stepper motor.  

Demo Owner: Mark Houston   Kinetis V series is a family of devices targeting motor and power control applications for the mass market with a strong focus on enablement. See two elements of that story: a product benchmark showing relative product performance and the Kinetis motor suite -- a tool that speeds your development time to market.       Features Motor speed capabilities Comparison to standard controllers Smooth transitions Featured NXP Products Kinetis V Kinetis V1 Kinetis V3 Kinetis V4 Development Tools Kinetis Motor Suite Design Resources Kinetis Motor Suite Fact Sheet

Near Field Communication (NFC) is hot. It is available in hundreds of millions of smartphones, tablets, and other consumer electronics, and enters more and more the industrial space as well. This article shows how to implement the demos of our "Industrial NFC Demonstrator", first exhibited at embedded world 2017 in Nürnberg.           Parameterization & Diagnosis This demo shows how you can use an NFC phone to parameterize/configure a DIN rail module (or any other piece of electronics) with an NFC phone - even if the module is completely unpowered. The smart phone app lets you set the behavior of the lamps and also the language of the display. After the configuration (a simple tap) you switch on the main power, and the device comes up as configured. And NFC also lets you read out diagnostic data - no matter whether the device is powered on or off. So you can even replace your service UART by NFC. Thirdly, the demo shows how easy it is to even flash your firmware via NFC. Again, this works even when the device is switched off. This application is based on the NTAG I²C plus passive connected tag IC. See here a video from embedded world 2017 showing this demo.   Find a detailed description and all source codes here: https://community.nxp.com/docs/DOC-333834  Interested how this looks like in a commercial product? Watch this video showing how easily the Schneider Zelio NFC Timer Relay can be configured via NFC.   Device-to-device communication In this demo you see how NFC can establish a communication between 2 devices with up to 40 kbit/s. The angular position of the rotating disk is measured, communicated to the main board via NFC and displayed on an LED ring. The nice thing: The rotating disk is without battery. Energy harvesting via NFC provides supply power up to 15mW. This principle of using NFC as a cable replacement is especially interesting in cases where you want to communicate with fully sealed, isolated, moving or rotating units. The communication is bi-directional, and the data can be static (a button press, or configuration data) or dynamic (sensor measurements). The demo is based on the CLRC663 plus reader on the main unit and the NTAG I²C plus passive connected tag on the rotating disk. See here the video from embedded world 2017 demonstrating this application.   Find a detailed description and all source codes here: https://community.nxp.com/docs/DOC-333917       Access control In the Physical Access Control demo, we show a simple implementation of a basic access control solution using a Type 4 tag and a CLRC663 plus based reader, based on the public NFC Reader Library. NXP recommends for a complete real-life access control solution to use MIFARE DESFire credentials as with the MIFARE DESFire EV2 card. Supporting software library is under NDA. In this video from embedded world 2017 you see access control in action.   Download the source code here: http://nxp.com/assets/downloads/data/en/software/RC663Demo_ReadNdefT4T_v1.2.zip           1-tap Bluetooth Pairing This demo shows how easy it is to pair wireless devices to your phone with NFC - using an example of the Kinetis KW41 Freedom board (BLE MCU), with an NTAG I²C plus kit for Arduino® pinout for the NFC function. This new NTAG I²C plus kit is suitable for any board featuring an Arduino-compatible header, including LPCXpresso, Kinetis and i.MX boards. It is the ideal tool to evaluate and design-in an NTAG I²C plus tag chip in an embedded electronic system. Find a detailed description and all source codes here: https://community.nxp.com/docs/DOC-335241     Automation with Hexiwear A nice example of how to build versatile applications, is shown in the automation demo with the Hexiwear IOT development platform. Based on Kinetis MCUs and hundreds of available click-boards (plug-ins with sensors, actuators, transceivers - and of course also NFC), you can quickly build a prototype of your application. Two NFC-based click-boards are available: 1) A reader board based on PN7120 2) A board with NTAG I²C plus The automation demo uses 3 different Hexiwear base boards, connected between them via Zigbee. The NFC unit identifies a technician's badge, and also the tools he uses for his job. The second unit drives the instrument panel, and the third one the big LED screen. A video from embedded world 2017 shows how this works.   Find more information on Hexiwear at www.hexiwear.com.   Our partners in the NFC industrial demonstrator We would like to extend a special thanks to our partners who contributed to this demonstrator: Lab ID and Arti Grafiche Julia: NFC/RFID cards, tickets, labels and inlays Kronegger: Demo on logical access control, NFC reader modules and customized solutions Neosid: Small NFC/RFID transponders for tool identification and authentication   Find out more Discover NFC Everywhere: www.nxp.com/nfc All about MIFARE: https://www.mifare.net Get your technical NFC questions answered: https://community.nxp.com/community/nfc