Overview   Digital dashboard market is growing, especially e-Scooter, E-bike demand are also growing. This solution will cover a wide range of uses for identification and vehicular applications. This solution is based on i.MX RT technology and our NFC portfolio products. Near Field Communication (NFC) is a fast, intuitive technology that lets you interact securely with the world around you with a simple touch. NFC wireless proximity technology is available in billions of smartphones, tablets, consumer and industrial electronics—with new devices arriving almost daily. Block Diagram Products Category MCU Product URL 1 i.MX RT1060 Crossover MCU with Arm® Cortex®-M7 core  Product Description 1 The i.MX RT1060 is the latest addition to the industry's first crossover MCU series and expands the i.MX RT series to three scalable families. Product URL 2 LPC551x/S1x: Baseline Arm® Cortex®-M33-based Microcontroller Family  Product Description 2 The LPC551x/S1x MCU family expands the world’s first general purpose Cortex-M33-based MCU series, offering significant advantages for developers, including pin-, software- and peripheral-compatibility.   Category Charger Product URL 1 MWCT1x23: 65W+ Wireless Power Transmitter Controller  Product Description 1 The NXP® MWCT1x23 65W+ Wireless Power Transmitter Controller IC provides high speed control loops, robust foreign object detection, over voltage and over current protection to enable safe and secure power delivery through non-magnetic materials such as air, glass, wood, and plastic. Product URL 2 MWPR1x24: 65W+ Wireless Power Receiver with Integrated Radio  Product Description 2 The NXP® MWPR1x24 65W+ Wireless Power Receiver Controller with Integrated Radio IC provides all receiver parameters monitoring, communication with transmitter, over voltage and over current protection to enable safe and secure power delivery through non-magnetic materials such as air, glass, wood, and plastic.   Category Wireless Product URL 1 88W8987: 2.4/5 GHz Dual-Band 1x1 Wi-Fi® 5 (802.11ac) + Bluetooth® 5 Solution  Product Description 1 The 88W8987 is a highly integrated Wi-Fi (2.4/5 GHz) and Bluetooth single-chip solution specifically designed to support the speed, reliability and quality requirements of Very High Throughput (VHT) products.   Category Secure Element Product URL EdgeLock™ SE050: Plug & Trust Secure Element Family – Enhanced IoT security with maximum flexibility  Product Description The EdgeLock SE050 product family of Plug & Trust devices offers enhanced Common Criteria EAL 6+ based security, for unprecedented protection against the latest attack scenarios.   Category NFC Product URL 1 PN5180: Full NFC Forum-compliant frontend IC  Product Description 1 The PN5180 is a high-performance full NFC Forum-compliant frontend IC for various contactless communication methods and protocols. Product URL 2 PN7462: NFC Cortex®-M0 all-in-one microcontroller with optional contact interface for access control  Product Description 2 The PN7462 family consists of 32-bit Arm® Cortex®-M0-based NFC microcontrollers offering high performance and low power consumption. Product URL 3 MIFARE® DESFire® EV3: High-Security IC for Contactless Smart City Services  Product Description 3 The features of the MIFARE DESFire EV3 IC reflect NXP’s continued commitment to secure, connected and convenient contactless Smart City services.   Category Peripherals Product URL 1 PCA9955BTW: 16-channel Fm+ I²C-bus 57 mA/20 V constant current LED driver  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. Product URL 2 TJA1041A: High-speed CAN transceiver with standby and sleep mode  Product Description 2 The TJA1041A provides an advanced interface between the protocol controller and the physical bus in a Controller Area Network (CAN) node. Product URL 3 PCA85073A: Automotive tiny Real-Time Clock/Calendar with alarm function and I2C-bus  Product Description 3 The PCA85073A is a CMOS1 Real-Time Clock (RTC) and calendar optimized for low power consumption.

  Overview NXP’s Motion Control and Robotics solution provides the computing performance, embedded connectivity, low latency and a real-time open source operating system to address the requirements for multi-axis motion control and robotics applications.  This solution is based on an i.MX RT1050, which controls four steppers motors that activates the different kind of movement of the robotic arm for the 3D printer to function. This solution also counts with the FreeMASTER GUI for easy debugging and a better presentation and control of the system. Use Cases Our robust product portfolio makes motor and robotics control more precise, secure and effective for the creation of end-products with applications like: 3D printers Industrial applications: Welding machines Material handling Painting and drilling Assembly machines Surgical assistants 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 Motor Driver Product URL GD3000: 3-Phase Brushless Motor Pre-Driver  Product Description 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 Power Management Product URL PCA9412: 3.0 MHz, 300 mA, DC-to-DC boost converter  Product Description The PCA9412 and PCA9412A are highly efficient 3.0 MHz, 300 mA, step-up DC-to-DC converters.

Demo Running NXP’s i.MX6SX application processor, Earthquake warning system proof of concept is able to warn citizen about Earthquake. Data are gathered from local sensor, remote sensors based on K64F NXP’s controllers and seismology servers from Internet. Features: Give citizens warning against Earthquakes Runs on the NXP i.MX6SX application processor with Linux® OS. Presents i.MX6SX asymmetrical architecture features, where data are measured locally by Cortex-M4 with FreeRTOS and displayed and presented by Cortex-A9 core with Linux® OS. Cortex-M4 can measure in real-time and monitor Linux part. Cortex-A9 can sleep to save power and be waked up by the quake detected by Cortex-M4. Communication between cores via RPMsg. Remote sensor’s accelerometer data are measured running K64F microcontrollers Seismology server’s data are displayed and analysed ___________________________________________________________________________________________________________________________ Featured NXP Products: Product Link Freedom Development Platform for Kinetis® K64, K63, and K24 MCUs FRDM-K64F Platform|Freedom Development Board|Kinetis MCUs | NXP  i.MX 6SoloX Processors - Heterogeneous Processing with Arm® Cortex®-A9 and Cortex-M4 cores i.MX 6SoloX Applications Processors | Arm® Cortex®-A9, Cortex-M4 | NXP  __________________________________________________________________________________________________________________________

Demo Owner: Gregory Camuzat   Get a quick overview of the TWR-KV31F120M Tower System with the Kinetis KV3x microcontroller. This demonstration shows how to get the low-voltage 3-phase motor spinning using a PMSM sensorless FOC control algorithm and how to control its speed using the KV3 Tower System board and your Windows PC.       Features Get a quick overview of the TWR-KV31F120M Tower System with the Kinetis KV3x Microcontroller. This demonstration shows how to get the low-voltage 3-phase motor spinning using a PMSM Sensorless FOC control algorithm and how to control its speed using the KV3 Tower System board and your Windows PC Featured NXP Products Product Link Kinetis® KV3x Family Tower® System Module TWR-KV31F120M|Tower System Board|Kinetis® MCUs | NXP  FreeMASTER Run-Time Debugging Tool https://www.nxp.com/design/software/development-software/freemaster-run-time-debugging-tool:FREEMASTER?&tid=vanFREEMASTER Links PEMicro Windows USB Drivers IAR Embedded Workbench for ARM  

Demo The Beige Box operates as a node in an Intelligent Transportation System (ITS) network. ITS is the dynamic interaction of traffic control infrastructure and vehicles to safely maximize road throughput. The Beige box uses sensor and communications technologies to optimize throughput of vehicles and pedestrians at an intersection while also providing broadband wireless hotspot services.   Features Direct sensing of vehicles and pedestrians via cameras and RADAR Direct sensing of vehicles from their V2X position reports Indirect sensing via Cloud provided information Traffic flow optimization Vulnerable Road User Warnings Traffic light control Direct communication of signal phase and timing to approaching vehicles Broadband wireless hotspot connectivity (cellular and Wi-Fi)   Featured NXP Products QorIQ® Layerscape 2084A and 2044A|NXP  S32V230 Family of Processors|NXP  MR2001 Multi-channel 77GHz Radar Transceiver Chipset|NXP  S32R Radar Microcontroller - S32R27|NXP  V2X Communications|NXP  i.MX6Q|i.MX 6Quad Processors|Quad Core|NXP  TJA1043|NXP  Links Intelligent Roadside Unit|NXP  Beige Box Demonstration CES 2017|NXP  Block Diagram

About this demo This demo is based on the Wireless UART example from the SDK available on Welcome | MCUXpresso SDK Builder selecting the QN908X board.  The main idea of this demo is to be able to send commands from one device to another, it could be from a QN9080DK, a phone using our NXP application: IoT Toolbox or even an FRDM-KW41Z, this is possible because of the BLE protocol used in all our devices. The end-device used is a QN9080DK, this board receives the message, does parsing and triggers a PWM function using the values sent from another device. This signal can be used in different applications, typically controlling smart lighting brightness and color, speed of motor controls and audio or video amplifiers. The goal of this demo is to implement a task for our FreeRTOS scheduler in order to be able to control a PWM while the BLE connection is still running and receive new incoming messages.   Video Limitations We only interpret ON, OFF and a string of values for our 3 signal outputs. The string of values has to be in the following syntax: rXXX,gXXX,bXXX. An example of this could be r255,g130,b200. The max value should be 255 in order to achieve 100% of the duty cycle, for this example, we are using is at 100 Hz. The connection is not using pairing or bonding modes, so no device information is saved on the non-volatile memory due to this if the connection is lost we need to follow the initial connection procedure. The amount of bytes that can be sent is limited by the macro: #define gAttMaxMtu_c in the ble_constants.h file from the project, we recommend to leave it as it is.   Useful Links Useful documentation is available in the SDK previously downloaded: <SDK Installation folder>...\SDK_2.2.1_QN908XCDK\docs   Link Description https://www.nxp.com/webapp/Download?colCode=QN908x-DK  QN908xDK User’s Guide Welcome | MCUXpresso SDK Builder  SDK Builder site Wireless Connectivity  NXP Wireless Community Connectivity Software: Implement tickless mode in FreeRTOS  Document for implementing a new task using OSA Abstraction layer of FreeRTOS https://www.nxp.com/docs/en/nxp/data-sheets/QN908x.pdf QN908x Datasheet for pins functions   Required Items Link Description QN908x: Ultra-Low-Power Bluetooth Low Energy System on Chip (SoC) Solution | NXP  It is required at least one as an end-point. Oscilloscope  An Oscilloscope to visualize the PWM. Hardware Diagram Step-by-Step Guide Download de QN908x SDK Download the attached .zip file. Import it into MCUXpresso, for the end node you should only use the qn908xcdk_wireless_uart_peripheral project. If you want to use a second QN board to send the commands it is required to also import the qn908xcdk_wireless_uart_central project. Once the projects are imported, we need to flash each board with a project and connect the PA9, PA10, and PA18 pins to our oscilloscope in order to visualize the signal. Connect the USB cables to the computer and open Teraterm with the following values: 115200, 8 bits, none,1 bit, none. Press the RESET Button (SW3) of the Peripheral board Press the Button1 (SW1) after the message: "Wireless UART starting as GAP Peripheral, press the role switch to change it.", an "Advertising" should appear. If a second QN board is used (central), we need to open a second Teraterm session and set it to the same Serial configurations from point 5. If an Android phone is used we need to have the IoT Toolbox application installed and select the Wireless UART example and connect to the Peripheral board using the interface. To pair the Central board to the Peripheral it is required to press the RESET Button (SW3) of the Central board while the Peripheral board is advertising and then Push the Button1 (SW1). Once the boards are connected, we need to paste the message to our terminal in order to be sent as one message. The message should be seen in the other board terminal. Send "ON" to activate the PWM functionality. Send "r255,g128,b64" to set the PWM pins to 100%, 50%, 25%. This signal must be displayed at 100Hz on the oscilloscope. Send "OFF" to deactivate the PWM functionality.   Further Information The Demo is based on the Wireless UART example, The BleApp_ReceivedUartStream function is modified to compare de received strings. The getValuesRGB converts the string into integer values to be assigned to the global variables red, green, blue. Inside getValuesRGB we use the OSA abstraction layer for FreeRTOS to create the task using: OSA_TaskCreate and creating the task named: vfnTaskPWM. vfnTaskPWM configures the timer and initializes the PWM values using the CTimer driver functions and starts the CTimers.     Results 1. After the QN9080 is flashed and in Advertising mode, we have to connect our Central device, Which in this case is an Android phone. In or Teraterm we should be able to see this message: 2. Then, we get the Connected status from our devices and we should be able to send the ON command and the RGB values, Teraterm indicates the integer values and the string received.         3. When we send the OFF command the PWM signals should be 0 V.   4. Here is another example:    

Description Earlier this year NXP organized a promotional opportunity for amateur radio enthusiasts to use their creativity and build their own power amplifier designs. NXP received numerous creative submissions in this competitive Homebrew RF Design Challenge. We appreciate the dedication and enthusiasm from the community that made this contest a success. First place winner An MRF101AN broadband amplifier design with 1 W Input, 100 W Output 1.8-54 MHZ Amplifier deck. (For more information visit:NXP MRF-101 - RFPowerTools )  It is an amplifier with a bandwidth of 1.8MHz to 54MHz. Maximum output power of 100W up to 30MHz and 70W up to 50MHz. Maximum power supply 50V to 4A, with a Voltage Standing Wave Ratio of 1.5:1 maximum. The design dimensions of the PCB is 5x5 cm (2x2 in). and 310g weight including fan and heat sink. Second place winner A 600W broadband HF amplifier using affordable LDMOS devices (For more information visit: https://qrpblog.com/2019/10/a-600w-broadband-hf-amplifier-using-affordable-ldmos-devices/  ) This project is meant to demonstrate the capabilities of the MRF300 transistors as linear broadband devices in the 2-50MHz range and to be used by radio amateurs as a starting point for a medium-high power amplifier. This is also my entry to the NXP Homebrew RF Design Challenge 2019. To achieve the target of 600W output while also minimizing the level of even-number harmonics, a “push-pull” configuration of two transistors is used. Luckily, the manufacturer made it easy to design the PCB layout for such a thing by offering two versions (the MRF300AN & MRF300BN) that have mirrored pinout. The common TO-247 package is used, with the source connected to the tab. Each individual MRF300 LDMOS transistor is specified at 330W output over a 1.8-250MHz working frequency range, a maximum 28dB of gain and over 70% efficiency. The recommended supply range is 30-50Vdc. By studying the specifications, it looks like with correct broadband matching and some operational safety margin we can get close to 600W output at a voltage of around 45V across a resonably large bandwidth; the aim is to cover 1.8 to 54MHz. Main challenges when designing this amplifier are related to achieving good input and output matching over the entire frequency range as well as maintaining high and flat gain. Good linearity and a low level of harmonic products are mandatory. As the TO-247 is not a package specifically designed for high-power RF, there are some challenges with thermal design and PCB layout as well. Information taken from the essay by the winner. Third place winner A High Efficiency Switchmode RF Amplifier using a MRF101AN LDMOS Device for a CubeSat Plasma Thruster (For more information visit: Research - SuperLab@Stanford ) The Class E amplifier utilizes the active device as a switch, operating in only cutoff (off) and saturated (on) conditions. This minimizes the overlap of voltage and current, reducing losses in the active device. To further reduce loss the Class E amplifier utilizes an inductively tuned resonant network to achieve zero voltage switching, bringing the voltage across the switch to zero before turn on, eliminating energy stored in the output capacitance of the active device that would otherwise be dissipated. This is achieved with an inductively tuned series resonant output filter.  In the Class E amplifier losses are almost entirely determined by the current conducted by the active device so a high drain impedance is desired to maximize efficiency. The drain impedance is ultimately limited by the voltage rating of the switch. For our desired output power of 40W and the maximum voltage rating of 133V for the MRF101AN this impedance is still less than 50 ohms, so a L match circuit is used to match the drain impedance to 50 ohms. The load network in our design provides a drain impedance of 15.4+12.8j. As the MRF101AN will operate in saturation a high drive level is desired. To eliminate the need for a preamplifier and allow for digital control, we use a high speed gate drive chip typically used in switch-mode power supplies, LMG1020, to drive the MRF101AN instead of a RF preamplifier. A resonant network is used to provide voltage gain at the fundamental and third harmonic, providing a quasi-square wave on the gate which helps insure the device remains in saturation. Conclusion It was a close call and highly competitive! Each participant had their own creative, unique and impressive way of displaying the capabilities of these new parts. NXP is always up for new design challenges. Ready for the next challenge?

Overview NXP ®  offers solutions for the growing unmanned vehicle market in both civil and defense designs, supporting functions such as control, motion, vision, navigation, and communication. Target applications include: Unmanned Aerial Vehicle Unmanned Ground Vehicle Unmanned Underwater Vehicle Construction, demolition, inspection, or mining robot Firefighting or rescue robot Reference Designs NXP Product Link PX4 Robotic Drone FMU https://www.nxp.com/design/designs/px4-robotic-drone-fmu-rddrone-fmuk66:RDDRONE-FMUK66  KV Series Quad Motor Control https://www.nxp.com/design/designs/kv-series-quad-motor-control:KINETIS-DRONE-REFERENCE-DESIGN Block Diagram Recommended Products NXP Product Link MCU Kinetis® V Series: Real-time Motor Control & Power Conversion MCUs based on Arm® Cortex®-M0+/M4/M7 | NXP  LPC54000|Power Efficient 32-bit Microcontrollers (MCUs)|Cortex®-M4 Core | NXP  i.MX RT1060 MCU/Applications Crossover MCU | Arm® Cortex®-M7, 1MB SRAM | NXP  i.MX 6Solo Applications Processors | Single Arm® Cortex®-A9 @ 1GHz | NXP  i.MX 6Dual Applications Processors | Dual Arm® Cortex®-A9 @1.2GHz | NXP  i.MX 6Quad Applications Processors | Quad Arm® Cortex®-A9 | NXP  Wireless Connectivity Bluetooth®Smart/Bluetooth Low Energy | NXP  Interfaces In-Vehicle Network | NXP  I²C, SPI, Serial Interface Devices | NXP  USB Interfaces | NXP  NFC Reader NFC Readers | NXP  Wireless Power Wireless Power | NXP  Motor Driver GD3000 |3-phase Brushless Motor Pre-Driver | NXP  Voltage Regulator Linear Voltage Regulators | NXP  Switch Detector Signal Conditioners | NXP  Sensors Sensors | NXP  Tools and Software NXP Product Link i.MX RT1060 Evaluation Kit i.MX RT1060 Evaluation Kit | NXP  i.MX RT1020 Evaluation Kit i.MX RT1020 Evaluation Kit | NXP  SABRE Board for Smart Devices Based on the i.MX 6Quad Applications Processors i.MX 6Quad SABRE Development Board | NXP  i.MX RT1064 Evaluation Kit i.MX RT1064 Evaluation Kit | NXP  Kinetis® KV3x TWR-KV31F120M|Tower System Board|Kinetis® MCUs | NXP  i.MX RT1015 i.MX RT1015 Evaluation Kit | NXP  3-Phase Motor Control Low-Voltage, 3-Phase Motor Control Tower System Module | NXP  i.MX RT1050 Evaluation Kit i.MX RT1050 Evaluation Kit | NXP  NXP HoverGames drone kit including RDDRONE-FMUK66 and peripherals KIT-HGDRONEK66: NXP drone kit | NXP  Kinetis KV4x TWR-KV46F150M|Tower System Board|Kinetis MCUs | NXP  BSP, Drivers, and Middleware NXP Product Link Android OS for i.MX Applications Processors Android OS for i.MX Applications Processors | NXP  Embedded Linux for i.MX Applications Processors Embedded Linux for i.MX Applications Processors | NXP  MCUXpresso Software Development Kit (SDK) MCUXpresso SDK | Software Development for Kinetis, LPC, and i.MX MCUs | NXP  MCUXpresso Config Tools - Pins, Clocks, Peripherals MCUXpresso Config Tools|Software Development for NXP Microcontrollers (MCUs) | NXP 

Near Field Communication (NFC) is already present in more than 1.5 Billion smartphones. Well-known applications like payment and access control are enabled by NFC, but also emerging and innovative use cases which are just appearing on the horizon now. This article gives you more information, background and how-to guides around our NFC demos, first exhibited at embedded world 2018 in Nürnberg - to help you put NFC Everywhere. Accessories and consumables Identifying and authenticating accessories and consumables can add significant value to a product, and for the first time we show live how this works: The demo showcases tool identification via NFC for 3 different kinds of tools: A drill bit, a standard flat-blade screwdriver and a Phillips screwdriver. Each of the tools has an embedded NTAG213 NFC tag, and the electric drill contains an NFC reader (CLRC663 plus). As soon as a tool is inserted, the main unit reads the tool type and usage (wear). Based on this information, it can reject non-genuine or worn-out tools, and adjust internal settings like max/min speed based on the tool type. The demo is based on the brand new NFC Nutshell kit by our partner GMMC, and the demo shows how easily an existing product can be retrofitted with NFC using this kit. Find a detailed description of accessory and consumable identification and authentication here: https://community.nxp.com/docs/DOC-340283 Parameterization, Diagnosis and Firmware update 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.   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. Access Management In the Access Management corner, we demonstrate the ultimate contactless connectivity for residential or hospitality applications through NXP NFC and BLE solutions and a superior contactless experience and security with MIFARE ® DESFire ® credential on cards, mobile devices and wearables. Our demonstrator is based on the PN7462 family, the all-in-one full NFC controller, the QN9021, a low power BLE system-on-chip, and the PCF8883T, capacitive proximity switch with auto-calibration, for very low power consumption. We also show two commercial products by our partners: 1) The Salto XS4 range of smart doorlocks, a simple to use and very efficient access control system. 2) A modular access control solution by Kronegger, using their tiny NFC reader boards. We also reveal a very small footprint complete reader board based on the new BGA package (VFBGA64; 4.5x4.5 mm²) for the PN7462 family complementing the existing HVQFN64 package.   NFC Tandem - The Best Of Two Worlds If you need NFC functionality both in powered and unpowered state, have a look at the NFC Tandem demo: An NFC reader (PN7150) and a passive connected NFC tag (NTAG I²C plus) sharing one antenna. A user can interact with the device when it is powered off (through the NTAG I²C plus); when the device is powered, it can read cards, tags or other connected tags. Find design files, a user manual and further downloads here: https://community.nxp.com/docs/DOC-340244 Single-Chip Integrated Solution: LPC8N04 MCU with passive NFC interface In this demo, we show our latest integrated NFC solution, the LPC8N04, a cost-effective MCU with integrated (passive) NFC connectivity. This MCU offers multiple features, including several power-down modes and a selectable CPU frequency of up to 8 MHz for ultra-low power consumption. The demo showcases its features in a conceptual clock format: - Easily set current time/date of the clock via an NFC phone - Real-time clock with optional alarm, programmed and controlled using an Android app - GPIO controlled bar graph indicating programmable "safe operating range" - I2C controlled OLED user display - Data (temperature) logging, configured using an Android App To learn more about this device, please visit: www.nxp.com/LPC8N04 Single-Chip Integrated Solution: NTAG SmartSensor NTAG SmartSensor allows consumers and brand owners to confirm that temperature sensitive products – like fish, wine or pharmaceuticals – have been properly handled. The NTAG SmartSensor allows for temperature sensing at the item level, so each individual product can be confirmed as safe to use. And a single tap with your NFC smartphone is all that's needed to read out the temperature history of the NTAG SmartSensor. Learn more about NTAG SmartSensor on our webpage or watch the video. If you are looking for a ready-made logger using the NTAG SmartSensor, here is a list of manufacturers offering NTAG SmartSensor based loggers. Electronic Shelf Labels With NFC-enabled Electronic Shelf Labels (ESL), wrong price indication, non-transparent processes, and unsatisfactory customer interactions are a thing of the past. In this demo we show labels from 2 manufacturers, one commercial electronic shelf label from SES Imagotag and one ePaper label from MpicoSys. Find more information in the article by Fabrice Punch, Senior Marketing Manager at NXP. Why NFC on ePaper label? NFC allows for creating a product with no batteries, so no recharging, and labels can be in constant use  No cables and connectors - labels can be fully sealed and made waterproof NFC is a well-proven and widely-supported standard  Allows for easy integration with both PC and smartphones    Applications for PicoLabel - MpicoSys ePaper labels Logistic labels (warehousing, supply chain management)  ID Badges (show image on employee, visitor and conference badges)  Authentication badges (identity, authentication, cryptographic security) Door signage (shared offices, conference centers) Manufacturing (replacing paper labels) NFC Cube The NFC Cube is the universal demo for NFC applications: It shows communication between a device and a card/tag, between a device and a phone, and between two devices. It uses the PN7462AU single-chip NFC controller with integrated Cortex M0 core. The NFC Cube kit is interoperable with our NTAG I 2 C plus Explorer board, which enables you to demonstrate how 2 devices can communicate via NFC. NFC Portfolio and Package Options Find here an overview of the package options of our NFC reader and connected tag ICs. Our Partners In The NFC Everywhere Demonstrator We would like to extend a special thanks to our partners who contributed to this demonstrator: Lab ID: NFC/RFID cards, tickets, labels and inlays Kronegger: Demo on logical access control, NFC reader modules and customized solutions Salto: Smart door lock demo GMMC: NFC Nutshell Kit for easy demonstration, retrofitting and development of small NFC reader solutions SES Imagotag: Commercial electronic shelf label with customer interaction via NFC MpicoSys: Commercial PicoLabel based on ePaper and content update via NFC Find out more Discover NFC Everywhere: https://www.nxp.com/nfc All about MIFARE: https://www.mifare.net Get your technical NFC questions answered: https://community.nxp.com/community/identification-security/nfc List of Approved Engineering Consultants (AEC) for NFC: https://nxp.surl.ms/NFC_AEC NFC Everywhere Brochure: https://www.nxp.com/docs/en/brochure/NFC-EVERYWHERE-BR.pdf 

Overview The NXP® Solar Panel Inverter reference design demonstrates the ability of the 16-bit digital signal controller MC56F8023 to control whole inverter functionality. The inverter converts the input voltage from the solar panel to isolated one-phase AC output voltage The application comprises all needed circuitry for power transfer, control and measurement The main power board provides standard 64-pin PCI Express® connector as the interface for the daughter card control board, providing the ability to control this inverter by other digital signal controllers Features DC input voltage from the solar panel in the nominal level of 36V Possible to use one 36V or two 18V solar panels in series connection Maximum power point tracking feature in the control software implemented Battery charger for the 3 x 12V lead-acid accumulators in series included Galvanic isolated output voltage 230V 50Hz up to 400W output power True sine shape output voltage RS-485 isolated interface for the external communication Internal low-power DC power supply maintains proper functionality without battery connection Overvoltage, overcurrent and overtemperature protection implemented Embedded software example for off-grid available Block Diagram Design Resources

Overview   The PN7462 family consists of 32-bit Arm® Cortex®-M0-based NFC microcontrollers offering high performance and low power consumption. Because of the integrated NFC, many of the applications in which this product is used require interaction between some controllers, either to send data or instructions. In this case the board serves as a device for reading or writing NFC devices.   Required Material OM27462CDKP: NFC Controller development kit  MCUXpresso Software and Tools    Step-by-Step Download MCUXpresso Download and unzip attachment Open the Project in MCUXpresso Build it Connect LPC Link to PN7462 card Connect the two cards to the pc Debug the Project Use GPIO 4 and 5 for select interface Use GPIO 6, 7 and 8 for select operation mode

本文说明在S32G上如何修改eMMC时钟，来避开200Mhz的或及倍频的频率EMI干扰检查点。 目录 1    背景说明和需要的资料... 2 1.1  背景说明... 2 1.2  需要的资料... 2 2    eMMC的硬件连接... 3 3    eMMC时钟初始化方法... 4 3.1  eMMC时钟源说明及修改目标... 4 3.2  M7+Bootloader方法(可选项) 6 3.3  ATF初始化方法... 7 4    修改eMMC时钟... 9 4.1  ATF的修改... 9 4.2  Uboot相关的修改... 9 4.3  非整除时钟的修改考虑... 10 5    测试结果... 11 update to V2，增加分数分频： 6    分数分频... 13 6.1  调试方法... 13 6.2  代码修改... 14 6.3   测试结果   15

本文说明S32G在Linux中如何使用内存读写工具来发起一个HSE Server服务请求，以确认HSE是否正常工作。本说明的目的旨在在极端缺少Debug手段的情况下，确认HSE的状态。 目录 1    背景说明与参考资料... 2 1.1  背景说明... 2 1.2  参考资料... 2 2    启动包含HSE的Linux镜像... 3 3    HSE服务代码逻辑与寄存器状态... 3 3.1  HSE Demo示例... 3 3.2  IDEL情况下MU寄存器状态... 6 4    使用Linux memtool命令来访问HSE. 10 4.1  检查HSE状态... 10 4.2  准备hseSrvDescriptor_t数据结构... 10 4.3  申请HSE服务... 11 5    其它建议... 12

本文说明如何配置MCAL UART模块为DMA模式。 默认的MCAL UART模块是使用的PIO模式。 本文采用软件版本为MCAL RTD 4.0.2。 目录 1    背景与资料说明... 2 1.1  背景说明... 2 1.2  所需资料说明... 2 2    创建UART工程... 2 2.1  打开工程... 2 2.2  修改波特率... 3 2.3  编译... 3 2.4  默认工程说明与运行... 4 3    配置UART DMA模式... 5 3.1  参考资料... 5 3.2  增加并配置MCL模块... 5 3.3  修改UART模块... 6 3.4  修改Platform模块... 7 3.5  处理Cache相关问题... 7 3.6  测试结果... 8

本文说明如何配置MCAL ICU模块为GPIO Input。 默认的MCAL ICU模块是使用FTM输入为示例的。 本文采用软件版本为MCAL RTD 4.0.2 目录 1    背景与资料说明... 2 1.1  背景说明... 2 1.2  所需资料说明... 2 2    创建ICU工程... 3 2.1  打开工程... 3 2.2  编译与运行... 3 2.3  默认工程说明... 4 3    增加GPIO输入支持... 6 3.1  修改说明... 6 3.2  修改Port模块... 6 3.3  修改ICU模块... 7 3.4  Platform模块... 8 3.5  主测试程序修改... 9 3.6  测试结果... 10

本文说明S32G3 M7核Standby MCAL demo 详细情况及定制，并在进入Standby之前 调用QSPI 接口将QSPI NOR flash配置进入 deep power down模式，以节省用电。 目录 1    参考资料说明... 2 2    G2和G3 Demo的区别... 2 3    G3 MCAL Demo的实现... 4 3.1  修改UART驱动... 4 3.2  实现时钟关闭代码... 4 3.3  配置电源模式切换驱动... 5 3.4  配置唤醒源... 5 3.5  加入PMIC驱动... 6 3.6  主函数逻辑实现... 7 3.7  运行测试... 7 3.8  未来开发计划... 8 4    将QSPI NOR设置进入Deep Power Down模式... 8 4.1  Fls层的修改... 10 4.2  中间层的修改... 10 4.3  QSPI_IP层的修改... 13 4.4  主测试函数调用... 16 4.5  Fls驱动的测试... 17 5    将Deep Power Down功能集成到STANDBY工程中并测试    18 5.1  EB配置... 18 5.2  主测试函数与编译修改... 20 5.3  运行测试... 21

现在越来越多的客户，对于S32G PFE在master/slave的使用有了需求。 但是，PFE只有4个HIF接口，HIF0~HIF3，而PFE有3个EMAC口，以及LLCE2PFE也需要要给HIF，从而HIF成为一个关键资源。 同时，有些客户需要从A核，M核的业务考量，A核和M核的网络不仅要和外部设备进行通信，同时A核和M核内部也有通信需求，并且需要把业务报文和管理报文分离，这就对PFE master/slave的使用场景有了更多变化，以及对各种配置有了更多需求。 因此，针对PFE/Slave的几种使用典型的使用场景，进行配置。

在进行时钟同步时，目前S32G2/G3有一种很典型的使用场景： Grand master clock  <-> S32G PFE <-> 其余连接在PFE 某些 eMAC口上的设备 外部的grand master clock，连接在PFE的一个eMAC上，要同步S32G以及连接在PFE其余eMAC上的设备时钟。 但是S32G2/G3的PFE仅仅是支持timestamp，对于将S32G PFE设置成交换机使用时，PFE不能实现Transparent clock的功能。 因此，本文讨论将PFE + S32G SoC当作Transparent clock，以及将PFE + S32G当作boundary clock，来同步S32G以及其余部件的时钟。

本文说明了S32G如何储存mac地址，包括dts保存，systemd指定和fuse保存的办法： 目录 1 需要的软件................................................................. 2 2 背景说明 .................................................................... 2 3 PFE eMAC MAC地址说明 ......................................... 2 3.1 DTS配置 ................................................................. 2 3.2 源代码说明 ............................................................. 3 3.3 测试 ........................................................................ 4 4 GMAC0 MAC地址说明 .............................................. 4 4.1 DTS配置 ................................................................. 4 4.2 源代码说明 ............................................................. 4 4.3 SystemD脚本 ......................................................... 5 4.4 固定GMAC MAC地址的修改办法 ........................... 6 5 用Uboot命令烧写FUSE MAC地址项 .......................... 7 6 修改为从fuse中获得GMAC0 MAC地址 ...................... 9 6.1 Uboot代码修改 ....................................................... 9 6.2 Uboot写MAC寄存器说明 ...................................... 10 6.3 测试 ...................................................................... 10  

本文为如下G2版本的升级篇，使用G3+更新的软件 目录 1    需要的软件与工具... 2 1.1  软件工具与文档... 2 1.2  开发说明... 3 2    测试软件安装编译说明... 3 2.1  安装LLCE Logger驱动... 3 2.2  编译LLCE驱动测试程序(以CAN Logger 为例) 4 2.3  Logger Demo功能说明... 5 2.4  M7 BootLoader ATF镜像冲突检查... 7 2.5  LLCE Logger Demo去掉CLOCK INIT. 9 2.6  LLCE Logger Demo去掉MCU 相关INIT. 10 2.7  LLCE Logger Demo程序去掉PORT INIT. 10 2.8  中断冲突说明... 10 2.9  去掉其它无用初始化... 11 3    Bootloader工程说明... 11 3.1  关掉XRDC支持... 12 3.2  关掉eMMC/SD支持(可选) 13 3.3  关掉secure boot(可选) 14 3.4  增加LLCE 驱动所需要的PORT 的初始化... 15 3.5  解决Bootloader,MCAL 与Linux 的clock 冲突... 16 3.6  配置A53 Boot sources: 34 3.7  配置M7 Boot sources: 36 3.8  关闭调试软断点... 37 3.9  编译Bootloader工程... 38 3.10 制造Bootloader的带IVT的镜像... 39 3.11 烧写镜像... 41 4    Linux LLCE logger功能修改... 42 4.1 ATF的修改... 42 4.2 Linux中关于LLCE配置... 44 4.3 LLCE相关初始化冲突说明... 45 5    测试... 46 5.1  硬件连接... 46 5.2  LLCE logger 测试过程... 46 S32G Boot customization doc how to run bootloader to run mcal&linux https://community.nxp.com/t5/NXP-Designs-Knowledge-Base/S32G-Bootloader-Customzition/ta-p/1519838