Demo This demo demonstrates the Mobility software (PDCP-GTPU) as VNF in virtualized environment, virtio-PDCP device for PDCP Security offload to H/W accelerator. The guest application is real time implementation of PDCP-GTPU layers of LTE data plane using DPDK library.       Features: Accelerated PDCP-GTPU VNF for Cloud RAN Deployments. DPDK integrated solution for high performance on ARM cores. Accelerated PDCP security processing by offloading to NXP SEC accelerator via virtio-interface (virtio-pdcp) Option to offload Virtio backends to AIOP Cores on NXP LS platforms.   _______________________________________________________________________________________________________   Featured NXP Products: QorIQ Processors Based on ARM Technology|NXP QorIQ LS2085A Communication Processors |NXP _______________________________________________________________________________________________________ Related Link https://community.freescale.com/videos/3994     N11

Overview This reference design demonstrates the configuration of two nodes which include the NXP® 56F8300 Digital Signal Controllers (DSCs) with the FlexRay MFR4200 modules. These nodes communicate together on (over) two channels This application demonstrates a transmission in the static and dynamic part of the cycle, receive buffer and receive FIFO configuration It operates in the interrupt-driven mode and also in the poll-driven mode Features Utilizes MC56F8300 EVBs and FlexRay daughter cards Utilizes in-house developed FlexRay low-level driver Redundant data transmission on two channels Deterministic as well as dynamic data transmission Data rates at 10 Mbits/sec per channel Visual feedback of communication between two FlexRay controllers via FreeMASTER software Block Diagram Board Design Resources

Overview In the industrial world, technologies to track performance and correct problems instantly have become critical to meeting output expectations and keeping personnel safe. This is especially true with organizations facing the impact of an unpredictable economic environment and aging infrastructure. Our NXP two-way radio solution takes advantage of our complete technology portfolio of high-performance MPUs, MCUs, and peripheral devices that integrate security and connectivity features and a 10-15 year product longevity program. This combination delivers high reliability and quality communication and performance that enables your customers to work safely, efficiently and enables seamless communication that boosts productivity and insight to extend the life of business assets.   Interactive Block Diagram Recommended Products   Category Products Features MCU Arm® Cortex®-M4|Kinetis® KV3x Real-time Control MCUs | NXP  100/120 MHz Cortex®-M4 core with DSP and floating-point unit – improves performance in math-intensive applications (e.g., processing of sensorless FOC (field-oriented control) algorithms) 2x 16-bit ADCs with two capture and hold circuits and up to 1.2 MSPS sample rate – simultaneous measurement of current and voltage phase, reduced jitter on input values improving system accuracy Up to 2 x 8-channel and 2 x 2-channel programmable FlexTimers – high-accuracy PWM generation with integrated power factor correction or speed sensor decoder (incremental decoder/hall sensor) MPU i.MX 8M Applications Processor | Arm® Cortex®-A53, Cortex-M4 | 4K display resolution | NXP  Quad Arm Cortex-A53; Cortex-M4F 6x I2S/SAI (20+ channels, each 32-bits @384 kHz); SPDIF Tx/Rx; DSD512 OpenGL® ES 3.1, OpenGL® 3.0, Vulkan®, OpenCL™ 1.2 Secure Element A1006 | Secure Authenticator IC: Embedded Security Platform | NXP  Advanced security using asymmetrical public/private key Diffie-Hellman authentication protocol with two different keys for encryption and decryption based on ECC (Elliptic Curve Cryptography) with a NIST B-163 bit strong binary field curve Authentication time (on-chip calculations) < 50 ms Power Consumption: 500 μA active CapTouch Sensor PCF8883 | NXP  Wide input capacitance range (10 pF to 60 pF) Wide voltage operating range (VDD = 3 V to 9 V) Designed for battery-powered applications (IDD = 3 μA, typical) Automatic calibration RTC PCF8523 | NXP  Provides year, month, day, weekday, hours, minutes, and seconds based on a 32.768 kHz quartz crystal Resolution: seconds to years Analog Switch Logic controlled high-side power switch | NXP  Wide supply voltage range from 3 V to 5.5 V 30 V tolerant on VBUS ISW maximum 2 A continuous current Load Switch USB PD and type C current-limited power switch | NXP  VIN supply voltage range from 4.0 V to 5.5 V All-time reverse current protection with ultra-fast RCP recovery Adjustable current limit from 400 mA to 3.3 adjustable current limits from 400 mA to 3.3 A Clamped current output in the over-current condition Very low ON resistance: 30 mΩ (typical) USB Type-C PTN5150 | NXP  USB Type-C Rev 1.1 compliance Compatible with legacy OTG hardware and software Support plug, orientation, role and charging current detection Level Translator PCAL6416AEX | NXP  The 16-bit general-purpose I/O expander Latched outputs with 25 mA drive maximum capability The operating power supply voltage range of 1.65 V to 5.5 V GPIO Expander PCAL6416AEX | NXP  The 16-bit general-purpose I/O expander Latched outputs with 25 mA drive maximum capability The operating power supply voltage range of 1.65 V to 5.5 V PMIC PMIC with 1A Li+ Linear Battery Charger | NXP  Input voltage VIN from 5V bus, USB, or AC adapter (4.1 V to 6.0 V) withstands up to 22V transient DDR memory reference voltage, VREFDDR, 0.5 to 0.9 V, 10 mA I2C interface User-programmable Standby, Sleep/Low-power, and Off (REGS_DISABLE) modes Accelerometer ±2g/±4g/±8g, Low g, 14-Bit Accelerometer | NXP  1.95 V to 3.6 V supply voltage 1.6 V to 3.6 V interface voltage ±2g/±4g/±8g dynamically selectable acceleration full-scale range Temperature Sensor PCT2075: I2C-bus Fm+, 1 Degree C Accuracy | NXP  Pin-for-pin replacement for LM75 series but allows up to 27 devices on the bus Power supply range from 2.7 V to 5.5 V Temperatures range from -55 °C to +125 °C Wireless MCU Arm® Cortex®-M0+|Kinetis® KW41Z 2.4 GHz Bluetooth Low Energy Thread Zigbee Radio MCUs | NXP  2.4 GHz Bluetooth Low Energy version 4.2 Compliant IEEE Std. 802.15.4 Standard Compliant AES-128 Accelerator (AESA), True Random Number Generator (TRNG)

Radar-detected Emergency Break via V2X to following traffic. RoadLink V2X platform, Ethernet Switch & 77GHz Radar Dolphin transceiver Features enabled by NXP Disrupting the market with an RFCMOS Radar-solution: •Highly integrated, minimal-footprint •Low Power Consumption •Sophisticated Functional Safety Features •Fully invisible mounting •Attractive System Cost Recommended Products •RoadLink Chipset •RF Transceiver (TEF5x00) •Baseband IC (SAF5x00) •Security IC (SXF1700) •Dolphin 77GHz Radar Chip •Ethernet Switch Resources Website http://www.nxp.com/products/rf/millimeter-wave-solutions/radar-technology:RADAR-TECH Video https://www.youtube.com/watch?v=H5eLhER9jZ4

Demo This demo showcases NXP’s LPC4088 (running on OEM board with capacitive touchscreen) from Embedded Artists) running TouchGFX graphics, simulating a home energy monitoring application. Features: TouchGFX Software and LPC4000 series MCU enables smartphone look and feel in cost effective embedded display solutions. Power up the board via power connection to J9 (the only micro USB connection available). The demo should start running automatically with 2 or 3 seconds. _______________________________________________________________________________________________________ Featured NXP Products: LPC4088FBD144 LPC4088FET208| LPC4000 32-bit MCUs|ARM Cortex-M4 Cores|NXP C55B

Features Wide band amplifier 100W GaN 200 MHz - 2500 MHz Minimum 12 db Gain 40% efficiency Compact circuit Highest ruggedness capability in the industry — > 65:1 VSWR Highest gain figures in the industry — up to 26 dB Highest efficiency in the industry — up to 80% at P1dB Cost-effective, over-molded plastic packaging options Low thermal resistance air cavity packaging options Backed by NXP's secure volume manufacturing capability Proven reliability, quality and consistency Integrated ESD protection with greater negative gate-source voltage range for improved Class C operation World-class, global applications and design support Available to participate in NXP's longevity program (10 year or 15 year lifetime guarantee — more information) Field-proven high-voltage LDMOS process   Featured NXP Products MMRF5014H Links RF Military    

Overview Remote virtual smartphones promise the same benefits as remote computer desktops and cloud-based gaming: low-cost client hardware, sandboxed user environments, and persistent user state. The way they work is that the physical smartphone runs only thin-client software and the smartphone application runs remotely on a server. To be economical, this server hosts multiple of these virtual smartphones, taking advantage of hardware virtualization support built into its processor. Slotted into the machine, an add-on GPU provides high-performance graphics. To reduce latency for real-time gameplay, the server is best located near the end-user in the edge of the mobile network. For virtual smartphones to be compatible with physical smartphones, Arm compatibility is required. At the 2020 Consumer Electronics Show, NXP demonstrated the Layerscape LX2160A processor hosting Redfinger’s cloud-based Android emulator and virtual smartphone. NXP’s processor integrates 16 CPU cores, enabling it to host 16 or more virtual smartphones. Games and other software execute with the same look and feel as if they were running locally on a smartphone. Like other Layerscape processors, the LX2160A delivers excellent performance per watt and is designed to work in high-temperature environments, such as being packed densely in a rack in a data center or deployed remotely at an edge-computing site. Although NXP designed it for stringent embedded applications, the LX2160A processor is powerful enough for servers—making it a great solution for Android emulation.     Block Diagram NXP Products Name of Product QorIQ LX2160A Development Board | NXP    Related Documents from Community Name of Document Discover i.MX: Industry-Leading Processor Solution for Media, Smart Home, Smart Industrial, Health/Medical and Broad Embedded Applications    Related Communities Name of Document Layerscape 

Description   Industry 4.0 applications demand superior performance and reliable communications for network synchronization, on-time data delivery, and energy efficiency—even under the most extreme operating conditions. Current manufacturing challenges require flexible platforms capable of uniting trustworthy networking protocols with modern and reliable machine-to-machine communications. A remote access unit works as an interface for machinery that can’t be accessed. This tool displays parameters, measurements and can control any features of the linked machine. This remote access unit application is based in an i.MX 6 applications processor that can be programmed with a Linux distribution and Built-in 2G/3G/GPS/Glonass.   Features GPU 3D GPU 2D (Vector Graphics) Camera Interface Cryptographic cipher engines Tamper detection Ethernet Four USB2.0   Block Diagram     Products   Category Name 1: MPU Product URL 1 i.MX 6Dual Applications Processors | Dual Arm® Cortex®-A9 @1.2GHz | NXP  Product Description 1 The i.MX 6 series of applications processors combines broad levels of integration and power-efficient processing capabilities all the way up to bleeding edge 3D and 2D graphics, as well as high-definition video, to provide a new level of multimedia performance for an unbounded next-generation user experience.   Category Name 2: Transceiver Product URL 1 TJA1057 | High speed CAN transceiver | NXP  Product Description 1 The TJA1057 is part of the Mantis family of high-speed CAN transceivers. It provides an interface between a Controller Area Network (CAN) protocol controller and the physical two-wire CAN bus Product URL 2 TJA1101 | 2nd generation PHY Transceiver | NXP  Product Description 2 TJA1101 is a high-performance single port, IEEE 100BASE-T1 compliant Ethernet PHY Transceiver. Product URL 3 Logic controlled high-side power switch | NXP  Product Description The NX5P1100 is an advanced power switch and ESD-protection device for USB OTG applications. It includes under voltage and over voltage lockout, over-current, over-temperature, reverse bias and in-rush current protection circuits.   Category Name 3: Power Management Product URL 1 14-Channel Configurable Power Management IC | NXP  Product Description 1 The PF0100 SMARTMOS Power Management Integrated Circuit (PMIC) provides a highly programmable/configurable architecture, with fully integrated power devices and minimal external components.   Category Name 4: Memory Product URL 1 NXH5104UK: 4 Mbit Serial EEPROM | NXP  Product Description 1 The NXP NXH5104 is a 4 Mbit serial electrically erasable and programmable read-only memory (EEPROM). It provides byte level and page level serial EEPROM functions, sector level protection and power-down functions.   Category Name 5: Sensor Product URL 1 Ultra-low-power, 1.8 V, 1 deg. C accuracy, digital temperature sensor with I2C bus interface | NXP  Product Description 1 The PCT2202 is an I2C bus, serial output temperature sensor available in a tiny WLCSP6 package. It requires no external components.   Category Name 6: RTC Product URL 1 PCF2123 | NXP  Product Description 1 The PCF2123 is a CMOS Real-Time Clock (RTC) and calendar optimized for low power applications. Data is transferred serially via a Serial Peripheral Interface (SPI-bus) with a maximum data rate of 6.25 Mbit/s.   Documentation i.MX 6 Temperature Sensor Module:  https://www.nxp.com/docs/en/application-note/AN5215.pdf    Tools Product Link RD-IMX6Q-SABRE: SABRE Board for Smart Devices Based on the i.MX 6Quad Applications Processors i.MX 6Quad SABRE Development Board | NXP  KITPF0100EPEVBE: Evaluation Kit - MMPF0100, 14 Channel Configurable PMIC EVB- MMPF0100, 14 Channel Configurable PMIC | NXP  OM13512: Demoboard for the SPI-bus RTC PCF2123 Demoboard for the SPI-bus RTC PCF2123 | NXP  NXH5104ADB: NXH5104A Demo Board NXH5104A Demo Board | NXP  OM13257: Universal Temperature Sensor Daughter Card for the Fm+ Development Kit Universal Temperature Sensor Daughter Card for the Fm+ Development Kit | NXP  TJA1100HN: Evaluation Board, TJA1100HN 100BASE-T1 PHY Transceiver TJA1100 Customer Evaluation Board | NXP 

Overview The NXP® MPC8349E-mITX Media Server-in-a-Box solution is a turnkey hardware/software reference platform for home media servers with advanced NAS capabilities. Based on the MPC8349E PowerQUICC® II Pro processor containing a core built on Power Architecture technology and standards-compliant software from Mediabolic This platform solution is designed to help OEMs and ODMs accelerate the development process and speed time-to-market for next-generation home media servers Designed to enable consumers to share and store multimedia files, such as video, DVD backups, music and photos, throughout the digital home Features MPC8349E mITX reference platform features: In addition to the highly integrated MPC8349E processor, the reference platform leverages external components to support these additional features: 10/100/1000 Ethernet port, a 5-port Gigabit Ethernet switch Four-port USB 2.0 interface On-board 4-port PCI serial advanced technology attachment (SATA) controller 32-bit PCI slot, and a 32-bit MiniPCI slot FLASH memory slot Robust memory subsystem Two-port RS-232C interface Power supply SATA hard drive Mediabolic Media Server Sofware Features: Interoperability UPnP AV 1.0 compliant Designed to meet DLNA guidelines Synchronization Synchronizes content from any selected directory, local or networked Continuous directory monitoring for content updates, local or networked Optimized for Networked Media Aggregates all media resources on the network into a single, unified end-user presentation Can present multiple servers in a single content directory Unlimited simultaneous media streams Enjoyable End-User Experience Access to available music and photo metadata Automatic generation of photo thumbnails Detection of music thumbnails (album art) Block Diagram Board Design Resources

Demo One of the new features that can be found on the FRDM-K82F is the FlexIO header. It’s be specifically designed to interface with the very cost-efficient OV7670 camera, and uses 8 FlexIO lines to read data from the camera. By using the FlexIO feature, it makes it easy to connect a camera to a Kinetis MCU. A demo is included with Kinetis SDK 1.3 which streams the video data from the camera to a host computer over USB     FlexIO: The FlexIO is a highly configurable module found on select Kinetis devices which provides a wide range of functionality including: • Emulation of a variety of serial/parallel communication protocols • Flexible 16-bit timers with support for a variety of trigger, reset, enable and disable conditions • Programmable logic blocks allowing the implementation of digital logic functions on-chip and configurable interaction of internal and external modules • Programmable state machine for offloading basic system control functions from CPU   All with less overhead than software bit-banging, while allowing for more flexibility than dedicated IP. NXP product Product Link Freedom Development Platform for Kinetis® K82, K81, and K80 MCUs FRDM-K82F|Freedom Development Platform|Kinetis® MCUs | NXP    Links One of many places to buy the OV7670 camera module OV7670 Reference Manual FlexIO Overview FlexIO Training presented at FTF

Demo Owner: Alin Iulian Lazar Watch how Kinetis Microcontrollers KW2x wireless MCU runs RF4CE and ZigBee Pro stacks in DualPAN mode delivering next-generation remote control and home automation integration.   Features Kinetis Microcontrollers KW2x is able control a TV and also control home automation devices ZigBee (RFCE and HA). Dual personal area network acting in two networks simultaneously. Featured NXP Products Kinetis KW2x Links USB Packet Sniffer/Dongle|NXP Block Diagram  

About this demo This Demo contains fully working software to show the implementation of two great features from the QN9080SIP-DK. The BLE in this board provides a Beacon solution to be implemented, based on the SDK example downloaded in the https://mcuxpresso.nxp.com/en/select As previously mentioned, this demonstration is based on the Beacon example from the QN9080 SDK, along with the AN12319SW for using the NT3H2211 Tag. The main objective of this demo software is to write a string in the NTAG memory and be able to read the content using the NTAG stack (from the AN12319 project). Then trigger a message update to be advertised from the beacon. Project Scope Write an NDEF message with a smartphone, using NXP's TagWrite App into the NT3H2211. Be able to start advertising the 6-byte code/message using the BLE stack from the SDK version 2.2.3 into the MCUXpresso v11.2.1. Useful Links Link Description https://mcuxpresso.nxp.com/en/builder SDK Builder https://www.nxp.com/products/wireless/bluetooth-low-energy/fully-certified-module-supporting-bluetooth-and-nfc:QN9080SIP QN9080SIP full documentation https://www.nxp.com/docs/en/application-note/AN12319.pdf A document explaining brief integration for pairing using the NTAG https://www.nxp.com/docs/en/application-note-software/AN12319SW.zip  The respective Software for the AN12319   Required Items Link Description https://www.nxp.com/products/wireless/bluetooth-low-energy/a-highly-extensible-platform-for-application-development-of-qn908x:QN9080DK Board in which the demo was created and tested Android Smartphone Smartphone with IoT Toolbox and TagWriter App IoT Toolbox App https://play.google.com/store/apps/details?id=com.freescale.kinetisbletoolbox TagWriter App https://play.google.com/store/apps/details?id=com.nxp.nfc.tagwriter   Hardware Diagram     Step-by-Step Guide for testing the Demo Get the QN9080 SDK form SDK Builder  Install the QN908x SDK into your MCUXpresso Import the attached file into MCUXpresso on File > Open Projects from File System   Connect properly the NTAG antenna from the kit as shown in the Hardware Diagram. Connect the QN9080SIP-DK using a micro-USB cable. Flash the project into the board and Push Button 1 from the board while running. Open the TagWriter App from your phone and select the Write option. Create a New Plain text element and write any positive float number (< 0.0). Select the Save and Write button. Approach the phone into the NFC antenna. Press Button 1 again to restart the BLE advertising Open the IoT Toolbox App. Select the Beacons option. You should be able to visualize the new payload messages from the device. Note: These messages are representation in decimal from the actual 4-byte (32-bit) number. Each letter is composed of 2, 8-bit numbers. This RAW representation is for proof of concept purposes. This application can be replaced by another BLE device in scanning mode to perform a data post-process.  Additional Demo Information These next steps are intended to guide the developer to an easier understanding of the modifications that were made from the base project. This example provides a guide to learn the basic functionality of the high-level NTAG stack.   Select the FreeRTOS Beacon example from wireless_examples -> Bluetooth in the QN9080 SDK. After being sure that this demo works properly on our QN9080SIP-DK we need to import from the file system the AN12319 project. For being sure everything works, we can also test this project, inside it there is a file called: app_ntag.c inside the source directory. Inside this file, on the Public Functions section, we are able to modify the NDEF_Pairing_Write() and NDEF_Demo_Write() functions for our purposes. The first function is used as the name mentions, to execute the example for pairing our phone with the board without the need to type any pairing code. The second function writes an NDEF in the NTAG and can be read from the phone App TagInfo or TagWriter. To start with the actual creation of the application I used this project: "qn908xcdk_wireless_examples_bluetooth_hid_device_freertos" and started importing the beacon files needed from the beacon FreeRTOS example. As you can observe, this job facilitates a lot because of the similar structure between both projects, this will simplify the tasks and will help us not to get lost. Due to the fact that we started using the HID Device project, all the NTAG stack was already there so we will only be going to focus on the source directory for the additions and modifications. Starting with the erasing of the hid_device.c and .h, these files won't be required for this project. The beacon.c and .h are required to be in this project for the beacon functionalities and routines, this files depend on the Bluetooth stack, the general framework files, and the common files from the source directory. The app_config file has all the BLE needed configurations to set the parameters and respective structures. This is where the initial advertising message will be configured. For the NTAG configurations, the app_ntag file containing the high-level nTag functions for Read/Write capabilities that depends on the NTAG stack (NTAG_I2C/XXX) The ApplMain had some of the most significant changes due to being the main file that calls the BLE functions at the start and also manages the Interrupt used to trigger our own project functions using FD. The files that changed were, as mentioned above, ApplMain.c and app_ntag.c/.h . This has to do with the fact that we will only are going to change the functions called when a Tag Writer is in the field of the NFC antenna and how this data is processed in order to be read and sent to the aData array by using its structure. As you can see in the app_ntag.c file, the last two functions: NDEF_read_test() and getDataNDEF() represent the main changes in this file. Along with the pin configuration for FD managing in the ApplMain.c

Dear All: Customer has encountered eMMC boot failure issue in their i.MX8X platform, finally we confirmed this issue related to external pull-up resistors on DAT0~7 and CMD pins to comply with eMMC SPEC. Please refer to attached "Case Study-i.MX8X boards eMMC boot failure issue.pdf". Thanks.

Overview   Within the industry it is necessary to use different types of motor control in which different ranges of precision or freedom of movement can be obtained. The servo motor control by pwm gives precise control by angles.   Required material   1x Kinetis K70 120 MHz Tower System Module 2x Tower System Elevator Module 5x Potentiometer 5x Servomotor CodeWarrior Video     Connections   Step-by-Step   1. Download the attached file2. Unzip it 3. Upload it to CodeWarrior 4. Compile it 5. Upload it to the TWR-K70 board 6. Make the connections in the diagram 7. Connect to Power Supply 8. The variation in the potentiometers will vary the position of each motor

Description   A shared power bank is the sharing economy business model (which has been booming in in recent years). A shared power bank is an publicly accessible charging station, which provides power bank to customers.   A common scenario would be a customer running low on battery on their mobile phone. Using a smartphone app they would locate a nearby charging station, for instance in a cafe. Each station has either six or twelve rechargeable batteries, which can be taken out of the box and connected to an iOS or Android device.   Features   Smartphone app to indicate where a nearby charging station is located Each station has either six or twelve rechargeable batteries   Block Diagram     Products     Category Name 1: MCU Product URL 1 Arm Cortex-M4|Kinetis K22 100 MHz 32-bit USB MCUs | NXP  Product Description 1 The Kinetis® K22 offers analog, communication, timing and control peripherals to meet diverse requirements   Category Name 2: Bluetooth Product URL 1 QN908x: Ultra-Low-Power Bluetooth Low Energy System on Chip (SoC) Solution | NXP  Product Description 1 QN908x integrates a Bluetooth Low-Energy radio, controller, protocol stack and profile software on a single chip, providing a flexible and easy to use Bluetooth Low Energy SoC solution.   Category Name 3: Peripherals Product URL 1 PCA9535A | NXP  Product Description 1 The PCA9535A is a low-voltage 16-bit General Purpose Input/Output (GPIO) expander with interrupt and reset for I²C-bus/SMBus applications.     Tools   Product Link FRDM-K22F: NXP Freedom Development Platform for Kinetis® K22 MCUs FRDM-K22F|NXP Development Platform|Kinetis® MCU | NXP  QN9080DK: A highly extensible platform for application development of QN908x QN9080DK: A highly extensible platform for application development of QN908x | NXP 

Video Link : 6084 Description: Teensy 3.1 and Teensy-LC are a complete USB-based development tools featuring respectively the Kinetis 32-bit Cortex-M4 K20 and Cortex-M0+ KL26 devices running @ 72 and 48 MHz. Teensy 3.1 is equipped with 256KB flash and 64KB RAM. Teensy-LC board is equipped with 62KB flash and 8KB RAM. Value Propositions * Very small footprint development tools * Very Low Cost dev tool * They are able to implement many different projects * Open source SDKs Teensy board with very high extended-Arduino compatible performance levels and libraries taking advantage of Kinetis features like low power modes and internal DMA. Libraries for LED (WS2811) and 16bit 44.1kHz audio quality is where Makers go when they need quality, performance and small size. FEATURES Hardware Specifications Specification Teensy LC Teensy 3.0 Teensy 3.1 & 3.2 Units Processor MKL26Z64VFT4 32 bit ARM Cortex-M0+ 48 MHz MK20DX128 32 bit ARM Cortex-M4 48 MHz MK20DX256 32 bit ARM Cortex-M4 72 MHz Flash Memory 62 128 256 kbytes RAM Memory 8 16 64 kbytes EEPROM 1/8 (emu) 2 2 kbytes I/O 46, 5 Volt 34, 3.3 Volt 34, 3.3V, 5V tol Analog In 8 14 21 PWM 9 10 12 UART,I2C,SPI 1,1,1 3,1,1 3,2,1 Price $24.00 $19.00 $19.80 USD Software Enablement Teensy 3.2 & 3.1: New Features https://www.pjrc.com/store/teensylc.html RECOMMENDED PRODUCTS Product Description Kinetis K Microcontroller Kinetis L Microcontroller RESOURCES Title Type PJRC (Teensy Official Website) Web Page

Demo Owner: Nik Jedrzejewski The PICO-IMX7-EMMC from TechNexion is a small footprint SOM equipped with a wide array of high-speed connectivity. ___________________________________________________________________________________________________________________ Featured NXP Products: i.MX 7 Series Applications Processors: Multicore, ARM® Cortex®-A7 Core, ARM Cortex-M4 Core External link Computex 2016

  Description A data logger senses parameters such as temperature, processes this data and transmits it using UHF/Bluetooth LE. This data logger has NFC + UHF/Bluetooth LE temperature logging. Block Diagram Products Category Name 1: NTAG IC Product URL 1 NHS3100: NTAG SmartSensor with Temperature Sensor and Digital IOs | NXP  Product Description 1 The NXP® NHS3100 is an IC optimized for temperature monitoring and logging. its embedded NFC interface, internal temperature sensor, and direct battery connection. The NHS3100 includes multiple Power-down modes and a selectable CPU frequency of up to 8 MHz, for ultra-low power consumption.   Category Name 2: BLE Transceiver Product URL 1 QN908x: Ultra-Low-Power Bluetooth Low Energy System on Chip (SoC) Solution | NXP  Product Description 1 The QN908x is an ultra-low-power, high-performance and highly integrated Bluetooth Low Energy designed for human interface devices with a small capacity battery.   Category Name 3: UHF NFC Transceiver Product URL 1 UCODE I2C | NXP  Product Description 1 The UCODE I2C combines two independent UHF Interfaces (following EPC gen2 standard) with an I2C interface. Its large memory can be then read or written via both interfaces. This I2C functionality enables the standard EPC gen2 functionalities to be linked to an electronic device microprocessor. Related Documentation Document URL Title https://www.nxp.com/docs/en/application-note/AN11180.pdf UCODE I2C PCB antenna reference designs https://www.nxp.com/docs/en/nxp/application-notes/AN12194.pdf QN908x RF Certification Guide https://www.nxp.com/docs/en/nxp/application-notes/AN11996.pdf QN908x Hardware Design Considerations https://www.nxp.com/docs/en/nxp/application-notes/AN01786.pdf QN908x Power Consumption Analysis https://www.nxp.com/docs/en/nxp/application-notes/AN11994.pdf QN908x BLE Antenna Design Guide Training Training URL SmartSensor  Hands-On - NTAG I2C Plus Brings NFC Connectivity into Consumer Electronics for Tiny Devices  Related Demos from Communities Related Demos URL NFC Demos - Information, Source codes, Schematics   NTAG I2C Plus interface to Kinetis Freedom boards  Designing with the New Ultra-Low-Power BLE System on Chip 

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