Demo High Performance Enterprise Access Point OEM Reference Solutions for Layerscape and QorIQ families.  Demo showcases 802.11AC based Enterprise Access Points showing >2.2Gbps of WIFI with Dual 11AC WIFI cards with very low CPU to provide head room for additional applications to be run.  OEM  Alpha Networks & Embedded Planet Reference Solutions for T1023 and LS1043 Features Wireless Performance up to 2.5Gbps Maximum ARM A53 or Power PC application headroom Proven Wireless partners Quantenna, Celeno & QCA Support for new multi-user MIMO transmission to groups of clients NXP Recommends QorIQ T1024/14 and T1023/13 Dual- and Single-Core C QorIQ LS1043A and LS1023A Multicore Communications

Demo Owner Brian Gildon   Timesys Vice President of Business Development, Brian Gildon demonstrates various NXP based applications for optimized performance devices. Demonstrations include  NXP's Vybrid TWR-VF65GS10 board on Linux, a fast boot demonstration using i.MX 6 platform on Linux and finally a Sabre SDP a multi-touch interface design for designers who want simple branding.   Features Timesys - Linux tools services and training First demo: Vybrid tower board demo RTOS and Linux running simultaneously Second demo: Boot up Android quickly from a cold boot Third demo: Accelerated video demo vs non-accelerated video comparison Fourth demo: QT widget support on a multi-touch interface   Product Link SABRE Board for Smart Devices Based on the i.MX 6Quad Applications Processors i.MX 6Quad SABRE Development Board | NXP  VFxxx Controller Solutions VFxxx Controller Solutions based on Arm® Cortex® A5 and M4 Cores | NXP  Links Tymesys  

I am using Adafruit LED stripes with 60 LED's per meter. Each LED integrates the W2812B controller. WS2812B uses a serial protocol, and you can control each LED individually. The strip is made of flexible PCB material, and comes with a weatherproof sheathing.   https://www.adafruit.com/products/1138   WS2812B is an intelligent control LED light source that the control circuit and RGB chip are integrated in a package.   The data transfer protocol use single NZR communication mode. After the pixel power-on reset, the DIN port receive data from controller, the first pixel collects initial 24bit data, then send to the internal data latch, the other data is sent to the next cascade pixel through the DO port.   LED's in cascade: My LED panel uses 16 rows x 30 columns = 480 leds.   In a first approach, in order to generate the bit stream, a timer in PWM mode could be used and generate two different duty cycles for sending a "0" logic or "1" logic. Using PWM's + DMA can unload the CPU in the generation of each single bit. FlexIO module in the Kinetis K82 can do that in a very effective mode and generate 8 channels simultaneously.   But my objective is to unload the CPU as much as possible in the bit stream generation task and find an easy method of multiplexing the 8 FlexIO outputs. In this way, we can control more LED rows and get a minimum number of interrupts and CPU intervention.   I will use the FlexIO internal data shifters to send the data bit stream. One shifter for each row. As we only have 8 shifters, I can use external multiplexor to increase the number of rows. Unloading the CPU for the LED refresh process, we can mux several rows in each shifter output. The limit of LED’s will be the refresh time of the full panel.   FlexIO block diagram:     How are the "1" and "0" generated?   Each pixel needs 24 bits of Red-Green-Blue value (RGB)   For each row, I need to send 30 x 24 bits of RGB information. But I have to encode the data in the NZR/PWM protocol. I use a lookup table to transform 24 bpp information in 24 x 3 = 72 bits per pixel.     In this way the  DMA can send 30 x 24 x 3 = 1440 bits (A full row)  in 60 transfers of 24 bits into the shifter. We get only one DMA interrupt for each row:       Multiplexer implementation:       Frame Buffer LED:   typedef union { uint32_t  rgb;     struct{       uint8_t  b;       uint8_t  r;         uint8_t  g;       uint8_t  a;     }bytes; }ledrgb;   Extended LED encoded data:   typedef struct {   uint32_t g;   uint32_t r;   uint32_t b; }ledrgb_ext;     Lookup Table:   void init_conv_matrix(void) { videoconv[0]=0x92492400; videoconv[1]=0x92492600; videoconv[2]=0x92493400; videoconv[3]=0x92493600; videoconv[4]=0x9249A400; videoconv[5]=0x9249A600; videoconv[6]=0x9249B400; videoconv[7]=0x9249B600; videoconv[8]=0x924D2400; videoconv[9]=0x924D2600; videoconv[10]=0x924D3400; ... };   Part 3: Software for LED Panel emulation Or Return to Project page: LED Panel control with FlexIO

Demo Owner: Mark Houston   The 3 Pillars of Kinetis V series software enablement are Kinetis Motor Suite, Kinetis Motor Control Toolbox and Kinetis Reference Designs.   Features: The Kinetis V Series portfolio is focused on providing software solutions for motor and power control, no matter your knowledge of the application. Kinetis V enables customers with little motor control experience or a short time to market with Kinetis Motor Suite. For customer with more application knowledge Kinetis V enables you with our reference design software, or our model based design tools, both incorporating NXPs Embedded Software Libraries ________________________________________________________________________________________   KV11 Dual BLDC Sensorless BLDC motor control is increasingly popular. Nowadays, application with multiple BLDC motors are becoming more common. Therefore, the best option seems to be independent sensorless motor control using single microcontroller. This method provides robust, long life and low cost operation.    Features: This reference design supports sensorless motor control of two Brushless DC (BLDC) motors using a single Kinetis KV11 device. Two BLDC motors are controlled independently, this means each motor can be running at different speed. Demo is friendly controlled and monitored through FreeMASTER. Communication between KV11 and FreeMASTER is done via FlexCAN module. CAN protocol provides a robust, fast and reliable operation.   ________________________________________________________________________________________   Sensorless ACIM FOC Motor Control on Kinetis V This demo shows the benefits of NXP Kinetis V enabled sensorless vector control of AC Induction Machine (ACIM) over conventional open-loop scalar control. You can compare speed tracking and power efficiency performance on your own speed and load profile.   Features: HVP-MC3PH high-voltage development platform with HVP-KV46F256 daughter MCU card enabled by ACIM   Motor Control Reference Solution Package (MCRSP) and Power Factor Correction (PFC) software  FRDM-KV31F freedom platform featuring FreeRTOS based software for control of synchronous motor acting as ACIM load Precise measurement with KM34Z single-phase power meter Interactive demo control via FreeMASTER and MCAT tools enabled PC       ________________________________________________________________________________________   Digital controlled LLC resonant converter using Kinetis KV46 This development kit show the design of a fully digital off-line DC/DC switched-mode power supply (SMPS) using an LLC resonant converter topology.     Features: Technical parameters: Input voltage: 390VDC Output power: 250W Output power: 12V Output Current: 21A Switching frequency 75-300kHz   Main Board Features: High efficiency Replaceable Controller card GaN power FETs Synchronous rectifier Analog sensing (resonant tank current, output voltage, output current, phase currents, back-EMF voltage, PFC currents, IGBT module temperature monitoring) Input over current protection Output over current protection Serial interface for communication with Auxiliary flyback power supply     ________________________________________________________________________________________   DSC Dual Servo Many applications require synergy control among multiple motors. Multiple motors controlled on single chip is the good way to solve this demand. Dual servo motors control is popular for two dimensions control applications such as sewing machine, camera gimbal system etc. This demo shows the capability of NXP DSC to control dual servo motors on single chip, and the two servo motors can be run well independently.   Features: This reference design supports dual servo motors control on single MC56F84789 DSC. Three control loops (position loop, speed loop and fast current loop) are enabled for each servo motor, a patented low speed measurement algorithm is used to achieve excellent low speed performance with low-cost quadrature encoder. Through FreeMASTER GUI, this demo can be friendly controlled and monitored.   ________________________________________________________________________________________ KE02 HVP Sensorless FOC PMSM control is demanded frequently from many application for energy efficiency and quiet operation. Even some low end motor control applications such as HVAC blower, indoor blower of AC system, industrial fan and pump etc. require sensorless FOC solution. KE02 HVP sensorless FOC PMSM is targeted on low-cost sensorless FOC solution on KE02 for sensorless FOC entry level in NXP   Features: This reference design targets the MKE02Z32 low end 32-bit M0+ based microcontroller for ultra low cost sensorless FOC PMSM drive solution. Extended Flux observer and DQ Back-EMF observer/tracking observer are used to control motor for excellent performance during low-speed region and mid-/high-speed region respectively. Three-shunt current sensing algorithm and single-shunt current sensing algorithm are optional, and anti-wind startup feature is enabled as well. Through FreeMASTER GUI, this demo can be friendly controlled and monitored.   ________________________________________________________________________________________   Featured NXP Products: KINETIS MOTOR SUITE: Simple motor control developme|NXP Motor Control Development Toolbox|NXP Kinetis Designs|NXP ARM Cortex-M0+/M4/M7 Cores|Kinetis V MCUs|NXP 3-Phase AC Induction Motor Control Design|NXP 3-Phase PMSM Motor Control Reference Design|NXP 3-Phase Brushless DC Motor Control Design|NXP Embedded Software Motor Control and Power Conversio|NXP High-Voltage Development Platform|NXP   C86

Overview This NXP® reference design of a 3-phase sensorless PMSM vector control drive with a sliding mode observer (SMO) is targeted mainly for compressor control and other consumer and industrial applications. This cost-effective solution uses the NXP MC56F8013 device dedicated for motor control. Software written in C-code using some library algorithms Available for the MC56F8013 and MC56F8346 digital signal controllers Hardware-based on the NXP universal motor control h/w modules Features The system is designed to drive a three-phase PM synchronous motor. Application features are: 3-phase sensorless PMSM speed vector control (FOC) Sliding mode observer with adaptive velocity estimation Based on NXP ®  MC56F8013 (resp. 56F8346) controller Running on a 3-phase high voltage (230/115V) power stage FreeMASTER software control interface and monitor Block Diagrams Design Resources

G5 Engineering demonstrates an IP camera solution based on i.MX6 apps processor at the FTF Americas 2014.   Features Multiple IP cameras that are aggregated by one i.MX6 and then sent over an IP backhaul to a second i.MX 6 for integration into a single image The images are brought out to the screen. No need to use Windows reducing virus instances With a click of a button can change the display to 1x1 or 1x2 to 4x4 views Featured NXP Products ARM® Cortex®-A9 Cores: i.MX 6 Series Multicore Processors Links G5- NXP Partner  

Overview NXP® and Tongji University jointly developed the anti-pinch window lift reference design featuring the MagniV® S12VR MCU, ideal for the development of power windows and sun roof systems. Includes hardware for real door/window in-vehicle applications, as well as software including anti-pinch algorithms and low-level S12VR drivers Aimed at reducing time to market, this design leverages unique features of the MagniV S12VR MCU Reduces unnecessary external components, lowers the total bill of material (BOM), improves system quality and saves space in automotive applications through a smaller PCB Features Window manual/automatic up/down, automatic up/down with stop function Anti-pinch in both manual/automatic mode, anti-pinch region and force can be adjusted Stuck detection out of anti-pinch region, motor overload protection Soft stop when window is close to the top/bottom Fault diagnosis, indicating low voltage, over voltage/current/temperature etc. Low power mode (leveraging S12VR low power mode) to reduce power consumption Self learning, calibration by updating the window/motor parameters stored in EEPROM Use hall sensor as well as current sense to judge anti-pinch in algorithm Easy-to-control Graphics User Interface (GUI), set the parameters and get the status Window lift can be controlled either by multiple LIN salve nodes or LIN master node (through GUI) Able to comply with relevant content in US Federal Motor Vehicle Safety Standard (FMVSS No. 118) Block Diagram Design Resources

Description Application demo uses a model trained off the MNIST dataset to recognize individual handwritten digits written on the touch sensitive LCD screen. Thie model conversion can be found here: https://community.nxp.com/docs/DOC-344227. Software The RT1060 SDK should already be installed in MCUXpresso IDE. Drag-and-drop the .zip file into the Project Explorer view, and then compile and flash. NXP Products Link i.MX RT1060 Evaluation Kit i.MX RT1060 Evaluation Kit | NXP  4.3" LCD Panel 4.3" LCD Panel RK043FN02H-CT | NXP 

The quadcopter drone is a very popular design for an unmanned aerial vehicle (UAV). It consists of a flight controller and four electronic speed controllers (ESCs), one for each motor. The flight controller is equipped with a radio to receive flight commands provided by the pilot and the inertial measurement unit (IMU). The IMU provides information (such as velocity and orientation) that are necessary for autonomous stabilization of the vehicle, using the internal accelerometer, gyroscope, and sometimes the magnetometer and GPS receiver.   Resources Quadcopter Drone Reference Design   Drone Examples - powered by NXP 3DR Drone Spiri Programmable Flying Robot  DJI Phantom 3 Advanced

The project solution is a IAR Workbench project with the three main application componentes on top of FreeRTOS: eGUI low level drivers:   Part 3: Software for LED Panel emulation Or Return to Project page: LED Panel control with FlexIO Downoload Full Project:

Demo WaRP7 is an open source platform backed by the development community, design and manufacturing capabilities of element14. Features: CPU:  NXP i.MX 7Solo applications processor (Cortex TM -A7/Cortex TM –M4) Memory: 8GB eMMC 5.0 and 4Gb LPDDR3 Connectivity: WiFi, Bluetooth, BLE, USB-OTG, NFC Multimedia I/F: Camera, MIPI Display, Audio Sensors: Accelerometer, Barometer, Gyroscope Power: PMIC, Battery charger  BSP: Linux 3.14, Android 5.1 __________________________________________________________________________________________________________________ Featured NXP Products: i.MX7D: i.MX 7Dual Processors - Heterogeneous Processing with dual ARM® Cortex®-A7 cores and Cortex-M4 core Link WaRP7

Timing Attack demo The Timing Attack demo shows the importance of securely implementing a PIN verification. If a PIN verification is implemented with operations which are not time-invariant - for example an if-else construction - it is possible to identify when an incorrect PIN digit is being compared by observing the timing information of the corresponding EM side-channel measurement. By iterating through all possible values of a PIN digit the correct character will be identified in a maximum of 10 attempts.   To make the PIN query secure, a time-invariant comparison has to be implemented. For example, a bitwise XOR comparison and subsequent OR operation for all PIN digits, ensures the same time is taken for all possible comparisons. This scheme is illustrated in         the block diagram.                      Simple Power Analysis demo The RSA-Algorithm implemented in the Simple Power Analysis demo application is reduced to a simple 8-Bit implementation for illustrative purposes. The physical smart card interface used is contact-based.   By monitoring the voltage drop across a shunt resistor it is possible to measure the power consumption of an RSA operation on a digital oscilloscope. Observation of the resulting measurements reveal that it is possible to visually distinguish  single square operations from square and multiply operations. By iteratively logging this sequence of operations, the bits of the exponent, that is the secret key, can be directly identified.   By using countermeasures like the square and always multiply algorithm, the decoding of the exponent bits can be prevented and the key protected. The square and always multiply algorithm is illustrated in the block diagram.           Fault Attack demo The Fault Attack demo shows what can happen at software execution, if a flashlight is fired on a decapsulated chip which has no security measures.   With simple tools – a mechanical grinding tool and some chemical etchant - it is possible to expose the surface of the chip and crudely inject photons into the sensitive silicon substrate.   In this case the flashlight causes a skip in the execution of the PIN verification code if the flash is discharged close to the surface at the correct moment.   In normal function expiration the UserPin is either correct or incorrect and access to the data is granted or denied accordingly. With a successful flashlight attack it doesn’t matter which value for UserPin is entered - after several tries the attacker skips the query and has access to the secret data.                     RFID Relay Attack demo TheRFID Relay Attack demo demonstrates a new paradigm in relay attacks in the context of software emulated smartcards on mobile devices. Previous conditions about proximity of the attacker to the victim and the time when the victim is approached, are negated. With a software emulated smartcard on a mobile device an attacker can intercept and relay the transaction of a potential victim remotely. This new attack paradigm greatly enhances the value of this attack for criminals, and consequently will result in greater malware development efforts.   Additional Information on the individual attacks:     C03

Overview The very rapid adoption of digital media such as downloadable music, video games, and movies has created a strong demand for converged network platforms to distribute media content throughout the home. Consumers need a unified platform that connects all digital networked devices within the home and provides content and services management from anywhere in the world. The MPC8349E-mITX is a turnkey hardware/ software reference platform ideal as a "location-free control access" residential gateway solution. This reference platform is based on the MPC8349E PowerQUICC® II™ Pro processor, containing a Power Architecture® core and HipServ™ software platform from Axentra, a leading provider of personal digital content and services software platform for the Digital Home. Features MPC8349E mITX Digital Home Center Reference Platform features: MPC8349-mITX reference platform helps you manage your digital devices remotely from just about anywhere on the globe. These include: Internet gateway Router Wi-Fi access point Digital content/media server Home automation PC Home-bound content remote access and sharing Backup Server The MPC8349E-mITX integrates the enhanced e300 Power Architecture core and advanced features such as DDR memory, dual PCI, Gigabit Ethernet, and high-speed USB controllers. The platform supports dual 10/100/1000 Mbit/s Ethernet controllers, dual 32-bit/single 64-bit PCI controllers, integrated security engines, USB 2.0 host and devices controllers, 4-channel DMA, DUART, serial peripherals, general-purpose I/O and system timers. The high level of integration in the MPC8349E helps lower system costs, improves performance, and simplifies board design. The MPC8349E also integrates a hardware encryption block that supports different algorithms for high-performance data authentication as required for secure communications in the residential market. It supports DES, 3DES, MD-5, SHA-1, AES, PKEU, RNG, and RC-4 encryption algorithms in hardware. In addition to the highly integrated MPC8349E processor, the reference platform leverages external components to support these additional features: 5-port Gigabit Ethernet switch Four high-speed USB ports Four Serial ATA ports PCI slot MiniPCI slot Compact FLASH memory slot Axentra's Location-Free Access and Control Software: The HipServ software platform is a comprehensive and unified environment that allows home users to easily use various content on different devices within the home or access the content from anywhere, anytime. Home users are increasingly creating more digital content and need a single environment to better manage, access, share, and backup their critical home-created content. This innovative software platform also allows users to access and share their home content using mobile devices. Key Features: Content remote access, sharing and publishing (home-based content) Unified operating environment and interface for central access to any content Auto back-up from PC/Mac to central storage or remote storage Media management and server (UpnP-AV) Home surveillance (internet camera) Remote desktop access (PC/Mac) Easy management of photographs, music, and videos Block Diagram Board Design Resources

Overview The QorIQ® P1025 Data Concentrator reference design will instantly discover and connect with multiple smart energy meters. Featuring an Advanced Metering Infrastructure (AMI), the data concentrator enables bi-directional real-time monitoring and control The data concentrator also enables real-time metering and monitoring on multiple meters and transfers real-time information back to the utility server via a 3G uplink Features High-performance QorIQ ®  P1025 processor with up to 1300 DMIPS available to implement complex usage cases Discovers and interfaces to smart metering devices; implements device machine message specification (DLMS) protocol to standardize communications Broadcast capability to the utility server using a 3G uplink card and Power Line Communications (future development) Board Design Resources

Demo In the smart city different areas can be selected by touching them (or mouse klick in the webversion). After entering a city area different applications are shown, but touching you can enter and see either a product description or a short movie – when the movie stops some interaction is requested – tap the card to the reader and the movie goes on. Cards/tags can be placed on the card ready any time and the user gets information about the card. Via and NFC enabled Android phone additional applications can be downloaded on MIFARE DESFire cards. Eg additional rides for the Metro can be downloaded. Features: MIFARE DESFire EV2 ISO/IEC 14443 A 1-4 and ISO/IEC 7816 compliant 2/4/8-Kbyte EEPROM with fast programming NFC Tag Type 4 compliant Secure, high-speed command set MIsmartApp grants application space to third parties without sharing the master key Unlimited number of applications and flexible file structure Demo shows key applications: Advanced public transportation Access management Closed-loop micropayment C ampus and student ID cards Loyalty programs _______________________________________________________________________________________________________ Featured NXP Products: MIFARE DESFire|NXP MIFARE Ultralight|NXP ICODE|NXP NTAG|NXP https://nxp-rfid.com/ _______________________________________________________________________________________________________ External Links:  MIFARE MIFARE History Demo webversion _______________________________________________________________________________________________________

  Overview The IoT Low Power Sensor Node reference design is a compact form factor, open source design. It enables low power nodes based on IEEE 802.15.4 protocols such as Thread and ZigBee to communicate data to a wireless sensor network. NXP supplements the Kinetis KW2xD with tools and software that include hardware evaluation and development boards, software development IDE and demo applications and drivers.   Features   MKW24D512 802.15.4 Kinetis MCU Full IEEE 802.15.4 compliant wireless node for Thread network Reference design area with small footprint, low-cost RF node Integrated PCB meander horizontal antenna 2 Interrupt push button switches (LLWU) 1 FXOS87000CQ Combo sensor   Block Diagram Board Design Resources

Overview This reference design offers both metering and WiFi capabilities: Metering - used to measure electronic power in single-phase and, WiFi - used for wireless control. Plug status can be checked via a smart-phone application, including current active power, reactive power, grid frequency, history runtime. On/Off setting timer available as well. Features Based on Kinetis MKM14Z64 MCU WIFI module based on QFM2202 220V input voltage, 10A max current Phase current sampling with 25ppm 5 mΩ current sampler by 24Bit SD ADC Phase voltage sampling with 25ppm resistor voltage divider network by 24Bit SD ADC On-chip voltage comparator (for precision grid frequency detection) Single 32.788K crystal input for 5ppm RTC External extendable 64Mb SPI Flash Low-power modes including the use of built-in RTC 3 channel LED pulse outputs for calibration(kWh, kVarh) Provide android application to get active power, reactive power, apparent power, grid frequency and history runtime Android application to set plug ON/Off, set timer for ON/Off at fixed time and set RTC time Android application to set plug wifi module to power save mode Cost-effective bill of materials External extendable WIFI module with UART connection Block Diagram Design Resources

Overview The Sensorless High-Speed SR Motor Control Reference Design based on the NXP® low-cost MC56F8013 digital signal controller (DSC) deals with a 2-phase switch reluctance (SR) motor sensorless drive for vacuum cleaners and other air movement applications. The application is a speed-open loop SR drive without any position or speed sensor needs Uses a sensorless control method based on current peak detection and a patented start-up algorithm (Patent No. US6448736 B1) The control technique allows the SR motor more than 100 000 RPM The application is primarily for vacuum cleaners, although it can be used for any application with a high-speed drive (50 000 RPM) Features High-speed 2-phase SR motor sensorless control based on a current peak detection Designed for vacuum cleaner applications Capable of running SR motors at more than 100.000 RPM (tested with SR motor designed for 60 000 RPM) Single direction rotation enabled by asymmetric of 2-phase SR motor Speed open loop Start-up from any position using alignment and patented algorithm (Patent No. US6448736 B1) Start-up time and maximum speed depends on SR motor parameters Manual interface and FreeMASTER control page for monitoring, control and tuning Block Diagram Design Resources

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 _______________________________________________________________________________________________________

Demo Go to your local bicycle store and you will see just how popular Ebike are becoming. To help power this revolution further Kinetis Motor Suite will enable your motor control solution quickly. KMS is used to tune and control the motor with FOC torque control, with the startup control modified to uses the hall effect inputs to improve start-up power.     Features: A sensorless FOC Brushless DC (BLDC) motor control application with torque control, using a Kinetis V Series KV3x ARM Cortex-M4 MCU and the Kinetis Motor Suite solution.  KMS supports the development of sensored and sensorless velocity control, and sensored position control applications for PMSM and BLDC motors ____________________________________________________________________________________________________________________________ Featured NXP Products: Product Link Kinetis® KV3x-100–120 MHz, Advanced 3ph FOC / Sensorless Motor Control MCUs based on Arm® Cortex®-M4 Arm® Cortex®-M4|Kinetis® KV3x Real-time Control MCUs | NXP  Kinetis® KV3x Family Tower® System Module https://www.nxp.com/design/development-boards/tower-development-boards/mcu-and-processor-modules/kinetis-modules/kinetis-kv3x-family-tower-system-module:TWR-KV31F120M?&lang_cd=en Low-Voltage, 3-Phase Motor Control Tower® System Module https://www.nxp.com/design/development-boards/tower-development-boards/peripheral-modules/low-voltage-3-phase-motor-control-tower-system-module:TWR-MC-LV3PH?&lang_cd=en Freedom Development Platform for Kinetis® KV3x Family MCUs FRDM-KV31F|Freedom Development Platform|Kinetis® MCU | NXP  NXP® Freedom Development Platform for Low-Voltage, 3-Phase PMSM Motor Control https://www.nxp.com/design/development-boards/freedom-development-boards/mcu-boards/nxp-freedom-development-platform-for-low-voltage-3-phase-pmsm-motor-control:FRDM-MC-LVPMSM?&fsrch=1&sr=1&pageNum=1 ____________________________________________________________________________________________________________________________ Online Training: Kinetis V Series MCU Online Training|NXP ____________________________________________________________________________________________________________________________     C63