MCAT is a graphical tool for automatic calculation and real-time tuning of selected motor control structure parameters. MCAT can be used with fixed or floating point 16- or 32-bit data so can be used for MPC5xxx Microcontrollers, Kinetis Microcontrollers, Digital Signal Controllers, and The specified item was not found.. It also acts as a plug-in tool for Freemaster which allows real-time monitoring, tuning and parameter updating in a target application. This Tool is a HMTL-based user-friendly graphical plug-in tool for NXP's FreeMASTER. It is intended for the development of PMSM FOC applications, real-time control structure parameter tuning, and will aid motor control users in adapting our MC solutions to their motors without a detailed knowledge of PI controller constant calculations. https://community.nxp.com/players.brightcove.net/4089003392001/default_default/index.html?videoId=4282488626001" style="color: #05afc3; background-color: #ffffff; font-size: 14.4px;" target="_blankFeatures Up to three motor application support with independent access to each motor Utilizing a pole placement method for control parameter estimation Real-time tuning and updating of control parameters Preview of the static configuration of tuned parameters Generic output file with static configuration of tuned parameters Plug-in tool for FreeMASTER, not available as a standalone tool Offers basic and expert tuning mode Modular S/W concept, easy configurable Featured NXP Products MC56F84XXX Qorivva MPC56xx ARM® Cortex®-M4 High Performance MCUs: Kinetis K  Series ARM® Cortex®-M0+/M4 Motor Control MCUs: Kinetis V Series

Teensy Prop Shield : Motion activated Light This demo shows a basic gesture controlled light sequence using NXP motion sensors available in the Teensy Prop Shield LED lights can be found on the following link: https://www.adafruit.com/product/2238 <script src="https://players.brightcove.net/6153537070001/default_default/index.min.js"></script>(view in My Videos) Features The Teensy Prop Shield is an add-on sensor shield board for the Teensy 3.1 which is an USB based microcontroller development platform. The Teensy 3.1 has a 32 bit ARM Cortex M4 processor from NXP -MK20DX256. The board can be programmed using Arduino IDE + Teensyduino plugin. The prop shield consists of the following devices: Motion Sensors - Allows motion interactive light & sound. Audio Amplifier - Clear quality audio output to a small speaker. Fast LED Driver - Drive APA102 / Dotstar LEDs for colorful lighting with rapid response. Flash Memory - 8 Mbyte storage for images, sound clips, and data logging\ Featured NXP products FXOS8700CQ - 6 Axis Linear Accelerometer & Magnetometer FXAS21002C   - 3 Axis Digital Angular Rate Gyroscope MPL3115A2     - Precision Pressure/Altitude & Temperature sensor MK20DX256   - 32 bit ARM Cortex M4 processor Demo Setup: Wiring[1] : Software: After setup, Download Arduino IDE and Teensyduino add on and follow the instructions as defined in the page below http://www.pjrc.com/teensy/td_download.html Note: Arduino version used for this demo:  1.6.8. Run the “Teensy_RGB_Led_Strip.ino” sketch attached. Sample Code: // Full orientation sensing using NXP's advanced sensor fusion algorithm.  //  // You *must* perform a magnetic calibration before this code will work.  //  // To view this data, use the Arduino Serial Monitor to watch the  // scrolling angles, or run the OrientationVisualiser example in Processing.      #include <NXPMotionSense.h>  #include <Wire.h>  #include <EEPROM.h>  #include <FastLED.h>      #define NUM_LEDS 60  CRGB leds[NUM_LEDS];      NXPMotionSense imu;  NXPSensorFusion filter;  int a;  int acc_rms;  void setup() {    Serial.begin(9600);    imu.begin();    filter.begin(100);    delay(2000);         FastLED.addLeds<APA102,11,13,BGR,DATA_RATE_MHZ(1)>(leds, NUM_LEDS);     pinMode(7, OUTPUT);    digitalWrite(7, HIGH);  // enable access to LEDs  }      void loop() {    float ax, ay, az;    float gx, gy, gz;    float mx, my, mz;    float roll, pitch, heading;        if (imu.available()) {      // Read the motion sensors      imu.readMotionSensor(ax, ay, az, gx, gy, gz, mx, my, mz);          // Update the SensorFusion filter      filter.update(gx, gy, gz, ax, ay, az, mx, my, mz);          // print the heading, pitch and roll      roll = filter.getRoll();      pitch = filter.getPitch();      heading = filter.getYaw();      Serial.print("Orientation: ");      Serial.print(heading);      Serial.print(" ");      Serial.print(pitch);      Serial.print(" ");      Serial.println(roll);      a=abs(roll/3);      Serial.print(" ");            acc_rms=sqrt(ax*ax+ay*ay+az*az)/3;      Serial.println(acc_rms);            //flash red if a violent shake event is detected            if(acc_rms==1)      {         for(int n = 0; n < NUM_LEDS; n++)          {             leds[n] = CRGB::Red;             FastLED.show();             delay(8);             leds[n] = CRGB::Black;        }      }            // Move a single white led as per rotation      for(int n = 0; n < NUM_LEDS; n++)       {         if(a==n)         {            leds[n] = CRGB::White;            FastLED.show();            delay(8);          }         else          {             leds[n] = CRGB::Black;          }      }    }  } PJRC Store Sample Code: // Full orientation sensing using NXP's advanced sensor fusion algorithm.  //  // You *must* perform a magnetic calibration before this code will work.  //  // To view this data, use the Arduino Serial Monitor to watch the  // scrolling angles, or run the OrientationVisualiser example in Processing.      #include <NXPMotionSense.h>  #include <Wire.h>  #include <EEPROM.h>  #include <FastLED.h>      #define NUM_LEDS 60  CRGB leds[NUM_LEDS];      NXPMotionSense imu;  NXPSensorFusion filter;  int a;  int acc_rms;  void setup() {    Serial.begin(9600);    imu.begin();    filter.begin(100);    delay(2000);         FastLED.addLeds<APA102,11,13,BGR,DATA_RATE_MHZ(1)>(leds, NUM_LEDS);     pinMode(7, OUTPUT);    digitalWrite(7, HIGH);  // enable access to LEDs  }      void loop() {    float ax, ay, az;    float gx, gy, gz;    float mx, my, mz;    float roll, pitch, heading;        if (imu.available()) {      // Read the motion sensors      imu.readMotionSensor(ax, ay, az, gx, gy, gz, mx, my, mz);          // Update the SensorFusion filter      filter.update(gx, gy, gz, ax, ay, az, mx, my, mz);          // print the heading, pitch and roll      roll = filter.getRoll();      pitch = filter.getPitch();      heading = filter.getYaw();      Serial.print("Orientation: ");      Serial.print(heading);      Serial.print(" ");       Serial.print(pitch);      Serial.print(" ");      Serial.println(roll);      a=abs(roll/3);      Serial.print(" ");            acc_rms=sqrt(ax*ax+ay*ay+az*az)/3;      Serial.println(acc_rms);            //flash red if a violent shake event is detected            if(acc_rms==1)      {         for(int n = 0; n < NUM_LEDS; n++)          {             leds[n] = CRGB::Red;             FastLED.show();             delay(8);             leds[n] = CRGB::Black;        }      }            // Move a single white led as per rotation      for(int n = 0; n < NUM_LEDS; n++)       {         if(a==n)         {            leds[n] = CRGB::White;            FastLED.show();            delay(8);          }         else          {             leds[n] = CRGB::Black;          }      }        }  }

Demo Owner: Dominic Selvaraj Firstview Consultants' Dominic Selvaraj demonstrates a custom dashboard application for an 18-wheel truck using i.MX 6 processor at the FTF Americas 2014.     https://community.nxp.com/players.brightcove.net/4089003392001/default_default/index.html?videoId=4282651084001" style="color: #05afc3; background-color: #ffffff; font-size: 14.4px;" target="_blank  Features Showcasing a secondary dashboard application for 18 wheeler trucks The dashboard features a touchscreen interface and runs Android operating system It has 4 cameras in a model truck (360 view around the vehicle) The gauges have been transformed into virtual gauges driven by vector graphics Co-pilot navigation and multimedia radio on vehicle   Featured NXP Products ARM® Cortex®-A9 Cores: i.MX 6 Series Multicore Processors Links NXP Connect - Firstview  

Introduction LS1046A has four 32-bit/64-bit Arm® Cortex®-v8 A72 CPUs arranged as a single cluster of four cores. LS1046A shares a single 2 MB L2 with and maximum operation of 1.2 GHz, three PCI Express 3.0 controllers in a 23 mm x 23 mm package. Overview The following demo is part of a bundle of examples that shortly will be available in the LSDK. As can be seen in the video, there is a menu for the user to select the desired demo and start testing the different approaches the FRWY LS1046A TPU is capable of executing. This example intends to show the CPU performance according to CoreMark or Dhrystone metrics. This results in CoreMarks/mW or DMIPS performance running on the LS1046A. The user is able to select the number of cores to use for the test and then the results come out as Performance (Iterations/second) and Watts. This is intended to show the customers the LS1046A capabilities of pure CPU performance despite the oriented application. With a cost lower than 10 dollars per unit, the LS1046A returns 32,000 CoreMarks while consuming an average of 10 W working at 1.2 GHz. Block Diagram Video Products NXP Product Link FRWY LS1046A TP LS1046A Freeway Board | NXP 

Oracle's James Allen demonstrates a variety of NXP hardware running Java technology, a NXP-based IoT Gateway involved in capturing, analyzing and transmitting healthcare data, and a NXP-based IoT Gateway involved in capturing, filter, analyzing and integrating M2M data to enterprise systems, including business processes.   Featured NXP Products K70 Kinetis i.MX6

  Overview Archived content is no longer updated and is made available for historical reference only. The QorIQ ®  P1020EWLAN access point/router is a complete production-ready, bill of materials optimized solution that can support single- or dual-radio 802.11 a/b/g/n/ac devices through MiniPCI or Mini PCI Express ®  interfaces. IEEE ®  802.11N WLAN radios capable of supporting wireless data rates up to 300 Mbps per and the P1020 communication processor is ideal to maximize performance while meeting power and cost budgets Can be powered over a single Ethernet cable in 3 x 3 MIMO mode using a single 802.3af Power over Ethernet (PoE) link Provides complete data and control path processing needs for multiple radio solutions and excellent throughput with best-in-class performance/watt   Features P1020 in 45nm SOI operating at 533-800MHz dual core e500 processor with 256KB L2 cache with ECC 256MB to 512MB DDR3 SDRAM 4 FXS ports 1 FXO port 1 GbE RGMII port 1 GbE SGMII port 1 GbE port connected to RGMII 5-port switch 2 mini-USB 2.0 ports 1 mini-PCI Express connector 1 PCI Express VortiQa ®  software with Stateful Packet Inspection Firewall and NAT - performance optimized IPsec Virtual Private Network (VPN) with Quality of Service (QoS) and Traffic Management (TM) D2 Technologies optimized voice G.711-Alaw G.711-MuLaw G.729AB G.726 Voice Compression G.168 Echo Cancellation Advanced telephony Full Distributed Unicast Conferencing Call forwarding Call Waiting/ Caller ID. IDE and Build Tools CodeWarrior Development Suites for Networked Applications v11.4.0 Design Resources

Overview This reference design of a 3-phase Permanent Magnet Synchronous Motor (PMSM) sensorless vector control drive and a Brushless DC (BLDC) Motor drive without position encoder coupled to the motor shaft uses the NXP® 56F8013 with Processor Expert® software support. PMSM/BLDC motor are excellent choices for many appliances and industrial applications that require low cost and high-performance variable speed operation This design will employ sensorless FOC to control a PMSM and a sensorless algorithm to control BLDC The hardware design supports both motor types with the algorithms fully implemented digitally via software running on the 56F8013 DSC Features General: For PMSM the motor control algorithm employs Field-Oriented Control (FOC). The power stage switches are controlled by means of Space Vector Pulse Width Modulation (SVPWM) The feedback hardware elements are limited to the motor stator phase currents and the bus voltage. No position information devices or stator flux measurement are used; sensorless speed methods are employed The Motor is capable of forward and reverse rotation and has a speed range of 500rpm to 6000rpm The user controls motion profiles, rotation direction, and speed. The RS-232 communication supports further R&D by enabling the easy tuning of control parameters The motor drive system is designed to create minimal acoustic noise Active power factor correction which reduces the negative effects of the load on the power grid in conducted noise and imaginary power Design is low cost General Benefits: Improved End System Performance Energy savings Quieter operation Improved EMI performance System Cost savings Enhanced Reliability Performance: Input voltage: 85 ~265VAC Input frequency: 45 ~65HZ Rating bus voltage: 350V Rating output power: 500W Switch frequency of PFC switch: 100KHZ Switch frequency of inverter: 10KHZ Power factor: >95% Efficiency: >90% Communications: RS232 port for communication with optoisolation Visual Interface: Multi-segment LED indicators Block Diagram Board Design Resources

Overview This reference design demonstrates the design of a 3-phase AC induction motor drive with volt per hertz control and supports the NXP® 56F80X and 56F83XX Digital Signal Controllers (DSCs) dedicated for motor control applications. Designed as a low-cost high volume motor drive system for medium power three-phase AC induction motors and is targeted for applications in both industrial and appliance fields The drive runs in a speed closed loop using a speed sensor According to the state of the control signals (Start/Stop switch, speed up/down buttons or PCMaster set speed) the speed command is calculated using an acceleration/deceleration ramp Features Speed Control of 3-phase AC Induction motor with quadrature volt per hertz control Targeted for 56F80X, 56F83XX, and 56F81XX Digital Signal Controllers Running on a High Voltage Medium Power Board for Three Phase Motors Volt-per-Hertz control with a speed closed loop Option to run the motor in open loop Quadrature encoder for motor speed reference Manual interface PC master software control interface and monitor Fault protection Block Diagram Board Design Resources

Introduction The LS1046A MPU capabilities to manage data are one of the cornerstones in its design, this makes it a perfect choice when the end-application is related to data network management. The Frame Management features enable the possibility to process big data files that later on can be distributed by the network. The LS1046A also offers up-to 3 PCIe 3.0 Lanes to connect-state-of-the-art wireless cards and one SATA 3.0 interface that can be used for high-speed storage purposes. Overview This demonstration belongs to a demo bundle of the FRWY LS1046A, it intends to showcase the performance of the board in different use cases regarding edge computing. This demo provides the user an example of the LS1046A behavior when is used as a video streamer box over the QCA M.2 Wi.Fi. card. The user can access to the video vault by using a LAN infrastructure and reproduce any video in a tablet, smartphone or smart tv. Video streaming applications, centralize the highest workload in specific single or distributed systems, leaving the end-device a low demand workload. Having single-purpose systems allows an easier upgradable storage capacity, which translates to lower costs in these devices. Block Diagram Products NXP Product Link FRWY LS1046A TP LS1046A Freeway Board | NXP

Demo   Resonant Power Supply Video from IEEE.TV   The TEA19161T is a resonant / LLC half bridge converter and the TEA19162T is a PFC converter. Combining these two IC’s together with the SR controller TEA1995T at the secondary side results in a high efficient converter over the whole output power range. These demos show 2 examples of a resonant power supply; one with an output power of 240 W (12V / 20A), and another with an output power of 90 W (19.5V / 4.6A). Both showing a very low component count and small design. The resonant supplies operate in normal mode for high and medium power levels, in low power mode at medium and low power levels and in burst mode at (very) low power levels. Low power mode and burst mode operation provides a reduction of power losses, resulting in a higher efficiency at lower output power levels. Power levels for switching over from one mode to another mode can be selected by the end customer by adjusting component values. The efficiency at high power is well above 90%. No load power consumption is well below 75 mW. At 250mW output power the input power is only 360mW, which is well below the 500 mW required to be compliant with EUP lot6 power saving specification, soon becoming mandatory for consumer electronics sold in Europe.   Features: Full digital output voltage regulation and burst mode control Easy and low-cost application with cycle-by-cycle capacitive voltage control Very high efficiency over wide load range Special low power mode enabling high efficiency at 0–30% load Extremely low no-load stand-by power (< 75 mW), saves auxiliary supply cost ___________________________________________________________________________________________________________________________   Featured NXP Products:   Resonant power supply control IC|NXP GreenChip Synchronous Rectifier controller|NXP ______________________________________________________________________________________________________________________   Desktop PC Supply. 12v, 20A (240W)                                                   Ultra Slim 90W Adaptor. 19.5V / 4.6A (90W)              C17

Demo Owner: Nicholas Sargologos Demonstration of the IoTgateway reference design based on QorIQ Processor LS1021A multicore - utilizing the Freedom board, the Node Red network configuration tool and IBM Cloud Services   Features Multi-protocol support for IoT devices and high speed WAN / LAN for cloud connectivity The demo supports two data flows using Open source MQTT messaging protocol. There are two nodes powered by Kinetis micro-controllers and IoT Gateway. Node 1 is equipped with a sensor cluster serves as a publisher Node 2 is connected to as small fan and serves as a subscriber MQTT flows are carried from the nodes and the Iot gateway via Wi-Fi Java based environment is used to establish connectivity between nodes   Featured NXP Products LS1021A Links Product Link LS1021A-IoT Gateway Reference Design LS1021A-IoT Gateway Reference Design | NXP  Freedom Development Platform for Kinetis® KL14, KL15, KL24, KL25 MCUs FRDM-KL25Z|Freedom Development Platform|Kinetis® MCU | NXP  Block Diagram   News Buzz IoT designs need to start in the right direction - Embedded Computing Design

In BLE spec there is no standard wireless pass through profile, so different chip vendors have their own implementations, which is also called Proprietary Profile, the compatibility is a big challenge. There are two wireless pass through demos in NXP BLE demos. For QN90XX chip, it’s called QPP. For KW3X, it’s called wireless UART. The wireless UART is more complex. It doesn’t support always-connection and have many limitations for the app. The common BLE debug tool app on phone side cannot communicate with it, while the QPP can work well.  This demo code is target to port the QPP profile to KW3X SDK, which can simplify user’s development.

Demo Demo Summary User case: Quality of Service Feature Demo. Two PCs and one router. One PC serves as the WAN side (Server), the other PC acts as the LAN (Client). There is streaming video from the WAN Side to the LAN side. Traffic can be analyzed and compared Other router possible use cases: WAN Failover,  Load Balancing, Firewall, etc. Products QorIQ® Layerscape 1024A|NXP  QorIQ Layerscape Processors Based on ARM Technology|NXP  Links Small Business Router|NXP  QorIQ® Layerscape 1024A|NXP 

NXQ1TXH5 One-Chip Qi Low Power Wireless Charging Transmitter     Demo Owner: Rick Dumont   The NXQ1TXH5 is a one-chip low power Qi transmitter, and it enables an ultra-low cost wireless charging transmitter dramatically reducing application cost while still providing latest WPC version 1.2 Qi compliant performance. The NXQ1TXH5 demo is provided in a small form-factor on which Qi enabled phones can be charged. The demonstration shows the extremely low component count, which is interesting for professionals to understand, and at the same time showing a real-life eye-catching form-factor that draws non-technically skilled person attention. The demonstration challenges people to actually charge their phone and experience charging without wires.   Features: Ultra low component count solution. Reducing application cost by 30-50% compared to other solutions Easy to layout on 2-sided PCB Excellent EMI behaviour without additional external filtering Ultra low standby power of 10 mW meeting 5-start smartphone charger standby rating High efficiency of 75% Excellent thermal behaviour due to NXPs proprietary low RDSon power silicon technology _________________________________________________________________________________________________________________________________________   Featured NXP Products: Product Link NXQ1TXH5: One-chip 5 V Qi wireless transmitter https://www.nxp.com/products/power-management/wireless-power/one-chip-5-v-qi-wireless-transmitter:NXQ1TXH5?&lang_cd=en NXQ1TXL5: Low-cost one-chip 5 V Qi wireless transmitter NXQ1TXL5: Low-cost one-chip 5 V Qi wireless transmitter | NXP  NXQ1TXH5 WPC 1.2 Qi-compliant wireless charger demo board NXQ1TXH5 WPC 1.2 Qi-compliant wireless charger demo board | NXP    _________________________________________________________________________________________________________________________________________    

Watch this demonstration that shows designing made easy with NXP's MMPF0100 and MMPF0200. These devices are optimized for i.MX 6 applications processors. Power-sensitive applications include portable medical devices, gateways, routers, home security systems, e-readers, tablets, and home energy management solutions.   Features MMPF0100 and MMPF0200 (PMIC) evaluation kit PMICs are optimized for i.MX 6 applications processors Light-Load Efficiency Exceptional Quiescent current Large amount of One-Time Programmable memory on board Flexibility: Programming kit connects the device via USB port and user can set up the start-up frequency, voltage levels, current limit and the timing of each regulator on the device Featured NXP Products MMPF0100 MMPF0200https://community.nxp.com/external-link.jspa?url=http%3A%2F%2Fwww.nxp.com%2Fproducts%2Fpower-management%2Fpmics%2Fpmics-for-i.mx-processors%2F12-channel-configurable-power-management-ic%3AMMPF0200 Block Diagrams

Overview To improve performance in industrial drives, Field Oriented Control (FOC) is an advanced technique used for Permanent Magnetic Synchronous and other motor types. This reference design jump-starts your ability to leverage the NXP® DSCs' advanced feature sets via complete software, tools and hardware platform. Features Bi-directional rotation Application speed ranges from 0 to 100 percent of nominal speed (no field weakening) Four state machine Fault protection for driver DC-bus overcurrent, SW overcurrent, overvoltage and over speed Current control loop execution time: 17 us @ 100 MHz MCU speed PMSM vector control using the quadrature encoder Block Diagram Design Resources

Demo Owner: Kwok Wu Introducing the high-performance SSL acceleration and public key offload achieved with the C29x crypto coprocessor and industry-leading performance per watt QorIQ Processing Platforms T4240 SoC.     Features SSL Acceleration with Public Key Offload C29x crypto coprocessor runs on the industry-leading QorIQ Processing Platforms T4240 SoC or any x86 device Enables efficient scaling with growth in secure networking traffic Breakthrough performance per Dollar   Featured NXP Products C29x: Crypto Coprocessor Block Diagram  

The DDR validation tool helps pinpoint the best DDR settings providing the best possible reliability. Without this tool, engineers are likely to spend months trying to figure out the settings, if they try at all.     Features The DDR validation tool helps pinpoint the best DDR settings providing the best possible reliability. Without this tool, engineers are likely to spend months trying to figure out the settings, if they try at all Featured NXP Products PE_QORIQ_OPTI_SUITE: Processor Expert QorIQ Optimization Suite DDRv Validation Tool Scenarios Tool DPAA Packet Tool - Processor Expert QorIQ Packet Tools Links P4080: QorIQ P4080/P4040/P4081 Communications Processors with Data Path