Overview This reference design is based on 32-bit DSC MC56F84789, to demo a simple servo motor control solution. This reference design jump-starts your ability to leverage the NXP® DSCs' advanced feature sets via complete software, tools and hardware platform. Can be expended to dual servo motors control on single chip. Speed regulation: < 0.05% (from 0% to 100% load under nominal speed) with encoder and 32-bit speed control algorithm. Speed ratio: 1 : 2000 with position and speed closed loop control – intelligent PID, the minimal operational speed is up to 0.5RPM. Only low cost Quadrature Encoder (1000 lines) is required, HALL sensors removed. System dynamic response: 90Hz for speed closed loop, and 30Hz for position closed loop – PID regulator. Speed acceleration/deceleration: from 1 to 10,000ms (configurable). Brake function: regenerative braking, stop in one revolution. Bidirectional operation: forward and reverse with speed and torque limitation. Faults protection such as abnormal speed, over-/under-voltage, over-current etc. FreeMASTER software control interface and monitor. Features MC56F84789 Simple Servo Motor Control MAPS-56F84000 EVK Board MAPS-MC-LV3PH Motor Control Power Stage Block Diagram Board Design Resources

Overview The Camera reference design is developed using the Kinetis KL28Z through the standalone peripheral module FlexIO. The Kinetis KL28Z board is powered by an Arm® Cortex®-M0, providing up to 96 MHz CPU performance besides supporting ultra-low power. Kinetis KL28Z's FlexIO module is used to emulate camera interface and capture the image data. A TFT LCD module with SPI interface is used to display the real-time images. DMA is used to copy the image data from FlexIO to SRAM. DAM or polling method is used to copy the image data from SRAM to SPI TX FIFO, having up to 15fps sample rate. Features Features the Kinetis KL2828Z512 Board, enabling the interaction between a camera module by FlexIO, a highly configurable module capable of emulating a wide range of different communication protocols. The important feature of this peripheral is that it enables the user to build their own peripheral directly in the MCU. Combined and powered by NXP technology, these key elements make possible to capture video from the Camera and display it live in the LCD Panel. Developed using Kinetis Software Development Kit (SDK), comprehensive software support for Kinetis MCUs and drivers for each MCU peripheral, middleware, real-time OS and example applications designed to simplify and accelerate application development on Kinetis MCUs. Block Diagram Board Design Resources

Overview The FlexRay Brake-By-Wire reference design shows FlexRay capabilities such as high communication speed and channel fault detection. It uses the NXP® MC9S12XDP512 MCU for the pedal node and MC56F8346 DSC for the brake/wheel node; FlexRay connectivity of both nodes is based on the MFR4200 FlexRay communication controller The braking caliper is controlled by PMSM using Vector Control technique while the spinning wheel representing a real tire is powered by a BLDC motor The boards of the 2 engines are interconnected by a CAN bus Uses FlexRay baud rate of 10Mb/s per channel but both channels carry the same data, which enables demonstration of the FlexRay channel fault detection feature Features PMSM using Vector Control technique FlexRay communication speed 10Mb/s per channel Dual channel connection Channel fault detection Re-connection feature FreeMASTER tool based control pages Block Diagram Board Design Resources

Overview The NXP® home health hub (HHH) reference platform is designed to speed and ease development for telehealth applications using seamless connectivity and data aggregation for remote access and improved healthcare management. Multiple connectivity options to obtain data from commercially available wired and wireless healthcare devices such as blood pressure monitors, pulse oximeters, weight scales, blood glucose monitors, etc. Provides connectivity to take action with collected data by sharing it through a remote device with a display such as a tablet, PC or smartphone or through the Cloud Delivers a real-time connection to caregivers for comfort and safety to the person being monitored Features Automatic reporting of vital sign measurements Cloud connectivity and secure integration into medical vaults Pervasive mobile device access Daily activity alarms, security alarms and passive monitoring of safety sensors for early detection of injury or security risks Anytime consultation with monitoring center, medical staff, family and friends Anytime and intuitive access to trusted health resources Compelling user interface for a remote display Block Diagram Board Videos Design Resources

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 The NXP® Healthcare Analog Front End reference platform is a complete set of portable medical solutions that enable designers with rapid development tools. Provides ready-to-develop hardware and software that facilitates the design of medical assets such as vital signs monitors, glucose meters and digital stethoscopes, among other portable and healthcare professional devices Based on the Kinetis® K53 high-performance, low-cost, low-power MCU Embeds a complete analog measurement engine including Opamps, TRIAMPS, ADCs, DACs and analog comparators among other modules, reducing costs and PCB sizes Features Developed using the Kinetis ®  K53 MCU, featuring an Arm ®  Cortex ® -M4 core Kinetis K53 MCU also provides low-power operation, DSP capabilities, USB and graphic interface support and a complete analog measurement engine Includes six healthcare-specific analog front ends with reusable software and hardware NXP ®  provides a full set of software tools (CodeWarrior ® , USBSTACK, MQX™ RTOS) NXP product longevity program offers up to 15-year availability for selected products Block Diagram Board Video Design Resources

Overview The NXP® Home Energy Manager (HEM) reference platform features an i.MX283 application processor, MC13224V ZigBee® module, 9S08QE32 MCU and MC34726 DC/DC buck. The reference platform is aimed at jumpstarting customer developments around the HAN (Home Area Network). Comprises a control board based on the low-power, yet powerful i.MX283 running connectivity interfaces to the: Smart meter Home automation system Broadband IP network User interface Micro-grid generation unit In order to accommodate a fast-paced changing connectivity landscape, the control board features extension connectors ready for: Powerline modems GPRS/3G data modem U-SNAP connectivity peripherals Mass storage cards Features Low-power Based on the latest low-power NXP ®  Arm9™ i.MX283  processor including integrated power management and supporting advanced voltage and frequency scaling techniques for optimized power consumption Running Our low-power ZigBee radio 1.5W max at full operating speed Low-cost Unique integration on the i.MX283 eliminates external components, enables 4-layer PCB Complete solution available Source code Hardware schematics Gerbers Bill of materials Complimentary software available through 3rd party partners Linux based frameworks Windows Embedded Compact 7 based framework Java-based framework Remote In-Home Display software Block Diagram Design Resources

Overview This NXP® reference design is a speed closed-loop BLDC drive using a sensorless technique that serves as an example of a BLDC motor control design using an NXP K60 MCU. Simple and easy to understand control approach to BLDC, using MQX in a time-critical application. Contains two versions of the application software, one with the MQX RTOS, and the other bare-metal The MQX version contains a web server to demonstrate the benefits of an MQX-based solution Both use the same source code for motor control Features BLDC motor control using the BEMF integration method for position determination Targeted for the TWR-K60N512 controller board Speed closed-loop with speed measurement Adjustable speed ramp Motor mode in both directions of rotation Minimum speed of 400 rpm Maximum speed of 4000 rpm Tested up to 30 rpm with a one-pole pair motor Overvoltage, Undervoltage and overcurrent fault protection FreeMASTER control interface Control via a web server Block Diagram Board Design Resources

Overview This NXP® reference design describes a High Intensity Discharge (HID) lamp leveling system with a LIN-bus interface. Stepper motor controller operating as a LIN-bus slave (LIN Stepper Controller). All functionality is provided by a general purpose LIN-bus IC MM908E625 and LIN Stepper software (HC08 software). The LIN Master consists of a master control board, based on an MC9S12DP256 CPU, and a personal computer with a graphical user interface (GUI), running in a master software environment. The LIN-bus Stepper Controller can be used for any kind of stepper motor control using the LIN-bus serial communication protocol. Features LIN bus Interface rev 1.2 Bus speed 19.2 kbps Slave IC without external crystal or resonator Slave node clock synchronization ±15% Each LIN slave controls one bi-phase bipolar stepper motor Motor phase current limitation up to 700 mA Supply voltage 12 V d.c. Stepper motor control with stepping acceleration and deceleration ramp Stepping frequency up to 2,500 Hz Slave parameter configuration via LIN-bus Slave LIN signal reconfiguration via LIN-bus Code written in C-language Block Diagram Board Design Resources

Overview This reference design shows the simplicity of a soft modem design, how few resources of the processor it takes, and how well it performs on USA average lines. This design omits the standard telecommunications Codec, instead of using PWM for output and ADC for input. Since both peripherals are readily available on one 56F8300/100 series device, along with more processing power than required from the single core, the design is a true one-chip, one-core system that includes telecommunications ability with room for even more system functionality. Ideal for advanced motion control, home appliances, medical monitoring, fire and security systems, power management, smart relays, and POS terminals. Features Hybrid architecture facilitates implementation of V.21 and V.22bis modem, control, and signal processing functions in one chip Consumes only 7.5 MIPS for the modem function - Only 15K words of Flash for the complete modem application and test harness High-performance, secured Flash memory eliminates the need for external storage devices Extended temperature range allows for operation of non-volatile memory in harsh environments Flash memory emulation of EEPROM eliminates the need for external non-volatile memory 32-bit performance with 16-bit code density On-chip voltage regulator and power management reduces overall system cost Off-chip memory expansion capabilities allow for glueless interfacing with the additional memory of external devices, without sacrificing performance Boots directly from Flash, providing additional application flexibility High-performance PWM with programmable fault capability simplifies design and promotes compliance with safety regulations PWM and ADC modules are tightly coupled to reduce processing overhead; only one of each is used by the modem General purpose input/output (GPIO) pins support application-specific needs Simple in-application Flash memory programming via Enhanced OnCE or serial communication Block Diagram Board Design Resources

Overview This reference design is a 3-phase brushless DC (BLDC) motor sensorless drive for fans, pumps and compressors based on the low-cost NXP® 56F801x digital signal controllers (DSCs). The concept is a closed-loop speed-controlled BLDC drive with no need for position or speed sensors AIt serves as a reference design for a BLDC motor sensorless control system, ideal for fan, pump and compressor applications Power stages used by the application are designed for 12V DC line voltage and 3Aor 8A output current The reference manual provides a detailed description of the application, including design of the hardware and the software Features 3-phase brushless DC motor sensorless drive Designed to fit into fan, pump and compressor applications Uses 56F8013 32 MIPS Digital Signal Controller Available for two power stages and two motors Input power supply voltage +12 VDC for power stages Control techniques incorporate: Sensorless, trapezoidal control of 3-phase BLDC motor with back-EMF sensing ADC zero crossing sensing for sensorless control Closed-loop speed control using PI controller Adjustable DC-bus current limitation PI controller Motoring mode Both directions of rotation Speed range: 200-2000 and 800-8000 RPM (depending on the motor used) Manual interface (RUN/STOP switch, UP/DOWN pushbuttons) FreeMaster interface for monitoring, controlling and tuning Fault protection (DC-bus over-current, DC-bus under-voltage, DC-bus over-voltage) Automatic calibration of phase back-EMF measurements 20 kHz PWM switching frequency Easy to tune for different power stages and motors. Block Diagram Board Design Resources

Overview This reference design demonstrates a vector control technique of a 3-phase AC induction motor with a position encoder coupled to the motor shaft. The algorithm runs on Our 56F80X or 56F83XX Digital Signal Controller as the dedicated motor control device It can be adapted to NXP® 56F81XX Digital Signal Controllers The speed closed loop ACIM drive is implemented The system is targeted for applications in both industrial and appliance fields (e.g. washing machines, dishwashers, industrial drives, machine tools, variable speed drives, elevators etc.) Features Vector control technique used for ACIM control Targeted for 56F80X, 56F83XX, and 56F81XX Digital Signal Controllers Running on a 3-phase AC induction motor control development platform at variable line voltage 115/230V AC Encoder used for a speed calculation Control technique incorporates: Speed control loop with inner q axis stator current loop Rotor flux control loop with inner d axis stator current loop Field-weakening technique Stator phase currents measurement method DC-Bus ripple elimination Motor and generator mode DC-Bus brake Overvoltage, undervoltage, overcurrent and overheating fault protection FreeMASTER software control interface and monitor Block Diagram Board Design Resources

Overview This reference design demonstrates speed control of the 3-Phase Switched Reluctance (SR) motor with Hall position sensor using the NXP® 56F80x or 56F83XX Digital Signal Controllers (DSCs). It helps start development of the SR drive dedicated to the targeted application The DSC runs main control algorithm; when the start command is accepted, the state of the Hall sensors position signals is sensed and the individual motor phases are powered in order to start the motor in the requested direction of rotation without rotor alignment According to the determined switching pattern and the calculated duty cycle, the on-chip PWM module generates the PWM signals for the SR motor power stage Features Speed Control of an SR motor with position Hall sensors Targeted 56F80X, 56F83XX, and 56F81XX Digital Signal Controllers Running on a 3-Phase SR HV Motor Control Development Platform (115/230VAC) Running on a 3-phase SR LV Motor Control Development Platform (12V DC) The control technique: voltage control with a speed closed loop Hall sensors position reference for commutation Start from any motor position without rotor alignment Manual interface FreeMASTER software control interface and monitor Fault protection Block Diagram Board Design Resources

Overview The Electro-Mechanical Brake reference design exhibits the suitability and advantages of the NXP® 56F8300 family of DSCs for intensive automotive control applications (hybrid braking like systems) featuring a 3-phase Permanent Magnet Synchronous Motor (PMSM) with an encoder and Hall-effect position sensors. This application uses a vector control approach of the 3-phase PMSM with a dedicated low-voltage (automotive 12V) board comprising MC56F8323 controller, MC33989 system basis chip, MC33982 intelligent single switch, and MC33896 3-phase FET pre-driver The Electro-Mechanical Brake Reference Design is controlled via FreeMASTER control page using RS232/CAN communication Features Application Features Initial position detection Vector current control with position feedback: Hall effect sensor Encoder FlexCAN inter-board communication Overvoltage, undervoltage and overcurrent fault protection PC master control page Target Devices/Platforms Permanent Magnet Synchronous Motor NXP ®  MC56F8323 hybrid controller NXP MC33892 intelligent high current single switch NXP MC33989 system basis chip with high speed CAN NXP MC33896 3-phase FET driver for 12/42V systems Motor Control Application Block Diagram Board Design Resources

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

Overview This reference design describes the design of a 3-phase sensorless brushless DC (BLDC) motor control with back-EMF (electromotive force) zero-crossing sensing using an AD converter for the NXP® 56F80X and 56F83XX Digital Signal Controller (DSCs) dedicated for motor control applications. It can also be adapted to Our 56F81XX Digital Signal Controllers The system is designed as a motor drive for three-phase BLDC motors and is targeted for applications in both industrial and appliance fields (e.g. compressors, air conditioning units, pumps or simple industrial drives) The reference design incorporates both hardware and software parts of the system including hardware schematic Features BLDC sensorless motor 115 or 230V AC Supply Targeted for 56F80x, 56F83XX, and 56F81XX Digital Signal Controllers Running on 3-phase BLDC Motor EVM at 12V, 3-Phase BLDC Low-Voltage Power Stage Speed control loop Motor mode in both direction of rotation Manual interface (RUN/STOP switch, UP/DOWN push buttons control, LED indication) Overvoltage, undervoltage, overcurrent and overheating fault protection PC remote control interface (speed set-up) FreeMASTER software remote monitor Block Diagram Design Resources

Overview Small high-speed BLDC motors have a very low inductance, which is different from conventional BLDC motors. When PWM control is applied to the phases of a small high-speed BLDC motor, the current follows the rectangular PWM voltage shape. This change of current magnetizes and demagnetizes the motor iron at a frequency equal to the PWM frequency, which can cause the motor to become hot enough to be damaged. To prevent this, special techniques are required to control this type of motor. The method used in this reference design consists of a DC/DC inverter that generates the desired voltage for the motor. The motor then uses a conventional 3-phase inverter for commutation. Features Voltage control of a BLDC motor using Hall sensors Targeted at the MC56F8013 Controller Board Running on "3-Phase Power Stage with DC/DC Inverter Lite" Control technique incorporating: BLDC motor closed-loop voltage control using a DC/DC inverter BLDC motor closed-loop speed control Both directions of rotation (however, because an impeller fan is used in the application, the FreeMASTER page is locked to one direction only) Both motor mode and generator mode Starting from any motor position without rotor alignment Minimum speed - 300 RPM Maximum speed - 38000 RPM FreeMASTER software control interface (motor start/stop, speed setup) FreeMASTER software monitor FreeMASTER software graphical control page (required speed, actual motor speed, start/stop status, DC bus voltage level, motor current, system status) FreeMASTER software speed scope (observes actual and desired speeds) FreeMASTER software Hall sensors scope (observes actual state of the Hall sensors) DC bus over- and under-voltage, over-current, and Hall sensor cable error fault protection Block Diagram Board Design Resources

Overview This reference design enables development of a vector control algorithm for a three-phase AC induction motor implemented on NXP® digital signal controllers MC56F8013/MC56F8023. Targeted mainly at consumer and industrial applications Cost-effective and highly reliable, the algorithm implements a single shunt current sensing, eliminating the need for more than one sensor High range of motor operating speeds up to 18000RPM An adaptive closed loop rotor flux estimator enhances control performance and increases the overall robustness of the system A reference manual provides a detailed description of the application, including a design of hardware and software Features 3-phase AC induction motor drive Designed to fit into consumer and industrial applications Uses 56F8013 or 56F8023 32 MIPS Digital Signal Controller Running on a 3-phase High Voltage Power Stage Control technique incorporating: Vector control of three-phase AC induction motor with position encoder Closed-loop speed control Both directions of rotation Both motor and generator modes Reconstruction of three-phase motor currents from DC-Bus shunt resistor Closed loop current control Flux and torque independent control Adaptive rotor flux space-vector estimator Field-weakening for high speeds High-speed range, max speed – 18000 RPM (2-pole motor) FreeMASTER software control interface (motor start/stop, speed setup) FreeMASTER software monitor FreeMASTER software graphical control page (required speed, actual motor speed, start/stop status, DC-Bus voltage level, motor current, system status) FreeMASTER software speed scope (observes actual and desired speeds, DC-Bus voltage and motor current) FreeMASTER software high-speed recorder (reconstructed motor currents, vector control algorithm quantities) DC-Bus overvoltage and undervoltage, overcurrent protection Block Diagram Board Design Resources

Overview The 56F8300 (56800E core) family of Digital Signal Controllers (DSCs) is well suited for UPS design, combining the DSP's calculation capability with MCU controller features on a single chip. Offers many dedicated peripherals, including Pulse Width Modulation (PWM) units, Analog-to-Digital Converters (ADC), timers, communication peripherals (SCI, SPI, CAN), on-board Flash and RAM Online Uninterruptible Power Supplies (OUPS) provides continuous power to the load during power outage or glitches caused by power source switching Ideal for computers, office equipment, communication systems and medical life support Features Single-device solution: Combines MCU functionality and DSP processing power TCP/IP network communication for remote control and monitoring Bidirectional AC/DC conversion High input power factor with Direct PFC and lower power pollution to the power grid Battery management to extend battery life and lower maintenance costs Power source and load conditioning can be monitored in real time TCP/IP network communication for remote control and monitoring Bypass operation during overload or service maintenance Expedites time-to-market using out-of-the-box software components 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