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

Overview The 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 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   The RDS12VR is a solution engineered for window lift, power windows, and sun roof systems. Developed in partnership with Tongji University and based on the 16-bit S12 MagniV® S12VR mixed-signal microcontrollers, the RDS12VR offers control by multiple LIN salve nodes or LIN master node, through the easy-to-control Graphics User Interface (GUI). The RDS12VR reduces unnecessary external components, lowers the total bill of material (BoM), improves system quality, and saves space in automotive applications through a smaller PCB. The RDS12VR solution includes hardware for real door/window in-vehicle applications, as well as software including anti-pinch algorithms and low-level S12VR drivers for reducing time to market. Block Diagram   Products Product Features S12VR  16-bit S12 MagniV® S12VR mixed-signal microcontrollers, efficient and scalable relay driven DC motor control solution   Features 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 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 Power   Fault diagnosis, indicating low voltage, over voltage/current/temperature etc. Low power mode (leveraging S12VR low power mode) to reduce power consumption GUI Easy-to-control 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 Functional Safety Able to comply with relevant content in US Federal Motor Vehicle Safety FMVSS No. 118 standard Document DRM160, Window Lift and Relay Based DC Motor Control Reference Design Using the S12VR Microcontrollers     

Overview The S12ZVH-REF-V1 is a reference design engineered for being a design base for starting an instrument cluster project, also it helps to reducing Automotive Cluster development time and maximizing engineering resources. Based on the 16-bit S12 MagniV® S12ZVH mixed-signal microcontrollers, the S12ZVH-REF-V1 provides a production-looking design with impressive integration. The S12ZVH-REF-V1 reference design is not only provided as a hardware reference but also as a software and mechanical design. Block Diagram   Products Product Features S12ZVH MagniV Mixed-signal MCU  16-bit S12 MagniV® S12ZVH mixed-signal microcontrollers for instrument cluster.   Features Interfaces   LIN physical transceiver and connector CAN connector interfaced with MCUs CAN physical transceiver Components 1 x custom 160 segment LCD 1 x low-power piezoelectric speaker 4 x stepper motors 49 x LEDs used as telltales and backlights 6 x user buttons 2 x potentiometers S12ZVH The S12ZVH-REF-V1 does not include on-board programming/debugging circuitry; it requires an external programmer compatible with the BDM protocol. Files S12ZVH-REF-V1 Mechanical and Assembly files  S12ZVH-REF-V1 Reference Design Software (CW10.5) 

  Overview   The Freescale Airbag Reference Platform (ARP) is an application demonstrator system which provides an airbag Electronic Control Unit (ECU) implementation example using complete Freescale standard products for the growing automotive safety segment. The GUI firmware does not constitute a true airbag application but is intended to demonstrate features and capabilities of Freescale's standard products aimed at the airbag market.     Features   Device Description Features MPC560xP|32-bit MCU|Chassis-Safety | NXP  Qorivva 32-bit Microcontroller Scalable MCU family for safety applications e200z0 Power Architecture 32-bit core up to 64 MHz Scalable memory, up to 512 KB flash MC33789 | Airbag Power Supply and PSI5 Sensor Interface | NXP  Airbag System Basis Chip (PSI5) Power supply for complete ECU Up to four Satellite Sensor interfaces (PSI5) Up to nine configurable switch input monitors for simple switch, resistive and Hall-effect sensor interface Safing block and watchdog LIN 2.1 physical layer interface MMA68xx ECU Local X/Y Accelerometer ±20 g to ±120 g full-scale range, independently specified for each axis SPI-compatible serial interface 10-bit digital signed or unsigned SPI data output Independent programmable arming functions for each axis 12 low-pass filter options, ranging from 50 Hz to 1000 Hz MC33797 | Four Channel Squib Driver IC | NXP  Four Channel Squib Driver Four channel high-side and low-side 2.0 A FET switches Externally adjustable FET current limiting Adjustable current limit range: 0.8 to 2.0 A Diagnostics for high-side safing sensor status Resistance and voltage diagnostics for squibs 8-bit SPI for diagnostics and FET switch activation MC33901 High Speed CAN Physical Layer ISO11898-2 and -5 compatible Standby mode with remote CAN wake-up on some versions Very low current consumption in standby mode, typ. 8 μA Excellent EMC performance supports CAN FD up to 2 Mbps MMA52xx MMA51xx High G Collision Satellite Sensor ±60 g to ±480 g full-scale range PSI5 Version 1.3 Compatible (PSI5-P10P-500/3L) Selectable 400 Hz, 3 pole, or 4 pole low-pass Filter X-axis (MMA52xx) and Z-axis (MMA51xx) available

Overview The 3-phase PMSM Vector Control using Quadrature Encoder on based on Kinetis® K40 MCUs reference design demonstrates the ability of the Kinetis K40 Arm® Cortex®-M4 MCU to drive the advanced motor control application. Targeted at the NXP® Tower® rapid prototyping system as a hardware development platform. Together with available embedded source code, you can quickly build own industrial drive application. For the successful execution of the vector control algorithm, the information on the motor shaft position is critical. The quadrature encoder position information is known in the entire motor speed range, allowing the motor start with full torque at zero speed. Features Vector control of the PMSM using the quadrature encoder as a position sensor Targeted at the Tower ®  rapid prototyping system (K40 tower board, Tower 3-phase low voltage power stage) Vector control with a speed closed loop Rotation in both directions Application speed range from 0% to 100% of nominal speed (no field weakening) Operation via the user buttons on the Kinetis ®  K40 Tower board or via FreeMASTER software Block Diagram Design Resources

  Overview The USB Type-C allows multi-function signaling over the same connector. Our active cable application supports the connectivity of data, video, security, and power over a single connector. The active cables system for Type-C supports up to 10 Gbps. The MCU provides fundamental signal processing and management duties. It communicates with both the signal conditioner and USB PD PHY to organize signal traffic and power flow. Interactive Block Diagram Recommended Products Category Products MCU Kinetis® K Series: High-Performance Microcontrollers (MCUs) based on Arm® Cortex®-M4 Core | NXP    LPC800 Series: Low-Cost Microcontrollers (MCUs) based on Arm® Cortex®-M0+ Cores | NXP  Authentication A1006 | Secure Authenticator IC: Embedded Security Platform | NXP  Signal Conditioners SuperSpeed USB 3.0 redriver | NXP    PTN36043A: USB Type-C SuperSpeed active switch | NXP  USB PD PHY PTN5100 | NXP    PTN5100D | NXP    PTN5150 | NXP    Featured Videos Link NXP USB Type C | NXP  USB Type C Shield Board | NXP  NXP® End to End Secure USB Type-C Solution | NXP  Documentation Link Features Paving The Way for USB Type-C Connectors  Delivering data, video, security, and power in one small, easy-to-insert connector, the new USB Type-C connector. PTN5110N PD PHY application programming guide  PTN5110N is a 1-port TCPC (Type-C Port controller) compliant USB Power Delivery (PD) PHY IC   Training Link USB Type-C Overview - Part 1| Introduction to USB Type-C | NXP  Authentication for USB Type-C - Part 1 | Introduction to NXP Identification & Security | NXP  NXP USB Type-C Solution - Part 1| Overview of NXP Secure Interfaces & Power Solutions | NXP    Community Links Link Other NXP Products  Secure Authentication  Introduction to USB Type-C and Type-C Solutions from NXP  USB Type-C Overview  MHW-N1910 Authentication for USB Type-C 

Overview This drive application allows vector control of an AC Induction Motor (ACIM) running in a closed-speed loop without a speed/position sensor at a low cost and serves as an example of AC induction vector control drive design using an NXP ®  56F8013 with Processor Expert ®  software support. ACIM is ideal for appliance and industrial applications This design uses sensorless FOC to control an ACIM using the 56F8013 device, which can accommodate the sensorless FOC algorithm The motor control system is flexible enough to implement complex motion protocols while it drives a variable load. The system illustrates the features of the 56F8013 in motor control Features General: The motor control algorithm employs Stator-Flux-Oriented Control (SFOC) Power stage switches are controlled by Space Vector Pulse Width Modulation (SVPWM) No position information devices or stator flux measurement are used, a sensorless speed method is employed The motor is capable of forward and reverse rotation and has a speed range from 50rpm to 3000rpm 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 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 With over 35 million installed nodes, PROFIBUS is the world’s most successful communication technology used in industrial automation. Its growth and expansion is aided by the addition of PROFIBUS functionality to PowerQUICC® and QorIQ® communications processors. Integration of PROFIBUS Layer 2 creates a single-chip solution with a direct connection to a RS485 transceiver, eliminating cost and board space associated with an external PROFIBUS ASIC NXP® offers PROFIBUS Layer 2 firmware for PowerQUICC and QorIQ processors with a QUICC Engine® controller, eliminating the need for a costly PROFIBUS ASIC and leaving the processor core almost entirely free for processing Features PROFIBUS Reference Platform supports PROFIBUS Slave certified by ComDec, a PROFIBUS certification lab hosted by Siemens AG PROFIBUS Master Eliminates costly PROFIBUS FPGA or ASIC by running PROFIBUS Layer 2 (FDL) on QUICC Engine ®  controller hardware integrated inside the MPU Protocol and customer control application can run simultaneously on one chip Commercial PROFIBUS slave stack available from Technologie Management Gruppe (TMG) Evaluate using Tower ®  System modules (TWR-P1025-KIT) QorIQ ®  P1, T1 and LS1 processors can also provide simultaneous support for Industrial Ethernet protocols like PROFINET, EtherCAT and EtherNet/IP ™ PowerQUICCC MPC8309 processor delivers an impressive 835 DMIPS core performance for less than 1.6 watts Block Diagram Get Started Getting Started With NXP PROFIBUS for PowerQUICC and QorIQ NXP offers PROFIBUS Layer 2 firmware for PowerQUICC and QorIQ processors with a QUICC Engine controller. The PROFIBUS software supports both Master and Slave modes of operation and can be evaluated on the P1025 processor. Instructions for accessing the hardware evaluation platform and the software are given below. PROFIBUS for PowerQUICC and QorIQ can be evaluated using TWR-P1025-KIT To build/install/load the PROFIBUS software you will need CodeWarrior for Power Architecture V10.3 The PROFIBUS Slave package includes the following: CodeWarrior for Power Architecture V10.3 project archive containing: QUICC Engine PROFIBUS microcode (binary) PROFIBUS Layer 2 driver example (source code) PROFIBUS Layer 7 stack (binary provided by TMG) A sample application (source code) The /Docs folder of the project contains: Readme file Release Notes PROFIBUS Microcode User Manual NXP PROFIBUS Slave Layer 2 API description Sample test logs Software Getting Started Guide Hardware Getting Started Guide 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 Point of Sale reference design demonstrates how the control, security, and connectivity features found on the NXP ®  MCF5329 ColdFire ®  MPU and MCS908QG8 MCU work together to create a secure Industrial Point of Sale System. Complete with an Open Source Embedded Linux® Software Solution, the Point of Sale Reference Design serves as a reference for any industrial design that requires flexible connectivity options, secure communication, or a human interface at a low cost and with a fast development cycle. Archived content is no longer updated and is made available for historical reference only.   Features The Point of Sale Reference Design was designed with the following considerations: Low system cost Easy and intuitive graphical user interface Multiple connectivity solutions to accommodate various POS system connectivity requirements Secure networking communications, transactions, and memory accesses Fast development cycle The Industrial Point of Sale Reference Design also features an Open Source Software Solution: µCLinux Operating System running on the MCF5329 Microprocessor NanoX Graphical User Interface (GUI) Configuration Tool running in the µCLinux environment Communication protocol for secure ethernet transactions MySQL Server Database used to store/access sales transactions       Code Generation Tools Model-Based Design Toolbox Printed Circuit Boards and Schematics Point of Sale Reference Design Schematics Point of Sale Gerber Files (Reference Design)

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

Overview The Bluetooth® Low Energy heart rate monitor reference design demonstrates the implementation of a wireless electrocardiogram (ECG) acquisition system. It features the Kinetis® KW40Z system on chip (SoC) which includes an Arm® Cortex® M0+ processor together with a 2.4 GHz radio for Bluetooth Low Energy and 802.15.4. The ECG signal is obtained from the finger tips and processed by the Kinetis KW40Z SoC. Then, the user’s heart rate is calculated and transmitted to a smartphone application using Bluetooth Low Energy. The reference design can be powered by a Li-Ion coin-cell battery. Due to the low-power features of Kinetis KW40Z MCU, a 3.6V 200mA/h Li-Ion coin-cell rechargeable battery can provide the power of up to 40 hours of continuous use. The NXP® MC34671 is in used as a battery charger solution for the device. Features Includes the NXP ®  ultra-low-power Kinetis ®  KW40Z SoC Bluetooth Low Energy/ZigBee platform. The low-power features of this solution allow up to 40 hours of continuous operation using a small coin-cell battery. Fully compliant Bluetooth v4.1 Low Energy Differential input/output port used with external balun for single port operation Block Diagram Board Design Resources

  Overview The NXP ®  Feature Phone reference design is designed to implement the Type 2 Feature Phone core. Includes support for on-hook GR-30 services such as Calling Number Delivery, Calling Name Delivery, Dialable Directory Number, Call Qualifier, and Visual Message Waiting Indicator Additional support for off-hook GR-30 services, such as Calling Identity Delivery on Call Waiting and Call Waiting Deluxe The Feature Phone reference design also includes a full duplex echo-cancelling speakerphone with solid sound quality; the demo is able to originate and terminate a call in full duplex speakerphone mode A HyperTerminal will be used to display the GR-30 messages Archived content is no longer updated and is made available for historical reference only.   Features DSP56858EVM and 5685X Digital Signal Controllers Telephony Daughter Card (TDC1) Microphone AKG Acoustics Type Q400Mk3, Code 2846Z003 Directional Mono Electret condenser microphone Use with Radio Shack adaptor: Stereo -to-Mono Headphone adapter number 274-374 Amplified Speaker On-Hook Data Transmission Protocol (GR-30-CORE) - CID_T1.DSP software module Adaptive Line Echo Canceller (SR-3004) - ALEC.DSP software module Off-Hook Data Transmission Protocol (SR-3004) - CIDCW_T2.DSP software module Acoustic Echo Cancellation Keypad LCD     IDE and Build Tools CodeWarrior® Development Tools for 56800/E DSC | NXP  Design Resources https://www.nxp.com/downloads/en/schematics/TDC1LD.zip

  Overview The Water Level Reference design continuously monitors water level and water flow using the temperature compensated MPXM2010GS pressure sensor in the low cost MPAK package, a dual op–amp, and the MC68HC908QT4, 8–pin microcontroller. This system uses very few components, reducing the overall system cost. This allows for a solution to compete with a mechanical switch for water level detection but also offer additional applications such as monitoring water flow for leak detection, and the other applications for smart washing machines. Archived content is no longer updated and is made available for historical reference only.   Features Demonstrate Water Level Monitor plus additional features such as water flow monitoring and leak Pressure Sensor - MPXM2010 MPAK Package Sensitivity 2.5 mV / kPa Pressure Rating 10kPa (Max) Microprocessor MC68HC908QT4 40K Bytes of in-application reprogrammable Flash and 128 Bytes of RAM High performance, easy to use, HC08 CPU 4 Channel 8-bit analog to digital converter 8-pin DIP or SOIC packages Design Considerations Media Isolate pressure sensor from water by using a head tube Accuracy To prevent overflow and control consumption of water Auto-zeroing concept can eliminate offset errors Tank/tub diameter is irrelevant, the important part is to have an accuracte look up table to correlate water height versus pressure     Printed Circuit Boards and Schematics RD1950MPXM2010SCHEM RD1950MPXM2010SCHEMATIC RD1950MPXM2010DGRBR

Overview The QorIQ® communications processors include single-, dual-, quad- and multicore processor architectures with integrated support for communications protocols such as EtherCAT. The new programmable logic controller (PLC) reference platform is equipped to ease development of industrial control systems PLC reference platform implements the KPA (koenig-pa GmbH) EtherCAT Master protocol with ISaGRAF Firmware and QNX Neutrino® RTOS on the high-performance QorIQ P1025 processor Supported by powerful development tools from all four companies, including the KPA EtherCAT Studio, ISaGRAF 6 Workbench, QNX Momentics® Tool Suite, and CodeWarrior® Development Suit Features Integrated ISaGRAF Firmware, KPA EtherCAT Master stack and QNX Neutrino RTOS on the QorIQ ®  P1 Tower ®  module EtherCAT master protocol and customer control application run simultaneously on a single QorIQ P1025 processor to deliver one millisecond EtherCAT master cycle time QorIQ P1 processors can also provide simultaneous support for complex applications, as well as additional industrial protocols like PROFINET, PROFIBUS and EtherNet/IP ™ Powerful development tools include the KPA EtherCAT Studio, ISaGRAF 6 Workbench, QNX Momentics Tool Suite, and CodeWarrior ®  Development Suite ISaGRAF 6 Workbench and Firmware kernel can fully support all IEC 61499 and IEC 61131-3 standard PLC programming languages Software and hardware developed on TWR-P1025 can be easily deployed on a range of QorIQ P1 processors, including the P1012, P1021, P1016 and P1025 processors QorIQ P1 processor family offers pin-compatible single-core variants for cost reduction, and dual-core variants which scale up to 3,700 million instructions per second (MIPS) for more complex control algorithms. Customers may distribute processing functions across two cores, or isolate real-time control functions on one core while running maintenance and communications functions on the other core. Commercial EtherCAT Master stack available from KPA Commercial Neutrino RTOS available from QNX Block Diagram Platform Requirements One TWR-P1025 QorIQ Tower Module Target slaves required to run the demo: Beckhoff EK1100 EtherCAT coupler Beckhoff EL1004 4-channel digital input terminal 24 V DC, 3 ms Beckhoff EL2004 4-channel digital output terminal 24 V DC, 0.5 A Beckhoff EL9011 end cap An image of the complete PLC Reference Platform run-time software. Download the PLC Reference Platform evaluation software. ISaGRAF 6 Workbench for offline tools Utility Software (Windows) TeraTerm for RS232 communications USB to UART driver for console port TFTP Server to load images to TWR-P1025 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 describes the design of a 3-phase BLDC (Brushless DC) motor drive, which supports the NXP® 56F80X and 56F83XX Digital Signal Controllers (DSCs). The speed-closed loop BLDC drive using an encoder sensor is implemented The system is targeted for applications in both industrial and appliance fields (e.g. washing machines, compressors, air conditioning units, pumps or simple industrial drives required high reliability and efficiency) Features Voltage control of BLDC motor using Encoder sensor Targeted for 56F80X, 56F83XX, and 56F81XX Digital Signal Controllers Running on 3-phase Motor Board Control technique incorporates: Voltage BLDC motor control with speed-closed loop Current feedback loop Both directions of rotation Motoring mode Minimal speed 500 RPM Maximal speed 1000 RPM (limited by power supply) Manual interface (Start/Stop switch, Up/Down push button control, LED indication) FreeMASTER software control interface (motor start/stop, speed set-up) FreeMASTER software monitor Block Diagram Board Design Resources