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Development Tools Selector - DTS
dsPIC33CK128MP503 Development Tools
Development Environment
Emulators and Debuggers
Demo & Evaluation Boards
Production Programmers
Software Libraries
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 MPLAB® X Integrated Development Environment (IDE) is an expandable, highly configurable software program that incorporates powerful tools to help you discover, configure, develop, debug and qualify embedded designs for most of Microchip’s microcontrollers, microprocessors and digital signal controllers. For further information go to: mplab-x-ide |
| Available as free, unrestricted-use downloads, our award-winning MPLAB® XC C Compilers are comprehensive solutions for your project’s software development. Finding the right compiler to support your device is simple: |
| MPLAB® Code Configurator (MCC) is a free, graphical programming environment that generates seamless, easy-to-understand C code to be inserted into your project. Using an intuitive interface, it enables and configures a rich set of peripherals and functions specific to your application. |
| MPLAB® Extensions for Microsoft® Visual Studio Code® (VS Code®) is a collection of VS Code extensions that combines the power of the MPLAB development ecosystem with the versatility of VS Code. Whether you are a new or existing client, MPLAB Extensions for VS Code provides you with a seamless, flexible and efficient development environment with comprehensive support for designs based on our devices. |
| The MPLAB XC-DSC C Compiler is a full-featured, optimizing compiler that translates standard ANSI C programs into Digital Signal Controller (DSC) device assembly language sources. This compiler also supports many command-line options and language extensions that allow full access to the DSC device hardware capabilities and gives users fine control of the compiler code generator. |
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| Product is End of Life (EOL), please consider MPLAB® ICD 5 or MPLAB PICkit™ 5 for your design needs. The MPLAB® ICD 4 In-Circuit Debugger/Programmer is Microchip’s fastest, cost-effective debugging and programming tool for PIC® and SAM Microcontrollers (MCUs) and Microprocessors (MPUs), dsPIC® Digital Signal Controllers (DSCs), and CEC flash microcontrollers. This speed is provided by a SAME70 MCU with 300 MHz, 32-bit MCU with 2MB of RAM and a high-speed FPGA to yield faster communications, downloads and debugging. It debugs and programs with the powerful yet easy-to-use graphical user interface of MPLAB X Integrated Development Environment (IDE). The MPLAB ICD 4 is connected to your PC using a high-speed USB 2.0 interface and is connected to the target with a debugging connector which is also compatible with the MPLAB ICD 3 or MPLAB REAL ICE™ In-Circuit Emulator systems. The MPLAB ICD 4 also works with JTAG interfaces. The MPLAB ICD 4 In-Circuit Debugger/Programmer supports many, but not all, PIC MCUs and dsPIC DSCs at this time. The firmware is continually being upgraded to add support for new devices. To request priority device support or to report issues, email: ICD4_update@microchip.com If you have MPLAB X IDE installed, you can browse to the “docs” folder under your MPLABX installation directory and open the file “Device Support.htm”. Alternatively, you can download it from the Documentation tab on the MPLAB X webpage. |
| Our most affordable debugger has power to impress. |
| As of September 1, 2023, this product will be EOL (End of Life). Please consider MPLAB® PICkit™ 5 for your design needs. Fast programming and increased functionality at the same price as its predecessor, the PICkit™ 3. The MPLAB® PICkit™ 4 now has Programmer-to-Go functionality for 8-bit, 16-bit and 32-bit PIC MCUs and dsPICs and also SAM MCU devices . The firmware update comes with MPLAB X IDE v5.30. The MPLAB® PICkit™ 4 In-Circuit Debugger/Programmer allows fast and easy debugging and programming of PIC®, dsPIC®, AVR, SAM and CEC flash microcontrollers (MCUs) and microprocessors (MPUs), using the powerful graphical user interface of MPLAB X Integrated Development Environment (IDE), starting with version 4.15. The MPLAB PICkit 4 is connected to the design engineer's computer using a high-speed 2.0 USB interface and can be connected to the target via an 8-pin Single In-Line (SIL) connector. The connector uses two device I/O pins and the reset line to implement in-circuit debugging and In-Circuit Serial Programming™ (ICSP™). An additional micro SD card slot and the ability to be self-powered from the target means you can take your code with you and program on the go. The MPLAB PICkit 4 programs faster than its predecessor with a powerful 32-bit 300 MHz SAME70 MCU and comes ready to support PIC®, AVR, SAM and dsPIC® MCU and MPU devices. Along with a wider target voltage, the PICkit 4 supports advanced interfaces such as 4-wire JTAG and Serial Wire Debug with streaming Data Gateway, while being backward compatible for demo boards, headers and target systems using 2-wire JTAG and ICSP. The PICkit 4 also has a unique programmer-to-go function with the addition of a micro SD card slot to hold project code and the ability to be powered by the target board. Note: The PICKit 4 is compatible with MPLAB X IDE version 4.15 and later. Download Now. To check supported devices: If you have MPLAB X IDE installed, you can browse to the “docs” folder under your MPLAB X installation directory and open the file “Device Support.htm”. Alternatively, you can download it from the Downloads tab from MPLAB® X IDE |
| Did you know that the MPLAB® ICE 4 in-circuit emulator is now supported in Microsoft® Visual Studio® Code (VS Code®) via our MPLAB Extensions for VS Code. These extensions are currently released under an early access program to allow users to provide us with feedback for additional development. Join the conversation and help us to refine and expand our offerings. The MPLAB ICE 4 in-circuit emulator system boosts productivity with feature-rich programming and debugging for PIC®, AVR® and SAM devices and dsPIC® Digital Signal Controllers (DSCs). It offers a flexible development environment combined with the capabilities to develop power-efficient code while reducing the debug time. It debugs and programs with a powerful and easy-to-use graphical user interface that uses the latest version of MPLAB X Integrated Development Environment (IDE), version 6.00. The MPLAB ICE 4 in-circuit emulator connects to a host PC using a SuperSpeed USB 3.0 interface and easy-to-use wireless connectivity options for much greater flexibility. By using Ethernet or Wi-Fi® access point interfaces, you can enable wireless connection to the tool for debugging, programming and more. At one end, the MPLAB ICE 4 in-circuit emulator connects to the target using a high-speed 40-pin rugged edge rate cable assembly and at the other end, it connects to adapter boards tailored for supported device communication. |
| Did you know that the MPLAB® ICD 5 In-Circuit Debugger/Programmer is now supported in Microsoft® Visual Studio® Code (VS Code®) via our MPLAB Extensions for VS Code? These extensions are currently released under an early access program to allow users to provide us with feedback for additional development. Join the conversation and help us to refine and expand our offerings. The MPLAB® ICD 5 In-Circuit Debugger/Programmer offers advanced connectivity and power options for developers of designs based on PIC®, AVR® and SAM devices and dsPIC® Digital Signal Controllers (DSCs). It debugs and programs with the powerful and easy-to-use graphical user interface of MPLAB X Integrated Development Environment (IDE). This next-generation tool offers a variety of capabilities and features that you would normally find in more expensive products to speed up your development and reduce your debug time. With its support for Fast Ethernet connectivity and Power over Ethernet Plus (PoE+), the MPLAB ICD 5 Debugger/Programmer offers flexibility and the convenience of remote development while isolating your application from environmental conditions. Whether you're an experienced developer or just starting out, the MPLAB® ICD 5 In-Circuit Debugger/Programmer will accelerate your development process and help you take your designs to the next level. |
| Did you know that MPLAB® PICkit™ 5 is now supported in Microsoft® Visual Studio® Code (VS Code®) via our MPLAB Extensions for VS Code? These extensions are currently released under an early access program to allow users to provide us with feedback for additional development. Join the conversation and help us to refine and expand our offerings. The MPLAB® PICkit™ 5 in-circuit debugger/programmer enables quick prototyping and portable, production-ready programming for all Microchip devices, including PIC® microcontrollers (MCUs) and dsPIC® Digital Signal Controllers (DSCs), AVR® and SAM devices and Arm® Cortex®-based microprocessors (MPUs). It works alongside the MPLAB X Integrated Development Environment (IDE) to provide a powerful and easy-to-use Graphical User Interface (GUI) for debugging and programming. Alternatively, the MPLAB PICkit 5 in-circuit debugger/programmer can be used stand-alone with the MPLAB Programmer-to-Go (PTG) mobile app, allowing you to connect to the tool from your smartphone via Bluetooth®. With stand-alone programming features accessible from your smartphone, the MPLAB PICkit 5 in-circuit debugger/programmer is a versatile programming companion that lets you prototype and debug your solution and then unplug and bring the device with you to deploy that solution out in the field. The MPLAB PICkit 5 supports a wide variety of interfaces such as four-wire JTAG or Serial Wire Debug (SWD) with streaming UART Virtual Comm Port (VCP), and with the Debugger Adapter Board (AC102015) can use standard connectors for JTAG, SWD, ICSP, and AVR Protocols. With the unique programmer-to-go function, the PICkit 5 can also be powered by the target board and program a default image simply by pressing the button hidden under the logo. You can also connect via Bluetooth using the MPLAB PTG mobile app and browse the micro SDTM card installed in the tool for a different image and start programming the target board right from the app. Note: The PICKit 5 is compatible with MPLAB X IDE version 6.10 and later. Download Now. |
| The dsPIC33C Touch-CAN-LIN curiosity development board can be used for evaluating dsPIC33C Digital Signal Controller (DSC) features and prototyping applications. The onboard touch buttons and slider, and QT Touch extension boards interfaced via the XPLAINED PRO connector simplify the evaluation of different capacitive touch use cases. The onboard transceivers and level shifters enable prototyping of applications requiring CAN/CAN-FD, LIN and SENT communication. Designed to take full advantage of Microchip’s MPLAB® X IDE, the board includes an integrated programmer/debugger and requires no additional hardware, making it a perfect starting point to explore the touch functionalities using the dsPIC33C DSC family. Visit our dsPIC33C DSC Page for more information on the Curiosity platform. |
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| The dsPIC33CK64MC105 Curiosity Nano Evaluation Kit is a cost-effective hardware platform to evaluate the dsPIC33CK family of high-performance Digital Signal Controllers (DSCs). The board features the 100 MHz dsPIC33CK64MC105 DSC, which offers 64KB of ECC Flash, 8KB of RAM, a 12-bit/3.5 Msps ADC with 15 channels, 3 op amps, 1 analog comparator, a 12-bit DAC, 4x2 high-speed PWMs with 2 ns resolution and several Core Independent Peripherals (CIPs). The dsPIC33CK ‘MC1’ family is ideal for the design of automotive, motor control, sensor interfacing and control, high-performance, functional safety, and robust applications. The development board provides easy access to all features of the dsPIC33CK64MC105 DSC for rapid prototyping of your custom design. It is supported by the MPLAB® X Integrated Development Environment (IDE) and by the MPLAB® Code Configurator (MCC) development framework. The Curiosity Nano Evaluation Kit contains an On-Board Nano Debugger for programming and debugging and requires no external tools to program the dsPIC33CK64MC105 DSC device. Expand Your Design: This Curiosity Nano Evaluation Kit is also compatible with the Curiosity Nano Touch Adapter (AC80T88A). The Curiosity Nano Touch Adapter bridges from the Curiosity Nano Evaluation Kit to the XPRO connected touch extension boards and enables you to explore touch application designs using the dsPIC33CK64MC105 DSC. |
| The dsPIC33C Touch-CAN-LIN curiosity development board can be used for evaluating dsPIC33C Digital Signal Controller (DSC) features and prototyping applications. The onboard touch buttons and slider, and QT Touch extension boards interfaced via the XPLAINED PRO connector simplify the evaluation of different capacitive touch use cases. The onboard transceivers and level shifters enable prototyping of applications requiring CAN/CAN-FD, LIN and SENT communication. Designed to take full advantage of Microchip’s MPLAB® X IDE, the board includes an integrated programmer/debugger and requires no additional hardware, making it a perfect starting point to explore the touch functionalities using the dsPIC33C DSC family. Visit our dsPIC33C DSC Page for more information on the Curiosity platform. |
| The Motor Control Starter Kit (MCSK) provides a complete solution to rapidly prototype a low-voltage 3-phase BLDC motor-based application. By combining a motor control board with a motor, an USB cable for PC communications, a screwdriver for connecting the motor to the board, and a power supply with adaptors for international plug styles, the MCSK provides an all-in-one solution.
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| The EPC9148 demonstration board is an ultra-Thin, three-level DC-DC synchronous buck converter for high performance computing systems with 60V maximum input voltage, 12.5A maximum output current, 19V output voltage, measuring only 3.5 mm component height (5 mm height total including the printed circuit board) achieving a power density of 400 W/in³. It features the high-performance dsPIC33CK Digital Signal Controller (DSC), 40 V EPC2055 and the 100 V EPC2053 and EPC2038 GaN FETs. This reference design, uses a flying capacitor at the input side to half the input voltage, increasing the dynamic bandwidth of the converter while still using a simple, non-isolated topology. For this purpose, the classical half-bridge drive has been split into an upper and lower half-bridge sections allowing to flip the flying capacitor voltage in every switching cycle. This approach allows the usage of switching devices with lower voltage ratings which have lower on-resistance and are overall faster than their higher voltage-rating counterparts. As a result, the slightly increased losses accumulated during the charge periods of the flying capacitor are compensated by the lower commutation losses of the switch stage ending up at an equal to slightly higher total efficiency. Biasing the buck topology from the flying capacitor directly instead of the input also doubles the inductor ripple frequency and lowers the ripple current peak value. This allows using lower inductance and smaller output capacitance, which further minimizes the size and increases the power density in comparison to a conventional buck converter topology (see EPC9153 for comparison). This driving scheme works best with low voltage Gallium-Nitride switches due to their high switching speed and very low internal capacitance. The digital control stage is key to apply the delicate switching pattern and runtime balancing of the flying capacitor voltage. For more information on hardware-related documentation, design files and purchasing information, please visit the reference design page. |
| The dsPIC33CK Low Voltage Motor Control (LVMC) Development Board is a cost-effective rapid development platform for Brushless DC (BLDC), Permanent Magnet Synchronous Motor (PMSM) and Internal Permanent Magnet (IPM) motor control applications. The LVMC development board is ideal to explore and prototype motor control applications that operate from 12 to 48 Volts and up to 10 Amps of continuous current. The board can also support higher current, up to 20 Amps with an optional fan or heatsink. The board supports application development for sensored six-step trapezoidal or sinusoidal control with hall sensors, sensorless BEMF measuring phase voltages, or Field Oriented Control (FOC) with single, dual or triple-shunt resistor current sensing circuits. This flexibly in architecture allows you to evaluate various design techniques that suit your application requirements, balancing the cost and performance. The LVMC board features the high-performance, single core dsPIC33CK256MP508 Digital Signal Controller (DSC) with 256KB Flash, 8-pairs of advanced motor control PWMs, three integrated 3.5 Msps ADCs for implementing math intensive motor control algorithms like sensorless FOC, Initial Position Detection (IPD), Field Weakening (FW), etc. The LVMC board comes with two mikroBUS™ headers to expand the board features to meet your application needs. It features a high-speed USB to UART interface for debug purpose and to monitor key parameters in your control algorithm using a graphical PC tool like X2C Scope or RTDM.
Benefits
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| Brick DC-DC converters are widely used in data center, telecommunication and automotive applications, converting a nominal 48 V to different output nominal voltages such as 5 V, 9 V or 12 V. The standard dimension of the 1/16th brick converter is 33 x 22.9 mm (1.3 x 0.9 inch). The EPC9143 1/16th brick power module reference design, developed in collaboration with Efficient Power Conversion Corp. EPC, is designed for 48 V to 12 V DC/DC applications. It features the EPC2053 enhancement mode (eGaN®) field effect transistors (FETs), as well as a Microchip dsPIC33CK32MP102 16-bit digital signal controller (DSC). The height limit for this design is set to 10 mm (0.4 inch) In DC/DC brick power module application, there is a continuous push towards higher power density given a fixed form factor. This reference design supports up to 300 W max. output power with 25 A output current at output voltages of 12 V, peak efficiency of >95%, and maximum power density of 730 W/in3 and demonstrates how dsPIC33C® DSCs are used to fully exploit the high performance of GaN FETs in fast switching Intermediate Bus Converter (IBC) applications.
For more information on hardware-related documentation, design files and purchasing information, please visit the reference design page. |
| The TDTTP4000W066C 4kW bridgeless totem-pole power factor correction (PFC) evaluation board (developed by Transphorm) achieves very high efficiency single-phase AC-DC conversion. Using GaN FETs in the fast-switching leg of the circuit and low-resistance MOSFETs in the slow-switching leg of the circuit results in improved performance and efficiency.
The development board integrates Microchip's dsPIC33CK Digital Power PIM with Transphorm’s 4 kW AC-to-DC bridgeless totem pole power factor correction (PFC) evaluation board featuring SuperGaN™, the company’s latest Gen IV GaN technology. The firmware can be downloaded from the software section below. TDTTP4000W066C_0v1-KIT is for evaluation purposes only and is available from Transphorm.
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| The Microchip dsPICDEM™ MCSM Development Board is targeted to control both unipolar and bipolar stepper motors in open-loop or closed-loop (current control) mode. The hardware is designed in such a way that no hardware changes are necessary for 8-, 6- or 4-wire stepper motors in either bipolar or unipolar configurations. Software to run motors in open-loop or closed-loop with full or variable micro-stepping is provided. A GUI for controlling step commands, motor parameter input, and operation modes is included. This flexible and cost-effective board can be configured in different ways for use with Microchip’s specialized dsPIC33 Motor Control Digital Signal Controllers (DSCs). The dsPICDEM MCSM Development Board offers a mounting option to connect either a 28-pin SOIC device or a generic 100-pin Plug-In Module (PIM). A dsPIC33CK64MP105 External Op Amp MC PIM (MA330050-1) is included.
The dsPIC33CK64MP105 devices feature an 4-channel, high-speed PWM with Complementary mode output, a programmable ADC trigger on the PWM reload cycle, digital dead time control, internal shoot-through protection and hardware fault shutdown. These features make the dsPIC DSC an ideal solution for high-performance stepper motor control applications where control of the full-bridge inverter is required. |
| The dsPIC33CK Curiosity Development Board (DM330030) is a cost-effective development and demonstration platform for the dsPIC33CK family of single-core high performance digital signal controllers. |
| The dsPIC33CK256MP506 Digital Power Plug-In Module (DP PIM) is a building block for Microchip’s digital power development boards that allows the controller to be easily swapped out for various dsPIC33 family members. The flexibility offered by these DP PIMs can also benefit customer’s development efforts if their prototyping boards incorporate this standardized DP PIM connector. Compatible with Digital Power Development Board (Part No. DM330029) and Low Voltage PFC Development Board (Part No. DV330101) |
| The Digital Power Development Board is a demonstration board that provides the user a flexible measurement platform for all compatible Microchip dsPIC33’s Digital Power Plug-In Modules (DP PIMs). DP PIM modules can be inserted into the mating socket in the middle of the Digital Power Development Board. All pins of the DP PIM are accessible via test loops or pin headers. The on-board Micro USB connector provides a DC power input to all circuitry. In addition, a mikroBUS™ socket is provided to extend functionality. |
| The Three Coil Wireless Power Transmitter is based on the dsPIC33CH128MP506 device and implements a fixed frequency power control topology. The front-end buck-boost control is managed by the dsPIC33CH device. The transmitter includes CAN for ease of integration into the automotive environment. The transmitter also enables the implementation of NFC. Microchip’s dual-core dsPIC33CH devices integrates the wireless power software stack along with CAN-FD software, Front-end Buck- Boost control, NFC software stack, and Crypto Authentication software. The software is partitioned between the two cores such that the wireless power control is implemented independently on one core and all the remaining functions are implemented in the other core. This partitioning facilitates independent code development on separate modules and enables parallel execution of the Qi protocol and other functions such as NFC |
| This plug-in module comes with an 80-pin dsPIC33CK256MP508 TQFP device. It enables using the OpAmps on the MCLV-2, MCHV-2 and MCHV-3 boards. It can be used with the Microchip MCHV-2 [DM330023-2], MCHV-3 [DM330023-3], MCLV-2 [DM330021-2] and Low Voltage Motor Control Development Bundle [DV330100]. This PIM is not compatible with the MCLV[DM330021] or MCHV [DM330023]. This PIM can be used to evaluate the dsPIC33CKxxxMP50x, and dsPIC33CKxxxMP20x devices. |
| This plug-in module (PIM) features an dsPIC33CK256MP508 80-pin TQFP device. This PIM can be used to evaluate the dsPIC33CKxxxMP50x, and dsPIC33CKxxxMP20x devices. It enables using the internal OpAmps on the dsPIC with the MCLV-2 [DM330021-2], MCHV-2 [DM330023-2], MCHV-3 [DM330023-3] boards and Low Voltage Motor Control Development Bundle [DV330100]. |
| The dsPIC33CK256MP508 General Purpose Explorer 16/32 PIM (MA330042) is designed to demonstrate the capabilities of the dsPIC33CK256MP508 family using the Explorer 16 or Explorer 16/32 Development Board. |
| Microchip’s 750W AC-DC Reference Design demonstrates a semi-bridgeless PFC topology followed by a peak current controlled zero-voltage switching full-bridge (ZVS FB) converter with digital slope compensation to achieve very high conversion efficiencies. This power supply can be firmware updated (including the compensator algorithm) with zero down time to the system it is powering while the power supply is running. It is implemented using two dsPIC33EP “GS” digital-power DSCs that provide full digital control of the power conversion as well as all system management functions. |
| The 200W Wireless Power reference design implements a proprietary protocol developed from several years of R&D and granted U.S patents in the field of wireless power. The 200W solution is ideal for applications such as Power Tools, Vacuum Robots, Industrial Slip Rings, Small Electric Vehicles and Drones. For additional details, demo requests, and design files please visit the reference design page. |
| The dsPICDEM™ MCLV-2 Development Board provides a cost-effective method of evaluating and developing 3-phase sensored or sensorless Brushless DC (BLDC) and Permanent Magnet Synchronous Motor (PMSM) control applications. The board supports Microchip’s 100-pin motor control Plug-In-Modules (PIMs) for the dsPIC33C, dsPIC33E and dsPIC33F Digital Signal Controllers (DSCs) and also for the PICM32MK and ATSAME70 families. The board supports the use of the internal on-chip op amps found on certain dsPIC® or PIC32MK devices, or the external op amps provided on the MCLV-2 board. A dsPIC33EP256MC506 Internal Op Amp PIM (MA330031) is included with the board. The board is capable of controlling motors rated up to 48V and 10A (with TC1 modifications), with multiple communication channels such as USB, CAN, LIN and RS-232. The MCLV-2 replaces and is fully backwards compatible with the original MCLV (DM330021). |
| The Microchip dsPICDEM™ MCHV-2 Development Board aids in the rapid evaluation and development of a wide variety of high-voltage motor control applications. This development board is targeted to control Brushless DC (BLDC) motors, Permanent Magnet Synchronous Motors (PMSM), and AC Induction Motors (ACIM) in both sensored or sensorless operation. The MCHV-2 can be configured to use with Microchip’s motor control dsPIC Digital Signal Controllers (DSCs), supporting 100-pin Plug-in Modules (PIMs) for the dsPIC33F, E and C motor control devices. There is also an option to mount a 28-pin SOIC dsPIC33 DSC device directly. The development board uses a three-phase Integrated Power Module device (IPM) that contains the motor inverter and the gate driver’s circuitry. The circuit drives 3-phase motors using different control techniques without requiring any additional hardware. The MCHV-2 supports using either the internal op amps found on dsPIC33E and dsPIC33C motor control DSCs, or the external op amps found on the MCHV-2 board for current sensing. |
| Refrigerator compressors are now driven by brushless DC motors or permanent magnet synchronous motor to meet high energy efficiency ratings. You must use an inverter-based variable speed drive for the brushless motor to achieve this high energy efficiency. The variable speed drive allows you to operate the compressor at an optimal speed in order to maintain a constant temperature setting as compared to a fixed-speed single-phase AC induction motor (ACIM) drive. Field-Oriented Control (FOC) of brushless motors enables you to implement the variable speed drive and add advanced motor control features like on-the-fly startup and stall detection with auto-recovery. Ready for a live demonstration? This reference design is provided with full user’s guide, source code, schematics and PCB layout. Contact Microchip for demonstration, design files and firmware. |
| The Low Voltage Motor Control Development Bundle provides a cost-effective method of evaluating and developing dual/single motor control power stage targeted to drive two Brushless DC (BLDC) motors or Permanent Magnet Synchronous Motors (PMSM) concurrently. The bundle comes with a dsPIC DSC Signal board, Motor Control 10-24V Driver Board and dsPIC33EP512GM710 Dual Motor Control PIM (MA330037). |
| The 6.5 mm thin EPC9153 power module is a 250W high-efficiency, high-performance synchronous buck converter with 60 V maximum input voltage, 12.5 A maximum output current, and programmable 12-20 V (default set to 20 V) regulated output voltage. Developed in collaboration with Efficient Power Conversion Corporation (EPC), it features the high-performance dsPIC33CK Digital Signal Controller (DSC), EPC2218 and EPC2038 eGaN® FETs. While other reference designs such as EPC9148 have been optimized for highest power densities, this conventional non-isolated, hard-switching step-down converter is optimized for maximum output power capability at the highest efficiency (> 98.2%) with a maximum temperature rise of +40 K above ambient with passive cooling. With a total power density of only 112 W/in³, this converter is capable of providing up to 200% (500W / 25A max.) of its nominal output power for a limited amount of time at a peak efficiency of >98.2%. For test purposes, the over-power time limits have been set to 10ms for 150% and 1ms for 200% load. Each boost-mode time limit can be reconfigured and tailored to known test conditions by the user. On the other side of the load spectrum, the power consumption under no-load conditions has been minimized by applying a hysteretic standby mode, in which the converter still provides a regulated output voltage at only 280 mW total power consumption, supporting fast recovery of fixed frequency operation within 100 µsec. For more information on hardware related documentation, design files and purchasing information, please visit EPC’s product website: |
| dsPIC33C Digital Power Starter Kit introduces and demonstrate the capabilities and features of Microchip's SMPS families of devices. It features on-board dsPIC33CK256MP505 DSC, SMPS power stages, loads, LCD display, USB/UART bridge and programmer/debugger, which eliminates the need for any additional hardware. |
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| MPLAB® PM3 Universal Device Programmer no longer supports all PIC MCU devices. To see if your device is supported, input your device part number here: https://www.microchip.com/en-us/development-tools-tools-and-software/devtoolselector Alternate products to use for production programming for all PIC devices are: The MPLAB® PM3 Universal Device Programmer is easy to use and operates with a PC or as a stand-alone unit, and programs Microchip's entire line of PIC® devices as well as the latest dsPIC® DSC devices. When used standalone, data can be loaded and saved with the SD/MMC card (not included). |
| Did you know that MPLAB® PICkit™ 5 is now supported in Microsoft® Visual Studio® Code (VS Code®) via our MPLAB Extensions for VS Code? These extensions are currently released under an early access program to allow users to provide us with feedback for additional development. Join the conversation and help us to refine and expand our offerings. The MPLAB® PICkit™ 5 in-circuit debugger/programmer enables quick prototyping and portable, production-ready programming for all Microchip devices, including PIC® microcontrollers (MCUs) and dsPIC® Digital Signal Controllers (DSCs), AVR® and SAM devices and Arm® Cortex®-based microprocessors (MPUs). It works alongside the MPLAB X Integrated Development Environment (IDE) to provide a powerful and easy-to-use Graphical User Interface (GUI) for debugging and programming. Alternatively, the MPLAB PICkit 5 in-circuit debugger/programmer can be used stand-alone with the MPLAB Programmer-to-Go (PTG) mobile app, allowing you to connect to the tool from your smartphone via Bluetooth®. With stand-alone programming features accessible from your smartphone, the MPLAB PICkit 5 in-circuit debugger/programmer is a versatile programming companion that lets you prototype and debug your solution and then unplug and bring the device with you to deploy that solution out in the field. The MPLAB PICkit 5 supports a wide variety of interfaces such as four-wire JTAG or Serial Wire Debug (SWD) with streaming UART Virtual Comm Port (VCP), and with the Debugger Adapter Board (AC102015) can use standard connectors for JTAG, SWD, ICSP, and AVR Protocols. With the unique programmer-to-go function, the PICkit 5 can also be powered by the target board and program a default image simply by pressing the button hidden under the logo. You can also connect via Bluetooth using the MPLAB PTG mobile app and browse the micro SDTM card installed in the tool for a different image and start programming the target board right from the app. Note: The PICKit 5 is compatible with MPLAB X IDE version 6.10 and later. Download Now. |
| Did you know that the MPLAB® ICD 5 In-Circuit Debugger/Programmer is now supported in Microsoft® Visual Studio® Code (VS Code®) via our MPLAB Extensions for VS Code? These extensions are currently released under an early access program to allow users to provide us with feedback for additional development. Join the conversation and help us to refine and expand our offerings. The MPLAB® ICD 5 In-Circuit Debugger/Programmer offers advanced connectivity and power options for developers of designs based on PIC®, AVR® and SAM devices and dsPIC® Digital Signal Controllers (DSCs). It debugs and programs with the powerful and easy-to-use graphical user interface of MPLAB X Integrated Development Environment (IDE). This next-generation tool offers a variety of capabilities and features that you would normally find in more expensive products to speed up your development and reduce your debug time. With its support for Fast Ethernet connectivity and Power over Ethernet Plus (PoE+), the MPLAB ICD 5 Debugger/Programmer offers flexibility and the convenience of remote development while isolating your application from environmental conditions. Whether you're an experienced developer or just starting out, the MPLAB® ICD 5 In-Circuit Debugger/Programmer will accelerate your development process and help you take your designs to the next level. |
| Did you know that the MPLAB® ICE 4 in-circuit emulator is now supported in Microsoft® Visual Studio® Code (VS Code®) via our MPLAB Extensions for VS Code. These extensions are currently released under an early access program to allow users to provide us with feedback for additional development. Join the conversation and help us to refine and expand our offerings. The MPLAB ICE 4 in-circuit emulator system boosts productivity with feature-rich programming and debugging for PIC®, AVR® and SAM devices and dsPIC® Digital Signal Controllers (DSCs). It offers a flexible development environment combined with the capabilities to develop power-efficient code while reducing the debug time. It debugs and programs with a powerful and easy-to-use graphical user interface that uses the latest version of MPLAB X Integrated Development Environment (IDE), version 6.00. The MPLAB ICE 4 in-circuit emulator connects to a host PC using a SuperSpeed USB 3.0 interface and easy-to-use wireless connectivity options for much greater flexibility. By using Ethernet or Wi-Fi® access point interfaces, you can enable wireless connection to the tool for debugging, programming and more. At one end, the MPLAB ICE 4 in-circuit emulator connects to the target using a high-speed 40-pin rugged edge rate cable assembly and at the other end, it connects to adapter boards tailored for supported device communication. |
| Product is End of Life (EOL), please consider MPLAB® ICD 5 or MPLAB PICkit™ 5 for your design needs. The MPLAB® ICD 4 In-Circuit Debugger/Programmer is Microchip’s fastest, cost-effective debugging and programming tool for PIC® and SAM Microcontrollers (MCUs) and Microprocessors (MPUs), dsPIC® Digital Signal Controllers (DSCs), and CEC flash microcontrollers. This speed is provided by a SAME70 MCU with 300 MHz, 32-bit MCU with 2MB of RAM and a high-speed FPGA to yield faster communications, downloads and debugging. It debugs and programs with the powerful yet easy-to-use graphical user interface of MPLAB X Integrated Development Environment (IDE). The MPLAB ICD 4 is connected to your PC using a high-speed USB 2.0 interface and is connected to the target with a debugging connector which is also compatible with the MPLAB ICD 3 or MPLAB REAL ICE™ In-Circuit Emulator systems. The MPLAB ICD 4 also works with JTAG interfaces. The MPLAB ICD 4 In-Circuit Debugger/Programmer supports many, but not all, PIC MCUs and dsPIC DSCs at this time. The firmware is continually being upgraded to add support for new devices. To request priority device support or to report issues, email: ICD4_update@microchip.com If you have MPLAB X IDE installed, you can browse to the “docs” folder under your MPLABX installation directory and open the file “Device Support.htm”. Alternatively, you can download it from the Documentation tab on the MPLAB X webpage. |
| As of September 1, 2023, this product will be EOL (End of Life). Please consider MPLAB® PICkit™ 5 for your design needs. Fast programming and increased functionality at the same price as its predecessor, the PICkit™ 3. The MPLAB® PICkit™ 4 now has Programmer-to-Go functionality for 8-bit, 16-bit and 32-bit PIC MCUs and dsPICs and also SAM MCU devices . The firmware update comes with MPLAB X IDE v5.30. The MPLAB® PICkit™ 4 In-Circuit Debugger/Programmer allows fast and easy debugging and programming of PIC®, dsPIC®, AVR, SAM and CEC flash microcontrollers (MCUs) and microprocessors (MPUs), using the powerful graphical user interface of MPLAB X Integrated Development Environment (IDE), starting with version 4.15. The MPLAB PICkit 4 is connected to the design engineer's computer using a high-speed 2.0 USB interface and can be connected to the target via an 8-pin Single In-Line (SIL) connector. The connector uses two device I/O pins and the reset line to implement in-circuit debugging and In-Circuit Serial Programming™ (ICSP™). An additional micro SD card slot and the ability to be self-powered from the target means you can take your code with you and program on the go. The MPLAB PICkit 4 programs faster than its predecessor with a powerful 32-bit 300 MHz SAME70 MCU and comes ready to support PIC®, AVR, SAM and dsPIC® MCU and MPU devices. Along with a wider target voltage, the PICkit 4 supports advanced interfaces such as 4-wire JTAG and Serial Wire Debug with streaming Data Gateway, while being backward compatible for demo boards, headers and target systems using 2-wire JTAG and ICSP. The PICkit 4 also has a unique programmer-to-go function with the addition of a micro SD card slot to hold project code and the ability to be powered by the target board. Note: The PICKit 4 is compatible with MPLAB X IDE version 4.15 and later. Download Now. To check supported devices: If you have MPLAB X IDE installed, you can browse to the “docs” folder under your MPLAB X installation directory and open the file “Device Support.htm”. Alternatively, you can download it from the Downloads tab from MPLAB® X IDE |
| The Softlog SEC-DS Secure Programming Upgrade is a "Secure Programming" extension for the ICP2 and ICP2(HC) programmers that provides several layers of protection--utilizing breakthrough technology--dramatically reducing the risk of unauthorized reconstruction of hex data and limiting how many times a hex file can be programmed. Secure programming operates on two levels: the ADMIN level and the USER level. |
| The Softlog SEC4CH-DS Secure Programming Upgrade is a "Secure Programming" extension for the ICP2GANG programmer that provides several layers of protection--utilizing breakthrough technology--dramatically reducing the risk of unauthorized reconstruction of hex data and also limiting how many times a hex file can be programmed. Secure programming operates on two levels: the ADMIN level and the USER level. |
| The ICP2(G3)-DP Production Quality In-Circuit Programmer is a cost-effective programmer that operates with a PC or as a standalone unit. It programs 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs and Serial EEPROMs & Flash ICs. ICP2(G3)-DP hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.)
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| The ICP2GANG(G3)-DP Production Quality In-Circuit 4-channel (expandable to 64 channels) GANG programmer is a cost-effective programmer that operates with a PC or as a standalone unit and simultaneously programs 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs, and serial EEPROMs & Flash ICs. ICP2GANG(G3)-DP hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.)
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| A member of the ICP(G3) family of high-speed, production-grade in-circuit programmers. This compact, battery-powered device supports up to six different programming environments, making it an ideal, low-cost solution for field upgrades. ICP2PORT(G3)-P programs Microchip 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs and Serial EEPROMs & Flash ICs. ICP2PORT(G3)-P hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.) |
| A member of the ICP(G3) family of high-speed, production-grade in-circuit programmers. This compact, battery-powered device supports up to six different programming environments, making it an ideal, low-cost solution for field upgrades. ICP2PORT(G3)-PX programs Microchip 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs, 32-bit AVR, PIC & ARM Cortex M0/0+/23/3/4/7 MCUs and Serial EEPROMs & Flash ICs. ICP2PORT(G3)-PX hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.) |
| The ICP2(G3)-DPX Production Quality In-Circuit Programmer is a cost-effective programmer that operates with a PC or as a standalone unit. It programs 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs, 32-bit AVR, PIC & ARM Cortex M0/0+/23/3/4/7 MCUs and Serial EEPROMs & Flash ICs. ICP2(G3)-DPX hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.)
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| The ICP2GANG(G3)-DPX Production Quality In-Circuit 4-channel (expandable to 64 channels) GANG programmer is a cost-effective programmer that operates with a PC or as a standalone unit and simultaneously programs 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs, 32-bit AVR, PIC & ARM Cortex M0/0+/23/3/4/7 MCUs and Serial EEPROMs & Flash ICs. ICP2GANG(G3)-DPX hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.)
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| The ICP2COMBO(G3)-DPX-8 Production Quality In-Circuit (ICSP) 8-channel (expandable up to 64 channels) GANG Programmer is a cost-effective programmer that operates with a PC or as a standalone unit and simultaneously programs 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs, 32-bit AVR, PIC & ARM Cortex M0/0+/23/3/4/7 MCUs and Serial EEPROMs & Flash ICs. ICP2COMBO(G3)-DPX-8 hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.)
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| The ICP2COMBO(G3)-DPX-12 Production Quality In-Circuit (ICSP) 12-channel (expandable up to 60 channels) GANG Programmer is a cost-effective programmer that operates with a PC or as a standalone unit and simultaneously programs 8-bit PIC® & AVR® MCUs, 16-bit PIC MCUs & dsPIC® DSCs, 32-bit AVR, PIC & ARM Cortex M0/0+/23/3/4/7 MCUs and Serial EEPROMs & Flash ICs. ICP2COMBO(G3)-DPX-12 hardware is designed to support popular programming interfaces (ICSP™, JTAG, SWD, UPDI, SPI, QSPI, etc.)
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["emulators","Emulators and Debuggers"] ,
["demoevaluationboards","Demo & Evaluation Boards"] ,
["programmerrelations","Production Programmers"] ,
["thirdpartytools","3rd Party Tools"] ,
["legacy","Legacy"] ,
["softwarelibraries","Software Libraries"]
Search Development Tools Selector (DTS) by device number to find the development tools that support a particular device. To search by board or application, please use MPLAB® Discover.