New Products

This board is a simple compact carrier of Allegro’s ACS72981KLRATR-150B3 Hall effect-based linear current sensor, which offers a low-resistance (~0.2 mΩ) current path and a high 250 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS72981LLRATR-050U3 Hall effect-based linear current sensor, which offers a low-resistance (~0.2 mΩ) current path and a high 250 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS72981LLRATR-100U5 Hall effect-based linear current sensor, which offers a low-resistance (~0.2 mΩ) current path and a high 250 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS72981LLRATR-100U3 Hall effect-based linear current sensor, which offers a low-resistance (~0.2 mΩ) current path and a high 250 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS72981LLRATR-050B5 Hall effect-based linear current sensor, which offers a low-resistance (~0.2 mΩ) current path and a high 250 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS72981LLRATR-050B3 Hall effect-based linear current sensor, which offers a low-resistance (~0.2 mΩ) current path and a high 250 kHz bandwidth for fast response times.

This board is a simple carrier of Allegro’s ACS71240KEXBLT-010B3 Hall effect-based linear current sensor, which offers a low-resistance (~0.6 mΩ) current path and a high 120 kHz bandwidth for fast response times.

This is a miniature brushed DC metal gearmotor with a gearbox cross section of 10×12 mm and a 9 mm long, 3 mm diameter D-shaped gearbox output shaft. Cables sold separately.

This is a miniature brushed DC metal gearmotor with a gearbox cross section of 10×12 mm and a 9 mm long, 3 mm diameter D-shaped gearbox output shaft. Cables sold separately.

This is a miniature brushed DC metal gearmotor with a gearbox cross section of 10×12 mm and a 9 mm long, 3 mm diameter D-shaped gearbox output shaft. Cables sold separately.

This is a miniature brushed DC metal gearmotor with a gearbox cross section of 10×12 mm and a 9 mm long, 3 mm diameter D-shaped gearbox output shaft. Cables sold separately.

This is a miniature brushed DC metal gearmotor with a gearbox cross section of 10×12 mm and a 9 mm long, 3 mm diameter D-shaped gearbox output shaft. Cables sold separately.

This is a miniature brushed DC metal gearmotor with a gearbox cross section of 10×12 mm and a 9 mm long, 3 mm diameter D-shaped gearbox output shaft. Cables sold separately.

This monochrome white OLED display features a standard SH1106 SPI interface and a 128×64-pixel resolution. With an active area measuring 1.3″ diagonally, it makes a great compact graphical display for applications where simple LED indicators and text output are not enough.

¹ Typical continuous output current at 30 V in and 9 V out. Actual achievable continuous output current is a function of input and output voltages and is limited by thermal dissipation. See the output current graph on the product page for more information.
² Input voltage must be higher than the output voltage and is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in and 9 V out. Actual achievable continuous output current is a function of input and output voltages and is limited by thermal dissipation. See the output current graph on the product page for more information.
² Input voltage must be higher than the output voltage and is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in and 9 V out. Actual achievable continuous output current is a function of input and output voltages and is limited by thermal dissipation. See the output current graph on the product page for more information.
² Input voltage must be higher than the output voltage and is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in and 9 V out. Actual achievable continuous output current is a function of input and output voltages and is limited by thermal dissipation. See the output current graph on the product page for more information.
² Input voltage must be higher than the output voltage and is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

These 60″ (150 cm) premium jumper wires are made from 22 AWG stranded copper ribbon cable with female crimp pins on one end and male crimp pins on the other end. Together with our 0.1″ crimp connector housings, these wires can be used to make custom cables with 0.1″ (2.54 mm) connectors. There are ten total wires, each a different color, and individual wires or groups of wires are easy to peel apart.

These 36″ (90 cm) premium jumper wires are made from 22 AWG stranded copper ribbon cable with female crimp pins on one end and male crimp pins on the other end. Together with our 0.1″ crimp connector housings, these wires can be used to make custom cables with 0.1″ (2.54 mm) connectors. There are ten total wires, each a different color, and individual wires or groups of wires are easy to peel apart.

These 60″ (150 cm) premium jumper wires are made from 22 AWG stranded copper ribbon cable with female connectors on both ends that work with 0.1″ (2.54 mm) male headers and connectors. There are ten total wires, each a different color, and individual wires or groups of wires are easy to peel apart.

These 36″ (90 cm) premium jumper wires are made from 22 AWG stranded copper ribbon cable with female connectors on both ends that work with 0.1″ (2.54 mm) male headers and connectors. There are ten total wires, each a different color, and individual wires or groups of wires are easy to peel apart.

This sensor is a carrier/breakout board for ST’s VL53L8CX laser-ranging sensor, which offers fast and accurate ranging up to 4 m through a digital I²C or SPI interface. It can measure absolute distances to multiple targets simultaneously across multiple zones, providing enough data for a depth map with up to 8×8 resolution, and has improved performance in ambient light compared to previous sensors. The board includes voltage regulators and level shifters that allow it to work over an input voltage range of 3.2 V to 5.5 V, and the 0.1″ pin spacing makes it easy to use with standard solderless breadboards and 0.1″ perfboards. Note: This is not recommended for use with 8-bit MCUs; for such applications, consider the VL53L1X, VL53L0X carrier, or VL6180X carrier.

The Pololu Zumo 2040 robot is a versatile tracked robot based on the Raspberry Pi RP2040 MCU. This version includes two 50:1 HP micro metal gearmotors along with integrated dual motor drivers, quadrature encoders, line sensors, side and front proximity sensors for detecting objects, a full IMU for detecting impacts and tracking orientation, six RGB LEDS, and a graphical OLED display. The low-profile robot is less than 10 cm × 10 cm—small enough to qualify for Mini Sumo. No soldering or assembly is required; just add 4 AA batteries and connect it to a computer with a USB-C cable and your Zumo is ready for programming.

The Pololu Zumo 2040 robot is a versatile tracked robot based on the Raspberry Pi RP2040 MCU. This version includes two 75:1 HP micro metal gearmotors along with integrated dual motor drivers, quadrature encoders, line sensors, side and front proximity sensors for detecting objects, a full IMU for detecting impacts and tracking orientation, six RGB LEDS, and a graphical OLED display. The low-profile robot is less than 10 cm × 10 cm—small enough to qualify for Mini Sumo. No soldering or assembly is required; just add 4 AA batteries and connect it to a computer with a USB-C cable and your Zumo is ready for programming.

The Pololu Zumo 2040 robot is a versatile tracked robot based on the Raspberry Pi RP2040 MCU. This version includes two 100:1 HP micro metal gearmotors along with integrated dual motor drivers, quadrature encoders, line sensors, side and front proximity sensors for detecting objects, a full IMU for detecting impacts and tracking orientation, six RGB LEDS, and a graphical OLED display. The low-profile robot is less than 10 cm × 10 cm—small enough to qualify for Mini Sumo. No soldering or assembly is required; just add 4 AA batteries and connect it to a computer with a USB-C cable and your Zumo is ready for programming.

The Pololu Zumo 2040 robot is a versatile tracked robot based on the Raspberry Pi RP2040 MCU, and this kit contains most of the parts you need to build one—all you need to add are a pair of micro metal gearmotors, four AA batteries, and a USB-C cable. It includes integrated dual motor drivers, quadrature encoders, line sensors, side and front proximity sensors, a full IMU, six RGB LEDS, and a graphical OLED display. The assembled robot is less than 10 cm × 10 cm—small enough to qualify for Mini Sumo. This product is a kit; assembly (including soldering) is required.

This is the main control board for the Zumo 2040 robot. It is included as part of the Zumo 2040 Robot Kit and built into the assembled versions of the Zumo 2040 Robots. Assorted through-hole components, magnetic encoder discs, and mounting hardware are included, but the optional OLED display is sold separately.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

¹ Typical continuous output current at 30 V in. Actual achievable continuous output current is a function of input voltage and is limited by thermal dissipation. See the output current graphs on the product pages for more information.
² Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

This version of our DRV8434 Stepper Motor Driver Carrier ships with male header pins installed, so no soldering is required to use it with an appropriate 16-pin socket or solderless breadboard. Please see the DRV8434 Stepper Motor Driver Carrier product page for more information about the driver.

This breakout board for TI’s DRV8434 microstepping bipolar stepper motor driver offers microstepping down to 1/256-step and operates from 4.5 V to 48 V. It can deliver up to approximately 1.2 A continuous per phase without a heat sink or forced air flow (2 A peak). The driver has inputs for setting the decay mode and includes two smart tune current regulation modes that help you achieve smooth steps without manual tuning. The module has a pinout and interface that are very similar to that of our popular A4988 carriers, so it can be used as a drop-in replacement for those boards in many applications. It features built-in protection against under-voltage, over-current, and over-temperature conditions.

This sensor is a carrier/breakout board for ST’s VL53L7CX laser-ranging sensor, which offers fast and accurate ranging up to 3.5 m through a digital I²C interface. It has an extra-wide 60°×60° square field of view (FOV) (90° diagonal), and it can measure absolute distances to multiple targets simultaneously across multiple zones, providing enough data for a depth map with up to 8×8 resolution. The board includes a 3.3 V linear regulator and level-shifters that allow it to work over an input voltage range of 2.5 V to 5.5 V, and the 0.1″ pin spacing makes it easy to use with standard solderless breadboards and 0.1″ perfboards. Note: This is not recommended for use with 8-bit MCUs; for such applications, consider the VL53L1X, VL53L0X carrier, or VL6180X carrier.

^*For input voltages close to the output. Actual achievable maximum continuous current is a function of input and output voltage and is limited by thermal dissipation. See the output current graphs on the product page for more information.

^*For input voltages close to the output. Actual achievable maximum continuous current is a function of input and output voltage and is limited by thermal dissipation. See the output current graphs on the product page for more information.

^*For input voltages close to the output. Actual achievable maximum continuous current is a function of input and output voltage and is limited by thermal dissipation. See the output current graphs on the product page for more information.

^*For input voltages close to the output. Actual achievable maximum continuous current is a function of input and output voltage and is limited by thermal dissipation. See the output current graphs on the product page for more information.

^*For input voltages close to the output. Actual achievable maximum continuous current is a function of input and output voltage and is limited by thermal dissipation. See the output current graphs on the product page for more information.

This board is a simple compact carrier of Allegro’s ACS724LLCTR-2P5AB Hall effect-based linear current sensor, which offers a low-resistance (~1.2 mΩ) current path and a high 120 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS724LLCTR-05AU Hall effect-based linear current sensor, which offers a low-resistance (~1.2 mΩ) current path and a high 120 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS724LLCTR-10AB Hall effect-based linear current sensor, which offers a low-resistance (~1.2 mΩ) current path and a high 120 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS724LLCTR-20AU Hall effect-based linear current sensor, which offers a low-resistance (~1.2 mΩ) current path and a high 120 kHz bandwidth for fast response times.

This board is a simple compact carrier of Allegro’s ACS724LLCTR-30AB Hall effect-based linear current sensor, which offers a low-resistance (~1.2 mΩ) current path and a high 120 kHz bandwidth for fast response times.

The AltIMU-10 v6 is an inertial measurement unit (IMU) and altimeter that features the same LSM6DSO gyro and accelerometer and LIS3MDL magnetometer as the MinIMU-9 v6, and adds an LPS22DF digital barometer. An I²C interface accesses ten independent pressure, rotation, acceleration, and magnetic measurements that can be used to calculate the sensor’s altitude and absolute orientation. The board operates from 2.5 to 5.5 V and has a 0.1″ pin spacing.

The MinIMU-9 v6 is an inertial measurement unit (IMU) that packs an LSM6DSO 3-axis gyro and 3-axis accelerometer and an LIS3MDL 3-axis magnetometer onto a tiny 0.8″ × 0.5″ board. An I²C interface accesses nine independent rotation, acceleration, and magnetic measurements that can be used to calculate the sensor’s absolute orientation. The MinIMU-9 v6 board includes a voltage regulator and a level-shifting circuit that allow operation from 2.5 to 5.5 V, and the 0.1″ pin spacing makes it easy to use with standard solderless breadboards and 0.1″ perfboards.