New Products

This module is a carrier board for TI’s ISO6542F general purpose functional isolator, which enables four channels of galvanically isolated digital communication between two devices at up to 50 Mbps per channel. It provides two forward channels and two reverse channels, and they default to low in the event of input power or signal loss.

This module is a carrier board for TI’s ISO6542 general purpose functional isolator, which enables four channels of galvanically isolated digital communication between two devices at up to 50 Mbps per channel. It provides two forward channels and two reverse channels, and they default to high in the event of input power or signal loss.

This module is a carrier board for TI’s ISO6541F general purpose functional isolator, which enables four channels of galvanically isolated digital communication between two devices at up to 50 Mbps per channel. It provides three forward channels and one reverse channel, and they default to low in the event of input power or signal loss.

This module is a carrier board for TI’s ISO6541 general purpose functional isolator, which enables four channels of galvanically isolated digital communication between two devices at up to 50 Mbps per channel. It provides three forward channels and one reverse channel, and they default to high in the event of input power or signal loss.

This module is a carrier board for TI’s ISO6540F general purpose functional isolator, which enables four channels of galvanically isolated digital communication between two devices at up to 50 Mbps per channel. All four channels are in the forward direction, and they default to low in the event of input power or signal loss.

This module is a carrier board for TI’s ISO6540 general purpose functional isolator, which enables four channels of galvanically isolated digital communication between two devices at up to 50 Mbps per channel. All four channels are in the forward direction, and they default to high in the event of input power or signal loss.

This is a breakout board for the MPS MP6602 microstepping bipolar/unipolar stepper motor driver, which features a serial interface and stall detection. It operates from 4.5 V to 35 V with a maximum current limit of 4 A, which it can run at continuously on our carrier board without a heat sink or forced air flow. The SPI interface allows configuration of the current limit, step mode (6 step modes from full-step through 1/32-step), decay mode off time, and stall detection, and it can also be used for stepper motor control. The driver also features built-in protection against under-voltage, over-current, and over-temperature conditions. This version does not include header pins.

This version of our MP6602 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 MP6602 Stepper Motor Driver Carrier product page for more information about the driver.

This is the compact version of a simple carrier for Allegro’s ACS37100LMATR-025B3 TMR-based, electrically isolated current sensor that offers a high 10 MHz bandwidth with high accuracy, low noise, and typical response times of 50 ns.

This is the compact version of a simple carrier for Allegro’s ACS37100LMATR-025B3 TMR-based, electrically isolated current sensor that offers a high 10 MHz bandwidth with high accuracy, low noise, and typical response times of 50 ns.

This is the compact version of a simple carrier for Allegro’s ACS37030LMYATR-065B3 electrically isolated current sensor that uses two signal paths—Hall effect and inductive coil—to capture both low-frequency and high-frequency information. This allows for a DC through 5 MHz bandwidth and typical response times of 40 ns.

This is the compact version of a simple carrier for Allegro’s ACS37030LMYATR-040B3 electrically isolated current sensor that uses two signal paths—Hall effect and inductive coil—to capture both low-frequency and high-frequency information. This allows for a DC through 5 MHz bandwidth and typical response times of 40 ns.

This is the compact version of a simple carrier for Allegro’s ACS37030LMYATR-025B3 electrically isolated current sensor that uses two signal paths—Hall effect and inductive coil—to capture both low-frequency and high-frequency information. This allows for a DC through 5 MHz bandwidth and typical response times of 40 ns.

This solid state relay/switch board provides a way to make and break an electrical connection based on a 2.7 V to 40 V input signal. Its electrically isolated output makes it suitable for various applications where mechanical relays are traditionally used, while its semiconductor-based design avoids many of a mechanical relay’s disadvantages. This version can switch up to 4.5 A of current at voltages up to 100 V (absolute maximum).

This discrete MOSFET H-bridge motor driver enables bidirectional control of one high-power brushed DC motor. The 1.9″ × 1.7″ board supports a wide 6.5 V to 40 V voltage range and is efficient enough to deliver up to around 30 A continuous without a heat sink. Additional features include reverse-voltage protection, basic current limiting, and an on-board current sensor that provides a direct measurement of the motor current.

This breakout board for the MPS MPQ6612A motor driver offers a wide operating voltage range of 4 V to 40 V and can deliver up to 4 A continuous to a single brushed DC motor. The MPQ6612A has built-in current sensing and regulation that limits the peak motor current to 7.5 A by default, as well as protection against over-current and over-temperature. The carrier board also adds reverse-voltage protection. This version includes soldered connectors, so no soldering is required to use it.

This breakout board for the MPS MPQ6612A motor driver offers a wide operating voltage range of 4 V to 40 V and can deliver up to 4 A continuous to a single brushed DC motor. The MPQ6612A has built-in current sensing and regulation that limits the peak motor current to 7.5 A by default, as well as protection against over-current and over-temperature. The carrier board also adds reverse-voltage protection. This version does not include any connectors.

This version of our MP6603 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 MP6603 Stepper Motor Driver Carrier product page for more information about the driver.

This breakout board for the MPS MP6603 microstepping bipolar stepper motor driver offers microstepping down to 1/8-step and operates from 8 V to 55 V. It can deliver up to approximately 2 A per phase continuously without a heat sink or forced air flow (up to 4 A peak). 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-voltage, over-current, and over-temperature conditions, and configurable input modes allow it to alternatively drive brushed DC motors and other loads.

This module protects a connected load from reverse voltages down to -75 V (80 V absolute max). This version does not block reverse current, making it suitable for applications such as battery-powered motor control where delivering energy back into the supply is desirable.

Note 1: Operates down to 3.2 V after startup.
Note 2: MOSFET on resistance.

This module protects a connected load from reverse voltages down to -75 V (80 V absolute max). This version does not block reverse current, making it suitable for applications such as battery-powered motor control where delivering energy back into the supply is desirable.

Note 1: Operates down to 3.2 V after startup.
Note 2: MOSFET on resistance.

This carrier board for Texas Instruments’s TPS2116 power multiplexer allows seamless switching between two power sources of 1.6 V to 5.5 V with up to 2.5 A of continuous current while blocking reverse current into either source. By default, the mux selects the higher of the two input voltages, and it can also be configured to switch from the VIN1 supply to the VIN2 supply on command or when VIN1 falls below a preset voltage. In addition, this board serves as a breakout for a USB Type-C connector that can be used to supply the non-preferred (VIN2) rail.

This carrier board for Texas Instruments’s TPS2116 power multiplexer allows seamless switching between two power sources of 1.6 V to 5.5 V with up to 2.5 A of continuous current while blocking reverse current into either source. By default, the mux selects the higher of the two input voltages, and it can also be configured to switch from the VIN1 supply to the VIN2 supply on command or when VIN1 falls below a preset voltage. In addition, this board serves as a breakout for a USB Type-C connector that can be used to supply the preferred (VIN1) rail.

Note 1: At 48 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

Note 1: At 48 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

Note 1: At 48 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

Note 1: At 48 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

The Motoron M3T453 Triple I²C Motor Controller offers a compact solution for controlling three DC motors through an I²C interface. Multiple Motoron controllers can be connected to the same I²C bus, making it easy to expand a system with additional motors. The M3T453 supports motor supply voltages from 4.5 V to 44 V and can deliver continuous output currents up to 0.8 A per motor. This version has 0.1″-spaced pins for the logic and motor connections, and it ships without any headers included.

The Motoron M3T453 Triple I²C Motor Controller offers a compact solution for controlling three DC motors through an I²C interface. Multiple Motoron controllers can be connected to the same I²C bus, making it easy to expand a system with additional motors. The M3T453 supports motor supply voltages from 4.5 V to 44 V and can deliver continuous output currents up to 0.8 A per motor. This version has 0.1″-spaced pins for the logic and motor connections, and it ships with soldered headers.

The Motoron M3T453 Triple I²C Motor Controller offers a compact solution for controlling three DC motors through an I²C interface. Multiple Motoron controllers can be connected to the same I²C bus, making it easy to expand a system with additional motors. The M3T453 supports motor supply voltages from 4.5 V to 44 V and can deliver continuous output currents up to 0.8 A per motor. This version has JST SH-style connectors for the I²C and motor connections. It does not include a motor power connector.

The Motoron M3T453 Triple I²C Motor Controller offers a compact solution for controlling three DC motors through an I²C interface. Multiple Motoron controllers can be connected to the same I²C bus, making it easy to expand a system with additional motors. The M3T453 supports motor supply voltages from 4.5 V to 44 V and can deliver continuous output currents up to 0.8 A per motor. This version has JST SH-style connectors for the I²C and motor connections and a soldered terminal block for the motor power connections.

This power module is based on the TI UCC33420 and provides regulated, galvanically isolated DC-to-DC power. The output voltage is set to 5 V by default and can be changed to 5.5 V through a selection pin. Power specs:

This breakout board for TI’s DRV8263H motor driver offers a wide operating voltage range of 4.5 V to 65 V and can deliver a continuous 3.5 A to a single bidirectional brushed DC motor. The DRV8263H also features integrated current sensing and regulation that limits the peak motor current to about 10 A by default, as well as built-in protection against under-voltage, over-current, and over-temperature. The carrier board adds protection against reverse voltage.

Note 1: At 42 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

Note 1: At 42 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

Note 1: At 42 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.
Note 2: Minimum input voltage is subject to dropout voltage considerations; see the dropout voltage section of product pages for more information.

This basic 2-channel relay carrier board makes it easy to incorporate two single-pole, double-throw (SPDT) “sugar cube”-style power relays into your electronics project. Integrated MOSFETs allows the relays to be controlled with low-current digital inputs, and indicator LEDs show when the relays are activated. The four control pins are accessible via a top-entry JST SH-style connector that works with our selection of 4-pin JST SH-style cables, and the switch pins are available for use with 5mm-pitch terminal blocks or 0.2″-spaced pins. Note: Relays not included.

The Pololu basic 2-channel relay carrier modules allow simple, independent control of two single-pole, double-throw (SPDT) switches from low-voltage, low-current control signals. This item includes the basic carrier PCB with two soldered-in 12 V relays, 5mm-pitch terminal blocks for the switch connections, and a top-entry JST SH-style connector for the control connections that works with our selection of 4-pin JST SH-style cables. The included power relays are Omron G5LE-14-DC12 and are rated for up to 10 A under most conditions.

This basic relay carrier board makes it easy to incorporate a single-pole, double-throw (SPDT) “sugar cube”-style power relay into your electronics project. An integrated MOSFET allows the relay to be controlled with a low-current digital input, and a pair of indicator LEDs show when the relay is activated. The three control pins are accessible via a top-entry JST SH-style connector that works with our selection of 3-pin JST SH-style cables, and the switch pins are available for use with 5mm-pitch terminal blocks or 0.2″-spaced pins. Note: Relay not included.

The Pololu basic relay carrier modules allow simple control of a single-pole, double-throw (SPDT) switch from low-voltage, low-current control signals. This item includes the basic carrier PCB with a soldered-in 5 V relay, 5mm-pitch terminal blocks for the switch connections, and a top-entry JST SH-style connector for the control connections that works with our selection of 3-pin JST SH-style cables. The included power relay is an Omron G5LE-14-DC5 and is rated for up to 10 A under most conditions.

This sensor uses an IR LED and a phototransistor to measure the light reflected from nearby surfaces. It operates from 2.9–5.5 V, with dimmable brightness control independent of the supply voltage. The optimal range is <5 mm, but it can detect high-reflectance objects out to around 80 mm. This version features a high-performance QTRXL sensor, with lenses and a high-brightness emitter for extra-long range, and a connector that works with our 4-pin JST SH-style cables (compatible with SparkFun’s Qwiic and Adafruit’s STEMMA QT cables, but the interface is not I²C).

This sensor uses an IR LED and a phototransistor to measure the light reflected from nearby surfaces. It operates from 2.9–5.5 V, with dimmable brightness control independent of the supply voltage. The optimal range is <5 mm, but it can detect high-reflectance objects out to around 80 mm. This version features a high-performance QTRXL sensor, with lenses and a high-brightness emitter for extra-long range, and a connector that works with our 4-pin JST SH-style cables (compatible with SparkFun’s Qwiic and Adafruit’s STEMMA QT cables, but the interface is not I²C).

This sensor uses an IR LED and a phototransistor to measure the light reflected from nearby surfaces. It operates from 2.9–5.5 V, with dimmable brightness control independent of the supply voltage. The optimal range is <5 mm, but it can detect high-reflectance objects out to around 30 mm. This version features a high-performance, low-current QTRX sensor with lenses and a connector that works with our 4-pin JST SH-style cables (compatible with SparkFun’s Qwiic and Adafruit’s STEMMA QT cables, but the interface is not I²C).

This sensor uses an IR LED and a phototransistor to measure the light reflected from nearby surfaces. It operates from 2.9–5.5 V, with dimmable brightness control independent of the supply voltage. The optimal range is <5 mm, but it can detect high-reflectance objects out to around 30 mm. This version features a high-performance, low-current QTRX sensor with lenses and a connector that works with our 4-pin JST SH-style cables (compatible with SparkFun’s Qwiic and Adafruit’s STEMMA QT cables, but the interface is not I²C).