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RELAY Click board features two G6D1AASI-5DC power PCB relay modules as well as two screw terminals. It communicates with the target microcontroller via mikroBUS PWM (RL1) and CS (RL2) pins. A green LED diode indicates the presence of power supply. Controls up to 5A, 250V AC/30V DC loads. The board is designed to use a 5V power supply only, however communication lines voltage level can be in the range of 1.8V to 5V as on-board transistors are used to drive the relays by current sinking. |
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Relay 2 click carries two LCA717 single-pole, OptoMOS solid state relays and two screw terminals for connecting the wiring. These relays have a load current of 2A, low maximum on-resistance of just 0.15 Ohms, and a blocking Voltage of 30V. The LCA717 have optically coupled outputs that use the patented OptoMOS technology. Solid state relays enable fast, silent and bounce-free switching. Each relay is coupled with an onboard signal LED. The board is designed to use a 3.3V power supply only. |
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Relay click 3 is a dual relay Click board, featuring two single-pole double-throw relays which can be operated by output pins of the host microcontroller (MCU). It offers an elegant and easy solution for controlling a wide range of power applications. Two SRD-5VDC-SL-C relays used on this Click board™ are hermetically sealed relays which require 5V across their coils while consuming about 0.4W while active. They allow up to 28VDC across the connected load, while conducting up to 7A. Relay 3 click can be used in various PLC-based systems, as a remote ON/OFF switch, and other similar applications.
Relay click 3 is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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The Relay4 Board is a small-sized board with 4 Relays (each supports currents up to 16A). It also contains ULN2803 (high-current Darlington arrays) for driving relays and an IDC10 connector for easy connection with a development or prototype board (an IDC10 cable is included). |
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Signal Relay click can be used for ON/OFF control in various devices. It carries four ultra-small GV5-1 PCB relays from Omron and runs on a 5V power supply. Signal Relay click communicates with the target MCU over the following mikroBUS pins: AN, RST, CS and PWM. |
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FLICKER click toggles a relay on and off at time intervals which are adjustable with the on-board potentiometers. It is a simple solution if you need to turn a device on and off at specific time intervals, like blinking LED commercials, alarm system lights, or any other signalling lights. |
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STEPPER click is a stepper motor driver board in the mikroBUS form factor. It features the A3967SLBT microstepping motor driver, with a built-in translator for easily driving bipolar steper motors in full-, half-, quarter- and eighth-step modes with output drive capability of 30V and about ±500 mA. The package includes a standard B5B-XH-A connector (delivered unsoldered) for easily connecting your stepper motor. The motor can be powered from either the 5V mikroBus line, or from an external power supply (5-30V) using the provided screw terminal connector. The board can communicate with either 3.3V or 5V systems (selection by means of SMD jumper). An LED diode serves as a power indicator. |
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Stepper 2 click carries a A4988 microstepping motor driver along with screw terminals for connecting a motor and a required external power supply (minimum 7V). The output drive capacity of the motor is up to 35V and ±2A. The A4988 chip is designed to drive bipolar stepper motors in full-, half-, quarter-, eight-, and sixteenth-step modes. A set of three onboard jumpers (J1-J3) allow you to switch between the different stepping modes. The board communicates with the target MCU through EN, RST, SL, ST and DIR pins (corresponding to AN, RST, CS, PWM and INT pins of the default mikroBUS configuration). Stepper 2 click can use both a 3.3V and 5V power supply. |
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Stepper 3 click is a mikroBUS™ add-on board for driving unipolar stepper motors with precise controls (individual motor phases can be accessed separately).
The board carries a Texas Instruments ULN2003 High-Current Darlington transistor array for operating the motors.
Motors are connected through a 4-pin male connector on the top of the PCB. They can be driven by the click board's own power supply, or with an external power supply which can be brought through onboard screw terminals (up to 30V).
Stepper 3 click communicates with the target board MCU through mikroBUS™ PWM, AN, RST and CS pins (here used for individual motor phases, marked INA, INB, INC, IND).
The board is designed to use a 5V power supply only. |
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Stepper 4 click can be used for driving a stepper motor and controlling its step resolution, rotation direction, and time between the steps. It has output drive capability of 2A.
The click carries TB67S269FTG, a two-phase bipolar stepping motor driver from Toshiba. Stepper 4 click is designed to run on either 3.3V or 5V power supply. It communicates with the target microcontroller over the following pins on the mikroBUS™ line: AN, RST, CS, PWM, INT. |
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Stepper 5 click is the complete integrated bipolar step motor driver solution, rich with many features that allow silent operation and optimal working conditions for the connected motor. The specialized TM2208 IC driver from Trinamic company far exceeds the capabilities of similar step motor drivers that are commonly used. In order to achieve such outstanding performances with a wide range of various step motors, this device features several technologies: stealth Chop2™ - for silent motor operation; spreadCycle™ - highly dynamic, motor current control; microPlayer™ interpolation with 256 microsteps. |
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Stepper 6 click is the complete integrated bipolar step motor driver solution. It comes with the abundance of features that allow silent operation and optimal working conditions for the connected motor. A specialized integrated driver chip on this Click board™ far exceeds the capabilities of similar, commonly used step motor drivers. It comes in the package which also includes the mikroSDK™ software, and a library with all the functions. The Click board™ comes as a fully tested and approved prototype, making it a reliable device ready to use on the development board. Stepper 6 click is a perfect solution for any application that requires an efficient and reliable motor driver. It can be used in 3D printers, laser printers, laser engravers, video security cameras, factory automatization, robotics, and other similar applications. |
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Stepper 7 click is a bipolar step motor driver. It features an H-bridge bipolar step motor driver, which supports full and half step control modes. Stepper 7 click also carries a port expander so that the communication can be done with a minimal number of pins, through the mikroBUS™ SPI bus. Stepper 7 click offers thermal protection, integrated kickback voltage protection, it has a wide range of input voltage, protection against current shoot-through the H-Bridge and reasonably high current capability. These features make Stepper 7 click an ideal solution for driving motors in any application that demands a precise and safe step motor driver. |
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Stepper 13 Click is a bipolar step motor driver. It features an H-bridge bipolar step motor driver, which supports full-, half-, quarter-, or eighth-step modes. Stepper 13 click also carries a port expander so that the communication can be done with a minimal number of pins, through the mikroBUS™ I2C bus. This click board™ offers thermal protection, integrated kickback voltage protection, it has a wide range of input voltage, protection against current shoot-through the H-Bridge and high current capability. These features make Stepper 13 click an ideal solution for driving motors in any application that demands a precise and safe step motor driver.
Stepper 13 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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The Bipolar Stepper Motor Driver Board enables you to add stepper motor control to your applications. There is an on-board microstepping motor driver A3967SLB. The board supports Mixed, Fast and Slow Current-Decay Modes. |
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DC MOTOR click is a DC motor driver board in the mikroBUS form factor. It features the DRV8833RTY H-Bridge motor driver, 74HC4053 multiplexer and two screw terminals. The 74HC4053 IC is incorporated into the design so that the motor can be run using only the one PWM line available on the mikroBUS socket. DC MOTOR click communicates with the target board via SELECT1, SELECT2 and nSLEEP control lines; PWM input line and nFAULT feedback line. The board is designed to use either a 3.3V or 5V power supply. It can be powered from the mikroBUS socket, or externally through the CN2 screw terminals (3-10V). It is limited to a 0.9A driving current and has a 0.22R current sense resistor. The motor is connected to the CN1 screw terminal. |
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DC MOTOR 2 click carries the TB6593FNG driver IC for direct current motors. With two pairs of screw terminals (power supply and outputs), the click board can drive motors with voltages from 2.5 to 13V (output current of up to 1.2 amps with peaks up to 3.2 amps). The PWM signal drives the motor while the IN1 and IN2 pins provide binary direction signals that set the direction of the motor (clockwise or counter clockwise), or apply stop or short brake functions. Stop mode cuts off the power supply so the motor continues spinning until it runs out of momentum. Short break brings it to an abrupt stop. |
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DC MOTOR 3 click is a mikroBUS™ add-on board with a Toshiba TB6549FG full-bridge driver for direct current motors. The IC is capable of outputting currents of up to 3.5 A with 30V, making it suitable for high-power motors.
Two pairs of screw terminals are positioned on the top of the board. One is for bringing an external power supply; the other is for connecting a motor.
TB6549FG has four operating modes: clockwise, counter-clockwise, short brake and stop. The operating mode is configured through IN1 and IN2 pins. A separately controlled standby mode is also available.
For safety, the TB6549FG IC incorporates overcurrent protetciont and a thermal shutdown circuit.
The click communicates with the target MCU through the mikroBUS™ PWM pin, with additional functionality provided by IN1, IN2 and SLP pins (in place of default mikroBUS™ AN, RST and CS pins). Designed to use a 3.3 power supply only. |
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DC MOTOR 4 click is capable of driving motors with a supply voltage from 4.5V to 36V. It carries the MAX14870 motor driver from Maxim Integrated.
The click is designed to run on either 3.3V or 5V power supply. DC MOTOR 4 click communicates with the target MCU over the following pins on the mikroBUS™ line: PWM, AN, CS, and INT. |
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DC MOTOR 5 click carries the DRV8701 brushed DC motor gate driver from Texas Instruments.
The click is designed to run on an external power supply. It communicates with the target MCU over the following pins on the mikroBUS™ line: AN, RST, CS, PWM, and INT. |
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DC MOTOR 7 click is a dual brushed DC motor driving Click board™, featuring the advanced PWM chopper-type integrated DC motor driver, labeled as TB67H400AFTG. This IC can drive two brushed DC motors independently, using a wide range of supply voltages, while delivering reasonably high current to the connected DC motors. This is possible due to the low resistance of the integrated H-Bridges. In addition to being able to drive two independent DC motors, it can be used in a so-called large mode to drive a single motor, utilizing both bridges in parallel. This effectively doubles the amount of current it can deliver to the DC motor.
The Click board™ is supported by the mikroSDK compliant library, which includes functions that simplify software development. The Click board™ comes as a fully tested product, ready to be used on a system equipped with mikroBUS™.
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DC Motor 8 click is a DC motor driver. It can drive simple DC motors with brushes, providing them with a significant amount of current and voltage up to 40V. The click has one control input, that uses the PWM signal from the host MCU. It uses the half-bridge topology to regulate the speed of the motor rotation, employs advanced dead-time circuitry that monitors the output stage, providing maximum switching efficiency and features an advanced technique to avoid shoot-through currents.
Features, such as high-efficiency factor, low overall power consumptions and complete isolation of the output stage, enable this device to be used in various battery operated handheld tools, fans and in general - whenever a powerful and reliable DC motor driver is required. |
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DC Motor 9 Click is a brushed DC motor driver with the current limiting and current sensing. It is based on the DRV8871, an integrated H-Bridge driver IC, optimized for motor driving applications. It can be operated by two logic signals, allowing to drive the connected motor in two different ways: it can use fixed logic levels for the direction control, or it can be controlled by a PWM signal, offering an additional speed control option. The DRV8871 also contains a set of protection features, offering a very high level of reliability. Besides driving capabilities, DC Motor 9 click can also sense current consumption at its output.
DC Motor 9 Click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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DC Motor 10 Click is a brushed DC motor driver with the current limiting and current sensing. It is based on the TLE 6208-6 G, an Hex-Half-Bridge / Double Six-Driver IC, optimized for motor driving applications. It can be operated SPI communication interface, allowing to drive the connected motors in three different ways: it can be used as a free configurable as switch, half-bridge or H-bridge, offering an additional speed control and direction options. The TLE 6208-6 G also contains a set of protection features, offering a very high level of reliability. Besides driving capabilities, DC Motor 10 click can also sense current consumption at its output.
DC Motor 10 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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DC Motor 11 Click is a brushed DC motor driver with the current limiting and current sensing. It is based on the DRV8830, an integrated H-Bridge driver IC, optimized for motor driving applications. It can be operated by two logic signals, allowing to drive the connected motor in two different ways: it can use fixed logic levels for the direction control, or it can be controlled by a PWM signal, offering an additional speed control option. The DRV8830 also contains a set of protection features, offering a very high level of reliability. Besides driving capabilities, DC Motor 11 click can also sense current consumption at its output.
DC Motor 11 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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DC MOTOR 14 Click is a PWM chopper type brushed DC motor driver, labeled as TB67H450FNG. This IC includes one channel of motor output block, using a wide range of supply voltages, while delivering reasonably high current to the connected DC motors. Low ON-resistance MOSFETs and a PWM control help the TB67H450FNG exhibit lower heat generation thus efficient motor drive. Furthermore, the TB67H450FNG has two inputs, IN1 and IN2, which allow for selection of the four operation modes; forward (clockwise), reverse (counter-clockwise), short brake, and stop modes.
The Click board™ is supported by the mikroSDK compliant library, which includes functions that simplify software development. The Click board™ comes as a fully tested product, ready to be used on a system equipped with mikroBUS™.
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Fan click carries an EMC2301 controller for powering and regulating the operation of 5V four-wire fans, which are commonly utilized as coolers in computers and other electronics. The controller supports PWM speeds from 9.5Hz to 29 KHz, in four programmable frequency bands. The control algorithms and the clock inside the circuit allow you to regulate the RPM of a given fan with 1% accuracy in the 500-16k RPM range. The TACH pin gives feedback on the fan's operation. Fan click also incorporates detection of aging fans, and alert on fan stall (the fan driver even attempts to fix a stalled fan while sending the interrupt) These alerts are sent through the mikroBUS INT pin. Otherwise, Fan click communicates with the target MCU through an I2C interface. |
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Fan 2 click carries the MAX31760 precision fan-speed controller. It can measure temperature and adjust the fan speed to keep the temperature at the same level. Fan 2 click can also control two fans at the same time.
The click is designed to run on either 3.3V or 5V power supply. It communicates with the target microcontroller over I2C interface, with additional functionality provided by the following pins on the mikroBUS™ line: INT, AN, RST, CS. |
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A fan is a simple device that creates a flow within some fluid - such as the air, causing the heat accumulated in one section of the fluid to be moved away from the heat source, effectively cooling the affected area. The faster the fan rotates, the faster the fluid moves. This movement causes an audible noise which is one of the most obvious reasons why the fan speed control is needed, especially when the fan is used to cool down electronic components, such as the personal computer.
Fan 3 click is the perfect choice for speed control and it can operate in seven discrete speed steps. Unlike the PWM regulation which can sometimes cause the infamous coil whining effect on some types of fans, this click board outputs the selected voltage via the MIC29152 voltage regulator from Microchip, driven through the MIC74 - a serial to parallel I/O expander and a fan controller from the same company, keeping it constant at the output. Fan 3 click works with 12V to 25V on its input connector and can be used whenever a noiseless solution with a variable fan speed is needed, for example - cooling of electronic components with the minimal possible noise produced. |
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Fan 4 click is a very compact, two-wire fan driver. It utilizes an integrated 5V, DC, brushless-motor driver chip. Its output voltage regulation and current limiting capabilities allow the speed control for the two-wire DC brushless motors. The Click board™ uses the LTC1695 IC, which features an integrated 6-bit DAC. The DAC regulates the output voltage in the range from 0 to 4.92V. This IC also has some additional features, such as the maximum output current limiting, and thermal shutdown protection. There is also a startup boost timer which ensures reliable startup of the fan, connected to the output terminal. |
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The Fan 6 click is a Click board™ which features EMC2103, an SMBus compliant fan controller with up to up to 3 external and 1 internal temperature channels. The fan driver can be operated using two methods each with two modes. The methods include an RPM based Fan Speed Control Algorithm and a direct PWM drive setting. The modes include manually programming the desired settings or using the internal programmable temperature look-up table to select the desired setting based on measured temperature. And MIC2253 a high power-density, 1 MHz PWM DC/DC boost regulator which allows driving 12V fan.
The Fan 6 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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Brushless click carries Toshiba's TB6575FNG IC for driving 3-phase full-wave Brushless DC motors - which are ideal for powering flying drones. The click is able to safely drive external motors with up to 32V/2A.
The board features three pairs of onboard screw terminals. VBAT is for connecting an external 7-32V DC power supply. The other two are for connecting an external motor. |
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Brushless 2 click carries the DRV10964 BLDC motor controller with an integrated output stage. The click is designed to run on either 3.3V or 5V power supply. It communicates with the target microcontroller over the following pins on the mikroBUS™ line: AN, RST, CS, PWM, INT. |
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Brushless 3 click carries the DRV10983, a three-phase sensorless motor driver with integrated power MOSFETs. When an external power supply is applied, you can drive a brushless DC motor through the PWM pin, AN pin or I2C interface. It communicates with the target microcontroller over I2C interface, with the additional functionality provided by the following pins on the mikroBUS™ line: PWM, AN, INT, RST. |
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Brushless 4 click is a 3 phase sensorless BLDC motor driver, which features a 180° sinusoidal drive, providing high efficiency and low acoustic noise. This type of drivers inherently provides higher torque in general, compared to classical 120° BLDC motor drivers. Brushless 4 click allows a wide voltage range to be used for the power supply: from 2V, up to 14V. The Click board™ features a standard set of protection features: overvoltage protection, overtemperature protection, overcurrent limiting, but also some more specific protection features, such as the rotor lock-up protection and automatic restart function. |
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Brushless 5 click is a 3 phase sensorless BLDC motor controller, with a soft-switching feature for reduced motor noise and EMI, and precise BEMF motor sensing, which eliminates the need for Hall-sensors in motor applications. It can drive 5V-16V motors with up to 500 mA current. The motor driver allows speed control via the PWM signal from the host MCU. It also features an output pin for reading the speed of the motor. Delayed phase commutation ensures a reliable motor start, while the Lock Detect function prevents damage and overheating. |
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Brushless 6 click is designed to drive a three-phase sensorless, brushless motor, also known as the BLDC motor. The motor rotation is controlled by receiving driving commands via the incoming PWM signal. This click board fully controls the rotation of the BLDC motor by utilizing the onboard MCU ATmega8A, an 8-bit MCU from Microchip. The onboard MCU outputs are not adequate to power on the coils of the BLDC motor directly, so this MCU is used to control the power circuitry, instead. This circuit consists of 6 MOSFET transistors, used to switch the power from an external power source to the appropriate stator coils.
The advantages of the BLDC motors over the other types of DC motors are many. Thanks to their contactless design, BLDC motors last longer and because of the superior rotational speed and torque properties, BLDC motors are widely used for high-speed, lightweight applications such as the drive motors for drones, electronic cooling equipment, small house appliances, robotics and similar applications. The Brushless 6 click provides an easy and elegant solution for driving BLDC motors. |
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PWM Driver click can be used to control DC motors with loads of up to 10A, via the on-board Silicon Lab Si8711CC one-channel isolator. |
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Haptic click carries DRV2605, a Haptic Driver for ERM and LRA vibration motors (acronyms stand for Eccentric Rotating Mass and Linear Resonant Actuator, respectively). The DRV2605 IC integrates an extensive library with over 100 haptic effects. These include audio-to-vibe features, which generate vibrations from the lower frequency range of the audio input (licensed version of ToushSense 2200 effects from Immersion). The board also carries screw terminals for connecting said motors, as well as an audio interface (3.5mm jack). Haptic click communicates with the target MCU through mikroBUS I2C (SCL, SDA), EN (in place of CS) and PWM pins. The board is designed to use either a 3.3V or 5V power supply. |
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With the Buggy, you’ll be able to develop autonomus or semiautonomus robotic four-wheelers. Just plug in a clicker 2 or mikroMedia board into the driver’s seat (that’s the onboard clicker 2 / mikroMedia socket). Then tune it up, modify and repurpose it for any task — Buggy features three mikroBUS sockets; if you put a clicker 2 in the drivers’s seat, that’s five slots for various sensors and communication boards.
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The Eduardo two-wheeled robotic car is an educational platform for teaching and learning robotics and micro-electronics. The kit is supplied disassembled, so part of the education involves assembly of the vehicle. The kit features a chassis, independent DC motors for the left and right wheels, optical slotted disc sensors for detecting movement on each of the wheels, analogue infrared sensors for line-following, battery holder and an Arduino with motor shield to drive everything.
Please note that pricing is approximate and may be subject to MOQ. |
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The Eduardo robotic arm is an educational platform for teaching and learning robotics and micro-electronics. The kit is supplied disassembled, so part of the education involves assembly of the arm. The arm has 5 joints, powered by 6 servo motors, driven by an Arduino with motor shield.
Please note that pricing is approximate and may be subject to MOQ. |
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Vibro Motor click features a compact size Eccentric Rotating Mass (ERM) motor, labeled as C1026B002F. This type of motor is often used for haptic feedback on many small handheld devices, such as the cellphones, pagers, RFID scanners and similar devices. This motor contains a small eccentric weight on its rotor, so while rotating it also produces vibration effect. This kind of motors is sometimes referred to as coin motors, due to its shape.
Besides the vibration motor, the click is also equipped with the DMG3420U, a small MOSFET, which is used to drive the motor. The Vibro Motor click is an ideal solution for adding a simple, one pin driven haptic feedback on any design. |
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Vibro Motor 2 Click features a compact size Eccentric Rotating Mass (ERM) motor, labeled as Z4FC1B1301781 as well as DMG3420U MOSFET to drive the ERM motor, since the MCU itself cannot provide enough power for the motor driving. This type of motor is often used for haptic feedback on many small handheld devices, such as the cellphones, pagers, RFID scanners and similar devices. This motor contains a small eccentric weight on its rotor, so while rotating it also produces vibration effect. This kind of motors is sometimes referred to as coin motors, due to its shape.
Besides the vibration motor, the click is also equipped with the DMG3420U, a small MOSFET, which is used to drive the motor. The Vibro Motor 2 click is an ideal solution for adding a simple, one pin driven haptic feedback on any design.
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Hall Switch click is a magnetic field activated dual-relay Click board™. Hall Switch click has two high-quality relays, which are activated by the Hall-effect sensor: when the north pole magnetic field is introduced to the sensor, one of the relays will be activated; when the south pole magnetic field is introduced to the sensor, the other relay will be activated. Two high-quality compact relays allow switching of high voltages - up to 220V, so they can cut or establish a connection on the main side of the circuit. |
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STSPIN220 click is a stepper motor driver with the PWM current control and selectable microstepping up to 256 microsteps. It is based on the STSPIN220, a low voltage stepper motor driver from STSPIN2 series. It is optimized for battery-powered, low voltage motor driving applications, featuring the lowest standby current available on the market (max 80 nA). The STSPIN220 is a high-efficiency motor driver, featuring low ON resistance MOSFETs as the output stage, in a small 3x3mm QFN package. Its output stage implements the PWM current control with fixed OFF time, along with a full set of protection features. The device can be used with the step motor voltage ranging from 1.8V to 10V, and current up to 1.3A per bridge.
STSPIN220 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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STSPIN233 click is a complete solution for a 3-phase integrated motor driver, based on the STSPIN233, Low voltage 3-phase integrated motor driver. It is optimized for battery-powered, low voltage motor driving applications, featuring the lowest standby current available on the market (max 80 nA). The STSPIN233 is a high-efficiency motor driver, featuring low ON resistance MOSFETs as the output stage, and extremely low leakage current (max 1µA). Its output stage implements the PWM current control with fixed OFF time, along with a full set of protection features. The device can be used with the step motor voltage ranging from 1.8V to 10V, and current up to 1.3A per bridge.
STSPIN233 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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STSPIN250 click is a brushed DC motor driver with the current limiting and current sensing. It is based on the STSPIN250, a low voltage DC brushed motor driver. It is optimized for portable and low voltage applications, featuring the lowest standby current available on the market (max 80nA). Thanks to the low ON resistance of the MOSFETs used for its output stage, the STSPIN250 represents a highly efficient DC motor driver, with a very small (3x3mm QFN) form factor. The device implements a PWM current control with the fixed OFF time, along with a full set of protection features. STSPIN250 click can be used with the step motor voltage ranging from 1.8V to 10V, and current up to 2.6A.
STSPIN250 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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STSPIN820 click is a stepper motor driver with the PWM current control, selectable microstepping up to 256 microsteps, and a wide voltage range. It is based on the STSPIN820, a stepper motor driver from STSPIN8 series. Designed to be a bullet-proof solution for the new wave of demanding industrial applications, it integrates two full-bridges with low ON resistance, the control logic, and a full set of protection features, in a small 4x4mm QFN package. Its output stage implements the PWM current control with the fixed OFF time. The device can be used with the step motor voltage ranging from 7V up to 45V, and current up to 1.5A per bridge.
STSPIN820 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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Silent Step Click is the complete integrated bipolar step motor driver solution, rich with many features that allow extremely smooth and silent operation of the connected motor while being able to provide up to 2.5A peak motor current and withstand up to 46V supply voltage. The specialized TMC5130 IC driver from Trinamic Company far exceeds the capabilities of similar step motor drivers that are commonly used. Thereby, the Silent Step click is basically the “intelligence and power†between the main MCU, as a motion controller, and the two-phase stepper motor. The device achieves outstanding performance with a wide range of various step motors, thanks to several technologies featured, such as stallGuard2™, spreadCycle™, stealthChop™, microPlayer™ and many more.
Silent Step click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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Silent Step 3 Click is the complete integrated bipolar step motor driver solution, rich with many features that allow extremely smooth and silent operation of the connected motor while being able to provide up to 4A peak motor current and withstand up to 30V supply voltage. The specialized TMC2660 IC driver from Trinamic company far exceeds the capabilities of similar step motor drivers that are commonly used. Thereby, the Silent Step 3 click is basically the “intelligence and power†between the main MCU, as a motion controller, and the two-phase stepper motor. The device achieves outstanding performance with a wide range of various step motors, thanks to several technologies featured, such as stallGuard2™ - high precision sensorless motor load detection; spreadCycle™ - highly dynamic motor current control; microPlayer™ - microstep interpolation for increased smoothness with coarse step inputs, and many more.
Silent Step 3 click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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SolidSwitch Click is a compact add-on board that contains load switch devices. This board features the TPS22918, four single-channel load switches from Texas Instruments. Every switch includes an N-channel MOSFET that operates over an input voltage range up to 5.5V and can support a maximum continuous current of 2 A. The switches are controlled by an ON/OFF input, performed by MAX7323, an I2C configurable port expander capable of interfacing directly with low-voltage control signals. This Click board™ is suitable for industrial systems, set-top boxes, electronic point of scale, and various other applications.
SolidSwitch Click is supported by a mikroSDK compliant library, which includes functions that simplify software development. This Click board™ comes as a fully tested product, ready to be used on a system equipped with the mikroBUS™ socket.
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