MIKROE-1526 MikroElektronika

2. Soldering the headers Before using your click board, make sure to solder 1x8 male headers to both left and right side of the board. Two 1x8 male headers are included with the board in the package. 1 DC MOTOR click 2 3 4. Essential features 1. Introduction DC MOTOR click with its DRV8833RTY ICs is limited to a 0.9A driving current with 0.22 current sense resistor. The 74HC4053 IC is incorporated into the design in order to run the motor with only one PWM line available on the mikroBUS Turn the board upside down so that Turn the board upward again. Make sure socket. Use jumper J2 to select whether you the bottom side is facing you upwards. to align the headers so that they are want to power the board with the on-board Place shorter pins of the header into the perpendicular to the board, then solder the or external power supply connected to the appropriate soldering pads. pins carefully. CN2 screw terminal. The motor should be connected to the CN1 screw terminal. DC MOTOR click is a DC motor driver board in mikroBUS form factor. It features the 3. Plugging the board in DRV8833RTY H-Bridge motor driver, click 74HC4053 multiplexer and two screw Once you have soldered the headers your terminals. DC MOTOR click communicates board is ready to be placed into the desired BOARD with the target board via SELECT1, mikroBUS socket. Make sure to align the www.mikroe.com SELECT2 and nSLEEP control lines, PWM cut in the lower-right part of the board input line and nFAULT feedback line. The with the markings on the silkscreen at the DC Motor click Manual board is designed to use 3.3V or 5V power mikroBUS socket. If all the pins are aligned ver. 1.01 supplies. It has a GREEN power supply correctly, push the board all the way indicator LED and a RED LED that indicates into the socket. active nFAULT line (in case of short-circuit). 0 100000 025468 6. SMD Jumpers 5. DC MOTOR click Board Schematic There is a single SMD jumper (zero-ohm resistor) J1 which is used to select between VCC VCC VM VM VCC 3.3V or 5V power supplies. By default, its R4 C1 C2 2K2 J1A Q1 VCC C3 soldered in the 3.3V position. R3 R6 nFAULT BC856 VCC 10uF 100nF 100nF 47K 220 VCC VM VCC U1 U2 R7 R1 C4 nSLEEP PWM PWM1 1 16 10K 2K2 AN PWM 2Y1 VDD SELECT1 nFAULT PWM0 2 15 PWM RST INT 10nF 2Y0 2Z 7. Code Examples SELECT2 1 12 GPIOB 3 14 CS TX AISEN VINT 3Y1 1Z FAULT POWER OUT2 2 11 SELECT1 4 13 SCK RX AOUT2 GND 3Z 1Y1 3 GND 10 GPIOA 5 12 LD2 LD1 SCL BOUT2 VM 3Y0 1Y0 MISO 4 9 6 11 MOSI SDA BISEN VCP E S1 Once you have done all the necessary 7 10 SELECT2 +3.3V +5V VEE S2 8 9 GND GND GND S3 preparations, its time to get your click board R2 R5 C5 74HC4053 MIKROBUS DEVICE CONN. 0.22 0.22 DRV8833RTY 2.2uF up and running. We have provided examples VM for mikroC , mikroBasic and mikroPascal VCC-EXT VCC CN1 OUT2 compilers on our Libstock website. Just J2B OUT1 download them and you are ready to start. SCREW TERMINAL CN2 SCREW TERMINAL .com With two control lines SELECT1, SELECT2 and PWM input you can choose from the following driving options described in the table: SELECT1 SELECT2 PWM ROTATION SPEED BRAKE DECAY 8. Support 0 0 0-100% Forward MIN-MAX 0% PWM Fast MikroElektronika oers ff Free Tech Support 0 1 0-100% Reverse MIN-MAX 0% PWM Fast (www.mikroe.com/support/) until the end of the products lifetime, so if something 1 0 0-100% Reverse MAX-MIN 100% PWM Slow goes wrong, were ready and willing to help 1 1 0-100% Forward MAX-MIN 100% PWM Slow MikroElektronika assumes no responsibility or liability for any errors or inaccuracies that may appear in the present document. Specification and information contained in the present schematic are subject to change at any time without notice. Copyright 2014 MikroElektronika. All rights reserved. OUT1 5 16 OUT1 BOUT1 AOUT1 nFAULT 6 15 nSLEEP nFAULT nSLEEP GPIOB 7 14 PWM0 BIN1 AIN1 PWM1 8 13 GPIOA BIN2 AIN2 74HC4053