Showing 10–18 of 34 results

DRIVER CARD, FOR EXIDE ,V GUARD,AMARON, WHIRLPOOL,KEVIN 850/650/1050

250.00
DRIVER CARD 850/650/1050VA USED FOR ALL TYPE OF BRANDED BOARD (EXIDE,V GUARD,AMARON,WHIRLPOOL,KEVIN KINDLY MENTION YOUR INVERTER CAPACITY IN THE ORDER....

DSP PURE SINEWAVE INVERTER BOARD BULL EG-200 1000W (Suitable for LUMINUS, EXIDE, MICROTECH inverters)

1,750.00
  *DSP BASED 32BIT MICRO CONTROLLER *ECONOMIC SERIES WITH MORE PROTECTION *SHUNT RESISTER IMPROVES SURGE CURRENT *COMPATABLE FOR LITHIUM IRON BATTERY *INTRODUCING USER DEFINED CHARGER MODE CALIBRATION *16X2 LCD WITH 6 LED LCD BACKLIGHT AUTO OFF IMPROVES LCD LIFE *HEAVY MOSFET OPTO COUPLER DRIVER *COMPACT IN SIZE (Suitable for LUMINUS, EXIDE, MICROTECH inverters)

ESP Prog – CP2102 Based ESP32

399.00
  • Size: 50mmx30mm
  • USB-C Type Interface: you can connect a USB in any direction. Use USB-A to USB-C Cable.
  • LEDs for Power, RX, TX
  • Switch for Reset and Boot
  • Both 3.3V and 5V are available on the O/P connector
  • All signals on a standard 2.54mm Pitch Header (Header will come along with the board (unsoldered))
  • USB-C Type Interface: A USB can be connected in any direction. Use a USB-A to USB-C cable.
  • LEDs for Power, RX, TX
  • Switch for Reset and Boot
  • Both 3.3V and 5V are available on the O/P connector
  • All signals on a standard 2.54mm Pitch Header (Header will come along with the board (unsoldered))
  • Compact size: 50mmx30mm
ESP Prog Pin-Out
  1. 3.3V DC (100mA Max.)
  2. TXD
  3. RXD
  4. GND
  5. Reset/RTS
  6. Boot/DTR
  7. GND
  8. 5V DC (500mA Max.)

ESP32 Capacitive Touch Sensor Pins with Arduino IDEDS

410.00
ESP32 is designed for mobile, wearable electronics, and Internet-of-Things (IoT) applications. It features all the state-of-the-art characteristics of low-power chips, including fine-grained clock gating, multiple power modes, and dynamic power scaling. For instance, in a low-power IoT sensor hub application scenario, ESP32 is woken up periodically only when a specified condition is detected. Low-duty cycle is used to minimize the amount of energy that the chip expends. The output of the power amplifier is also adjustable, thus contributing to an optimal trade-off between communication range, data rate and power consumption.