Optical Incremental Rotary Encoder 400 PPR, 5–24V

250,00 DH

Availability:

80 in stock

SKU: 0353 Categories: ,

Description

Optical Incremental Rotary Encoder 400 PPR, 5–24V

This compact optoelectronic incremental encoder provides 400 pulses per revolution (PPR) through two quadrature channels (A/B) and one index channel (Z). Its NPN open-collector outputs make it suitable for PLCs and microcontrollers. The encoder accepts a 5–24 V DC supply and has a sturdy Ø 6 mm shaft.

🔧 Technical specifications

  • Resolution: 400 PPR (1,440 A/B quadrature counts per revolution, as listed)
  • Channels: A and B (quadrature); Z index (1 pulse/revolution)
  • Output: NPN open collector, maximum 30 V, 50 mA
  • Supply: 5–24 V DC; typical current consumption 20 mA
  • Maximum frequency: 5 kHz recommended
  • Angular accuracy: 0.9°
  • Shaft: Ø 6 mm, 16 mm long, with flat
  • Housing: robust metal, Ø 38 × 18 mm thick
  • Mounting: three Ø 3.5 mm holes on a Ø 30 mm circle
  • Operating temperature: −10 °C to +70 °C
  • Ingress protection: IP50

💡 Typical applications

  • Speed and position measurement on spindles or motorized shafts
  • Servo-motor control and position feedback
  • Industrial automation, robotics, and CNC
  • Quadrature input for Arduino, PIC, STM32, and other microcontrollers
  • Control systems for lifts, conveyors, and pumps

🛠️ Pinout and connections

Pin Function Note
VCC +5–24 V DC Power; filter with a 0.1 µF / 50 V capacitor
GND Ground Common reference
A Channel A output (open collector) Use a 4.7–10 kΩ pull-up to VCC
B Channel B output Same pull-up recommendation
Z Index output (1 pulse/revolution) Same pull-up recommendation
  1. Connect VCC and GND to power the encoder.
  2. Connect A, B, and Z to inputs with internal or external pull-ups.
  3. Configure the MCU/PLC to detect rising or falling edges on A/B and use Z as the zero-reference index.
  4. Check the signals with an oscilloscope or logic analyzer: approximately 50% duty cycle and an ideal 90° phase offset between A and B.

Tip: For higher speeds, keep signal wires short and use shielding to reduce EMI interference.

Thank you for your loyalty!

EN