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Home › Incremental Encoder › POG10 D 1024 I HTL Feedback Solution

POG10 D 1024 I HTL Feedback Solution

EncoderWorks Team
4 monthsago

We developed a custom solution for the POG10 D 1024 I encoder, intended for heavy-duty drive systems where 1024 PPR HTL incremental feedback must stay stable under vibration, high temperature, terminal-box wiring, and EMC noise. This is a POG 10 D-output configuration, so it should be treated as K1 / K2 feedback only, not a DN version with K0 zero pulse.

Typical production lead time: 15 working days.

Model reading is direct:

  • D = K1, K2 output signals
  • 1024 = 1024 pulses per revolution
  • I = 9–30 VDC, HTL output with inverted signals
  • POG10 = Ø11 mm shaft, EURO flange B10, terminal-box heavy-duty encoder body

The main weak point is not optical sensing. In real installations, instability normally starts at counter input margin, terminal grounding, cable shielding, K1/K2 phase quality, or coupling torsion.

POG10 D 1024 I HTL Feedback Solution-EncoderWorks
POG10 D 1024 I HTL Feedback Solution-EncoderWorks

Where the System Fails First

At 1024 PPR, the pulse rate is already high enough to expose weak PLC or drive counter inputs. The encoder allows output frequency ≤120 kHz, but the system only remains reliable if the counter, shielding, and grounding preserve clean HTL edges. Once the terminal-box shield path becomes unstable, the counter may still see voltage transitions, but the edge timing is no longer trustworthy.

Typical failure points:

  • Counter input too slow → missed pulses
  • Poor terminal grounding → false HTL edges
  • Shield interruption → unstable speed feedback
  • Wrong K1/K2 phase interpretation → reversed direction
  • Rigid coupling → torsional shock into the Ø11 mm shaft

Because this is a D version, there is no K0 reference pulse in the output structure. Do not design it as an index-referencing encoder unless the system uses a separate home sensor or another reference method.

Mechanical Boundary

POG10 is built for heavier service than small incremental encoders: ≤300 N axial load, ≤450 N radial load, IP66 protection, 20 g vibration, and -40 °C to +100 °C operating temperature. These margins help, but they do not cancel poor alignment. In heavy drives, torsional vibration usually becomes a counting problem before it becomes visible bearing damage.

Installation Notes

  • Keep the model format as POG10 D 1024 I
  • Do not add K0 logic; D = K1 / K2 only
  • Confirm counter frequency at real RPM
  • Keep terminal-box grounding continuous
  • Separate encoder cable from inverter and motor power wiring
  • Verify K1 / K2 phase direction before startup
  • Use a flexible coupling suitable for Ø11 mm shaft
  • Do not write this as TTL, DN, or FSL unless the model explicitly shows it

Key Data

  • Model: POG10 D 1024 I
  • Type: Heavy-duty incremental encoder
  • Resolution: 1024 PPR
  • Output: HTL with inverted signals
  • Signals: K1, K2 + inverted
  • Supply voltage: 9–30 VDC
  • Output frequency: ≤120 kHz
  • Shaft: Ø11 mm stainless steel
  • Flange: EURO flange B10
  • Protection: IP66
  • Operating temperature: -40 °C to +100 °C
  • Optional temperature range: -50 °C to +100 °C
  • Shaft load: ≤300 N axial / ≤450 N radial
  • Vibration: 20 g, 10–2000 Hz
  • Shock: 200 g, 6 ms
  • Connection: Terminal box
  • Weight: Approx. 1.9 kg
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Industrial Encoder Technical Consultant

Contact Support

WeChat: +86 150 5045 0799 (WhatsApp)

Email: sividi360@outlook.com

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WeChat:+86 150 5045 0799 (WhatsApp)Email:sividi360@outlook.com