Shaft Relative Vibration A6110 Emerson

Emerson A6110 Shaft Relative Vibration Monitor for AMS 6500

Detailed Technical Specifications

• Brand: Emerson
• Model: A6110 Shaft Relative Vibration Monitor
• Transducer Inputs: Two channels; accepts differential eddy current sensor signals.
• Input Voltage Range: 0 to -22 VDC with >100 kΩ input resistance.
• Frequency Response: Lower cutoff at 1 or 5 Hz; Upper cutoff adjustable from 50 to 2000 Hz.
• Measuring Range: Continuously adjustable via software from 0-400 mV to 0-8000 mV.
• Sensor Power Supply: -26.7 VDC nominal, 20 mA nominal current, galvanically isolated.
• Outputs: Front/Rear buffered sensor signals, 0/4-20 mA and 0-10 VDC proportional outputs per channel.
• Alarm Setpoints: Independently adjustable Alert and Danger setpoints from 5-100% of scale.
• Environmental Rating: Operating temperature from 0° to 65°C (32° to 149°F).
• EMC & Vibration: Compliant with EN50081-1 / EN50082-2; resistant to shock and vibration per IEC standards.

Frequently Asked Questions (FAQ)

• Q: Is this monitor brand new and original?
  A: Yes, we supply only 100% brand new and original Emerson A6110 modules.
• Q: What sensors are compatible with the A6110 module?
  A: It is compatible with Emerson eddy current displacement sensors like PR6422, PR6423, PR6424, and PR6425 with their respective drivers.
• Q: What is the difference between independent and combined monitoring modes?
  A: In independent mode, each channel processes its signal separately (e.g., for X and Y directions). Combined mode uses both inputs to calculate a single maximum vector (Smax) value.
• Q: How fast are the alarm response times?
  A: Alert and Danger alarms have configurable delays from 0 to 5 seconds per channel, extendable to 36 seconds with a relay card.
• Q: Do you offer a return policy?
  A: Yes, we support a 30-day return policy for unused products in their original packaging.
• Q: What is the main output signal from this monitor?
  A: The module provides industry-standard 0/4-20 mA and 0-10 VDC outputs proportional to the vibration level for each channel.