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Configured for high-frequency signal conditioning in vibration monitoring platforms, the Bently Nevada 330180-90-00 (330180 Proximitor Sensor) provides direct physical signal translation for non-contacting proximity probes.

Hardware Specifications

Parameter Specification
Model 330180-90-00
Brand Bently Nevada
Origin USA
Weight 0.246 kg
Dimensions Standard 3300 XL enclosure geometry
Operating Temp -51 deg C to +100 deg C
Power Consumption 12 mA maximum
Scaling Factor 7.87 mV/µm (200 mV/mil)

Eddy-Current Probe Scaling and Rotor Dynamics

The 330180-90-00 operates by delivering a radio-frequency signal to the proximity probe, which induces eddy currents in the monitored shaft. The resulting output voltage is proportional to the displacement of the shaft relative to the probe tip. To maintain system accuracy, gap voltage validation is performed to ensure a target of -10 VDC when the probe is set at the midpoint of its linear range. This process is necessary for capturing precise rotor dynamics, such as orbit data and shaft centerline position. Furthermore, cross-talk suppression is maintained by adhering to minimum installation spacing requirements between adjacent probes, preventing interference from overlapping electromagnetic carrier fields.

Frequently Asked Questions

Q: Can this sensor be used in a 5 metre system configuration?

A: No. The Proximitor Sensor is calibrated as a complete system including the probe and extension cable. The 9.0 metre system length must be maintained to ensure the integrity of the scale factor and system frequency response.

Q: Is the output of this sensor compatible with standard 3300 series monitor cards?

A: Yes, provided the monitor card is configured for the 7.87 mV/µm scale factor associated with 3300 XL systems.

Field Installation Guidelines

  1. Mount the Proximitor Sensor on a rigid, grounded metallic surface. Ensure the electrical path between the mounting base and the system common is low-impedance to maintain shield integrity.
  2. Ensure coaxial cable connectors are tightened to the specified torque. Over-tightening or loose connections can lead to impedance mismatches or signal noise.
  3. Keep coaxial cable runs physically separated from high-voltage AC or motor drive power cabling to mitigate electromagnetic interference.
  4. Verify the integrity of the cable shield termination at the monitor interface to prevent ground loops.
  5. Perform a gap voltage measurement at the monitor input terminals to confirm the sensor is operating within the linear range before finalizing mechanical probe positioning.

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