The Bently Nevada 16710-17, also cataloged as the 16710 interconnect cable, operates as a dedicated armored signal conduit for accelerometer routing within Bently Nevada vibration‑monitoring networks.
Hardware Specifications
Parameter
Specification
Model
16710-17
Brand
Bently Nevada
Origin
Not specified
Weight
Not specified
Dimensions
Not specified
Operating Temp
-40 deg C to +85 deg C (typical)
Power Consumption
Not applicable (passive cable)
Core Performance Indicators
3‑conductor shielded 22 AWG armored cable, 17 ft length
Rotor‑Dynamics Signal Integrity & Gap‑Voltage Stability
The 16710‑17 maintains stable impedance and shield continuity required for accurate rotor‑dynamics measurements. When used with 330400 and 330425 accelerometers, the cable preserves the linearity of eddy‑current probe scaling and prevents drift in gap‑voltage validation paths. The stainless‑steel flexible armor suppresses cross‑talk and minimizes micro‑motion, ensuring vibration signals remain free of induced noise when routed near high‑energy machinery conductors.
Frequently Asked Questions
Q: Can the 16710‑17 be replaced while the monitoring rack is energized? A: Physical replacement is possible, but connected monitoring channels should be de‑energized to avoid unintended state changes or transient signal drops.
Q: Does cable length affect accelerometer calibration? A: Yes. Cable length influences total loop impedance. Only approved lengths should be used to maintain correct transducer scaling and signal fidelity.
Q: Are configuration changes required when swapping cable lengths? A: No firmware resides in the cable. Calibration parameters remain in the monitoring module.
Field Installation Guidelines
Maintain shield termination at the monitor end to ensure proper noise suppression.
Route the armored cable away from high‑current motor feeders to reduce induced interference.
Avoid sharp bends that may compromise conductor spacing or armor integrity.
Verify connector seating before energizing associated monitoring modules.
Secure the cable along its run to prevent mechanical strain and micro‑motion.
