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bently nevada 3300 xl 8 mm proximity probes 330103 07 18 10 02 00 ready for ship-0

Bently Nevada Cables

Home >  Products >  BENTLY NEVADA >  Bently Nevada Cables

Bently Nevada 3300 XL 8 mm Proximity Probes 330103-07-18-10-02-00 Ready For Ship

Product Name:3300 XL 8 mm Proximity Probes

Brand Name: BENTLY NEVADA

Model Number:330103-07-18-10-02-00

Country of Origin:USA

Warranty: 12 Months

Whatsapp:+86 18159889985

Email:[email protected]

Appurtenance:
  • Overview
  • Contact for quotation
  • Specifications
  • Description
  • Applications
  • Features
  • Functions
  • FAQ
  • Recommended Products

Overview

Brand Name:

BENTLY NEVADA

Model Number:

330103-07-18-10-02-00

Country of Origin:

USA

Packaging Details:

Original new Factory Sealed

Delivery Time:

Delivery time in stock

Payment Terms:

T/T

Contact for quotation

Sales Manager:

Stella

Send an email:

[email protected]

Contact in Whatsapp:

+86 18159889985

Specifications

Category

Specification

Manufacturer

Bently Nevada (Baker Hughes)

Base Model

330103 – 3300 XL 8 mm Proximity Probe, M10 × 1 metric thread, without armor

Unthreaded Length (Position A)

07 = 70 mm (2.76 in)

Overall Case Length (Position B)

18 = 180 mm (7.09 in)

Total Cable Length (Position C)

10 = 1.0 meter (3.3 feet)

Connector & Cable Type (Position D)

02 = Miniature coaxial ClickLoc connector, standard cable

Agency Approval (Position E)

00 = No hazardous area certification required

Probe Diameter

8 mm (0.31 in)

Tip Material

Polyphenylene sulfide (PPS)

Case Material

AISI 303 or 304 stainless steel

Thread Type

M10 × 1 (metric), maximum thread engagement 15 mm

Linear Range

2 mm (80 mils) from 0.25 mm to 2.3 mm (10–90 mils)

Output Voltage Range

Approximately –1 Vdc to –17 Vdc

Recommended Gap (Radial Vibration)

–9 Vdc [approximately 1.27 mm (50 mils)]

Incremental Scale Factor (ISF)

7.87 V/mm (200 mV/mil) ±5% (0°C to +45°C)

Deviation from Straight Line (DSL)

< ±0.025 mm (±1 mil) at 0°C to +45°C

Frequency Response

0 to 10 kHz, +0 dB, –3 dB

Standard Probe Temperature Range

–52°C to +177°C (–62°F to +350°F)

Storage Temperature (Probe)

–52°C to +177°C (–62°F to +350°F)

Cable Insulation

Standard FEP (Fluoroethylene Propylene)

Pressure Seal

Viton® O-ring

Minimum Target (Flat)

15.2 mm (0.6 in) diameter

Minimum Shaft Diameter

50.8 mm (2.0 in)

Recommended Minimum Shaft Diameter

76.2 mm (3.0 in)

Minimum Cable Bend Radius

25.4 mm (1.0 in)

Tensile Strength (Probe Case to Lead)

330 N (75 lbf)

Probe DC Resistance

7.59 Ω ± 0.50 Ω (1.0 m cable)

Supply Voltage Required

–17.5 Vdc to –26 Vdc

Output Resistance

50 Ω

Field Wiring

0.2 to 1.5 mm² (16 to 24 AWG), 3-conductor shielded triad, max 305 m (1,000 ft) to monitor

API Compliance

Fully compliant with API 670 Standard (4th Edition)

Cross-talk (minimum separation)

< 50 mV with ≥ 40 mm for axial, ≥ 38 mm for radial measurements

Weight (Probe)

323 g/m (11.4 oz per meter of cable)

Recommended Probe Torque

11.2 N·m (100 in·lbf)

Description

The Bently Nevada 330103-07-18-10-02-00 is a metric-threaded, non‑contact eddy‑current probe from the 3300 XL 8 mm series. With unthreaded length of 70 mm and case length of 180 mm, the 330103 configuration is specifically engineered for deep‑mount or large standoff applications where the probe tip must be positioned further from the mounting surface. The 330103-07-18-10-02-00 delivers an output voltage directly proportional to the distance between the probe tip and a conductive target, supporting both static position and dynamic vibration measurements in rotating machinery.

Applications

Steam and Gas Turbines – Radial vibration and axial thrust monitoring for fluid‑film bearing machines

Centrifugal and Reciprocating Compressors – Non‑contact shaft displacement and position measurement

Large Industrial Pumps – Bearing health assessment and early fault detection

Hydroelectric Generators – Shaft eccentricity and vibration monitoring

Keyphasor Reference Systems – Once‑per‑revolution timing for speed measurement and overspeed protection

Power Generation Plants – Continuous real‑time condition assessment and predictive maintenance

Refineries and Petrochemical Facilities – Critical asset protection in hazardous processing environments

Features

Ultra‑Compact Fully‑Threaded Body (0 mm Unthreaded, 7 mm Case) – Specifically designed for mounting locations where axial clearance is extremely limited; the 330103‑00‑07‑10‑02‑00 fits where standard probes cannot.

Eddy Current Non‑Contact Sensing – Outputs a voltage linearly proportional to distance, measuring both static (position) and dynamic (vibration) displacement.

API 670 Compliant – Full compliance with the American Petroleum Institute’s API 670 Standard (4th Edition) for mechanical configuration, linear range, accuracy, and temperature stability.

Fully Interchangeable Components – Any 3300 XL probe, extension cable, or Proximitor sensor is electrically and physically interchangeable, eliminating bench calibration and component matching.

Gold‑Plated ClickLoc Connector – Finger‑tight, corrosion‑resistant connector with an audible click and a locking mechanism that prevents loosening without special tools.

High Mechanical Robustness – Patented TipLoc and CableLoc designs provide 330 N (75 lbf) tensile strength between probe case and probe lead.

Excellent Environmental Resistance – PPS probe tip resists chemicals and moisture; Viton® O‑ring seals differential pressure between tip and case.

Superior EMI/RFI Immunity – Meets European CE mark approvals without requiring special shielded conduit or metallic housings, reducing installation complexity and cost.

Functions

Non‑Contact Radial Vibration Monitoring – Converts shaft displacement into an analog voltage for early detection of imbalance, misalignment, looseness, and bearing faults.

Axial (Thrust) Position Measurement – Tracks static shaft displacement in fluid‑film bearing machines to identify abnormal thrust loads or axial movement.

Keyphasor Reference Generation – Provides a once‑per‑revolution timing pulse for speed measurement, overspeed protection, and phase‑based diagnostics.

Dynamic Signal Output – Delivers peak‑to‑peak vibration displacement data for real‑time machinery protection systems.

Predictive Maintenance Integration – Interfaces with Bently Nevada 3500 racks, 1900/65 monitors, and Trendmaster® systems for continuous online condition assessment and root‑cause analysis.

FAQ

Q1: What is the key difference between this 330103‑00‑07‑10‑02‑00 and the 330103‑00‑08‑05‑02‑00?

A1: Both share the same M10 × 1 metric thread and no armor. The main differences are the overall case length (7 mm vs. 80 mm) and total cable length (1.0 m vs. 0.5 m). The 330103‑00‑07‑10‑02‑00 is a very short case variant for extremely tight mounting locations.

Q2: Does this probe require an extension cable?

A2: No. The total cable length is 1.0 meter (3.3 feet), which is a one‑meter system and does not require an extension cable. For longer runs, you must select a probe with a shorter integral cable (e.g., 0.5 m) and add a matching extension cable.

Q3: Why is the recommended gap setting –9 Vdc, and how do I achieve it?

A3: –9 Vdc corresponds to approximately 1.27 mm (50 mils) from the target, which is the center of the 2 mm linear range. To achieve this, power the system with –24 V, aim the probe tip at a clean AISI 4140 steel target, and adjust the physical gap until the output voltage reads –9 Vdc.

Q4: Can the 330103‑00‑07‑10‑02‑00 be used in hazardous areas?

A4: The suffix 00 in the agency‑approval position means this variant is not certified for hazardous locations. If ATEX, IECEx, or CSA certifications are required, order the same base probe with 05 in the final position (e.g., 330103‑00‑07‑10‑02‑05) and install the Proximitor sensor per Bently Nevada drawings 141092 (ia) or 140979 (nA/ec) with IP54 terminal protection.

Q5: How do I verify the probe is functioning correctly after installation?

A5: Use the 3300 XL test plug (part number 148722‑01 or 330180). Plug it into the test pin holes on the Proximitor sensor’s terminal strip while the field wiring remains connected. Measure the output voltage; it should correspond to the physical gap. Compare with the system’s known output‑vs‑distance curve to confirm integrity.

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