Bently Nevada

Bently Nevada 330302-000-050-10-90-01-00 3300 High Temperature Probe

SKU 330302-000-050-10-90-01-00

In stock
  • 12-month warranty
  • Free returns within 30 days
  • Manufacturer: Bently Nevada

  • Product No.: 330302-000-050-10-90-01-00

  • Country of origin:United States

  • Product Type: Vibration Proximity Probes

  • Payment: T/T, Western Union

  • Weight: 320g

  • Shipping port: Xiamen

  • Warranty: 12 months

Description

Designed for continuous shaft vibration and axial position measurements in extreme thermal environments, the Bently Nevada 330302-000-050-10-90-01-00 serves as a highly robust transducer within the 3300 series machinery protection ecosystem. This proximity probe features a specialized hardline cable construction that isolates the sensitive coaxial connection from high-temperature zones. With its 0 mm unthreaded length, 50 mm overall case length, and 1.0-meter hardline section, the probe ensures physical stability and precise sensor-to-target gapping in tight turbine casings. The fully integrated system features a total length of 9.0 meters protected by durable stainless steel armor, providing seamless integration with compatible proximity transducer systems without requiring agency approvals.

Features

  • Extreme Thermal Performance: Engineered with a hardline cable section to withstand the demanding thermal profiles of gas and steam turbine casings.
  • Durable Mechanical Armor: Equipped with Option 01 stainless steel outer armor to protect the extension cable from mechanical shearing, abrasion, and routing stress.
  • Optimized Probe Case: Features a compact 50 mm case length with zero unthreaded length, allowing flush-mount or low-profile bracket configurations.
  • Extended Reach: Total system length of 9.0 meters simplifies routing from the high-temperature machine core to external connection junction boxes.
  • Interchangeable Design: Standard mechanical and electrical specifications ensure precise compatibility with Bently Nevada monitoring systems.

Applications

  • Continuous monitoring of steam turbine casing expansion and rotor vibration.
  • Axial position and radial vibration measurements near gas turbine exhaust frames.
  • Industrial machinery monitoring in process environments with ambient temperatures exceeding standard limits.
  • High-temperature fans, blowers, and turbocompressor bearing housings.

Technical Specifications

Parameter Specification
Manufacturer Bently Nevada
Model Number 330302-000-050-10-90-01-00
Product Line 3300 High Temperature Proximity Probe
Unthreaded Length 0 mm (000 Option)
Overall Case Length 50 mm (050 Option)
Hardline Length 1.0 meter / 3.3 feet (10 Option)
Total System Length 9.0 meters / 30 feet (90 Option)
Cable Protection Stainless Steel Armor (01 Option)
Agency Approval Not Required (00 Option)
Country of Origin U.S.A.
Shipping Weight (Calculated) 2.0 kg

Empirical Engineering Insights

Alternative Models & Compatibility

This high-temperature probe requires matching with specific high-temperature Proximitor sensors calibrated for the 3300 HT system. Standard 3300 XL 8mm Proximitor sensors may lack the exact compensation profile required for this high-temperature probe tip material, resulting in scale factor errors. Ensure the entire loop (probe, extension cable, and Proximitor) shares consistent system length parameters (9.0 meters).

Application Pitfalls & Engineering Notes

The 1.0-meter hardline cable transition section is semi-rigid. Mechanical fatigue can occur if this section is subjected to continuous, high-amplitude structural vibration without proper intermediate clamping. Additionally, because thermal expansion affects probe-tip-to-target distance, static mechanical gapping calculations must factor in the expansion coefficients of both the turbine housing and the probe assembly itself at full operating temperature.

Commissioning & Wiring Tips

Never bend the hardline portion of the probe to a radius of less than 50 mm. Sharp kinks will permanently change the characteristic impedance of the coaxial core, causing signal reflection and calibration invalidation. When joining the probe connector to the armored extension cable, apply self-fusing silicone tape over the junction to seal against moisture and high-humidity oil mist common in turbine enclosures.

Installation Guidelines

CRITICAL WARNING

Isolate, lock out, and de-energize the monitored machinery before starting the installation process. Ensure the casing surfaces and surrounding air have cooled to a safe handling threshold. High-temperature surfaces pose a severe thermal hazard, and mechanical rotation during installation can cause severe hardware damage or personal injury.

1

Carefully feed the probe tip through the mounting bracket, keeping the 1.0-meter hardline section straight to avoid structural strain or structural bending.

2

Thread the 50 mm probe case into the mount, adjusting the depth while checking clearance to prevent the probe face from contacting the target shaft.

3

Utilize a digital voltmeter connected to the corresponding Proximitor sensor's OUT terminal to monitor DC bias voltage, aiming for the specified mid-range voltage calibration point.

4

Secure the locking nut to lock the probe in place, then route the armored extension cable through protective industrial conduit to prevent physical wear.

FAQ

What is the maximum operating temperature limit for the hardline portion of this probe?

The hardline cable and probe tip are designed to withstand continuous high-temperature exposure up to 260 degC (500 degF), making them suitable for installation inside steam and gas turbine casings.

Can I route the armored extension cable without conduit?

While the stainless steel armor (Option 01) provides robust mechanical shielding against physical damage, routing through dedicated conduit is highly recommended to protect against chemical exposure and oil mist.

Does this probe require a specific Proximitor sensor for calibration?

Yes, this high-temperature probe must be paired with a Bently Nevada Proximitor sensor specifically calibrated for the high-temperature probe's unique material properties and electrical output curve.

View all FAQs →

Product Documentation

Technical Datasheet (PDF) Complete specifications and technical drawings.

Technical Datasheet

Bently Nevada 330302-000-050-10-90-01-00 3300 High Temperature Probe

Quantity
Shipping & Returns

Global Express Shipping

  • Standard Delivery: 4–6 business days via DHL, FedEx, and UPS.
  • Express Dispatch: Same-day dispatch for in-stock orders placed before 2:00 PM (GMT+8).
  • Worldwide Coverage: Serving over 150 countries.

Returns & Warranty

  • 30-Day Guarantee: Returns accepted for in-stock products in original, factory-sealed packaging.
  • 12-Month Warranty: Every industrial component is backed by our technical warranty.
Reviews
1 of 1
Only 3 item(s) left in stock
Quantity
View full details

Global Express Shipping

  • Standard Delivery: 4-6 Business Days via DHL, FedEx, and UPS.
  • Express Dispatch: Same-day dispatch for in-stock orders placed before 2:00 PM (GMT+8).
  • Worldwide Coverage: Serving over 150 countries, including rapid delivery to Saudi Arabia and UAE.

Returns & Warranty

  • 30-Day Guarantee: Returns accepted for in-stock products in original, factory-sealed packaging.
  • 12-Month Warranty: Every industrial component is backed by our professional technical warranty.

Orders are processed and delivered Monday-Friday (excluding public holidays).


For full eligibility, restocking fees, and international return details, please view our official Refund & Return Policy .

TECHNICAL SPECIFICATIONS

Country of origin
United States

Technical knowledge

First TwinCAT PLC Project on a Beckhoff IPC

Build and verify a first TwinCAT PLC project on a Beckhoff IPC. This checklist covers target selection, EtherCAT discovery, I/O mapping, safe activation, restart tests, and commissioning records.

Commissioning OPC UA in KEPServerEX: A Field Checklist

A practical commissioning sequence for KEPServerEX OPC UA connections: define data ownership, test tags locally, configure endpoint and certificate trust, limit access, then verify failure recovery...

Set a PLC Commissioning Laptop IP Without Losing Access

Commissioning an Ethernet-connected PLC often starts with the laptop, not the controller. Learn how to record existing settings, choose a temporary address, test connectivity, and restore the plant...

Designing Automation for Combustible Dust Hazards

Combustible dust controls require more than alarms. Learn how to map dust generation, select instrumentation, design interlocks, handle failed feedback, test safe states, and maintain the full...

Hairpin Stators: Benefits, Limits, and Inspection

Hairpin windings raise slot fill and support compact traction motors, but conductor geometry, AC losses, insulation damage, weld quality, and cooling determine whether the design meets its targets.

Using Ansible for Controlled SCADA Server Changes

Use Ansible to standardize SCADA server changes without expanding OT risk. This guide covers inventories, idempotent playbooks, staged testing, credentials, logging, and practical rollback controls.