| BENTLY NEVADA 3300 XL 8 mm | Overview Technical Application FAQ Contact |
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01 / ENGINEERED CONFIGURATION
Built around a defined system geometry
The ordering code establishes the mechanical reach, probe length, connector arrangement and approval option of this specific 3300 XL 8 mm probe. |
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2 mm
LINEAR RANGE
Approximately 0.25 to 2.3 mm from the target.
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−9 Vdc
RECOMMENDED GAP
Approximately 1.27 mm / 50 mils for radial vibration measurement.
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7.87
V/mm NOMINAL ISF
200 mV/mil nominal incremental scale factor.
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0–10 kHz
FREQUENCY RESPONSE
+0 / −3 dB with up to 305 m of field wiring.
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| Mechanical construction: PPS probe tip, AISI 303/304 stainless-steel probe case, 75 Ω triaxial FEP-insulated standard cable and flexible stainless-steel armor. Minimum cable bend radius is 25.4 mm. |
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03 / TRANSDUCER ARCHITECTURE
Probe → Extension → Proximitor → Monitor
The complete 3300 XL 8 mm arrangement uses the probe with the appropriate extension cable and Proximitor Sensor. The system output varies directly with the distance between the probe tip and conductive target, allowing static position and dynamic vibration measurements. |
CONFIGURATION NOTE
1.0 m probe configuration
For a one-meter system, the probe is used without an extension cable. Longer system arrangements require the probe and extension cable lengths to correspond with the selected Proximitor Sensor system length. TARGET MATERIAL
Standard system calibration uses AISI 4140 steel. |
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04 / MACHINE APPLICATION
Where this probe becomes critical
The 3300 XL 8 mm system is intended for machinery where shaft-to-bearing displacement, vibration, position or rotational reference must be continuously observed without physical contact. |
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| WHEN ENGINEERS SEARCH FOR THIS PART | Typical replacement situations include an unstable vibration channel, an abnormal shaft-position signal, physical damage to the armored lead, connector damage, probe wear or a failed sensing point that can no longer provide a reliable measurement to the machinery protection channel. |
| Why replacement can become time-critical: loss of a valid proximity signal can compromise the condition-monitoring channel used to observe a critical rotating machine. Depending on the protection architecture and alarm logic, an unresolved transducer fault may contribute to an unnecessary trip, loss of monitoring capability, or delayed detection of a developing mechanical problem. |
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10
100 mm
Unthreaded length
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15
150 mm
Overall case length
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10
1.0 m
Total probe length
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01
ClickLoc
Protector + standard cable
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05
CSA / ATEX / IECEx
Agency approval option
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06 / SERVICE
Supply built around urgent automation needs
Our operation focuses on making difficult automation-part sourcing more straightforward, with multilingual communication, order coordination and international logistics support. |
Delivery way: E-packing / FedEx / EMS / TNT / DHL / UPS
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We keep expanding our capabilities, strengthening our international service network and connecting customers with automation components wherever they operate.
Exclusive Multilingual Support Team
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Organized Warehouse & Order Coordination
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Long-Term Customer Cooperation
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We keep improving the automation parts supply experience.
From multilingual communication and customer relationship management to order tracking and worldwide logistics, our goal is to make every transaction more efficient and transparent.
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08 / REQUEST A QUOTE
Send the right details. Get a faster response.
For an efficient quotation, please provide the five details below. |
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01. Why does the exact suffix matter when replacing an existing 3300 XL probe?
The suffix defines the mechanical and connection configuration. For this part, the code specifies a 100 mm unthreaded length, 150 mm case length, 1.0 m probe, connector-protector configuration and CSA/ATEX/IECEx approval option. A similar-looking 3300 XL probe can therefore have a different installation geometry. |
02. If the vibration channel becomes unstable, should the probe be the first part replaced?
Not automatically. The probe, connector, extension cable where applicable, Proximitor Sensor, gap setting and monitor channel all form part of the measurement chain. A replacement decision should follow checks of the complete signal path rather than assuming every unstable reading originates at the probe. |
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03. Why is the recommended gap around 1.27 mm rather than simply placing the probe as close as possible?
The system has a defined 2 mm linear range, beginning at approximately 0.25 mm from the target. The recommended radial-vibration gap is about 1.27 mm, corresponding to approximately −9 Vdc, placing operation near the center of the specified linear region. |
04. When would the armored version be more relevant than an unarmored configuration?
Armor adds mechanical protection around the probe cable. That distinction becomes relevant where the cable route is exposed to physical handling or installation conditions that could place additional mechanical stress on the lead. |
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05. What could happen to a critical machine if this sensing point remains faulty?
The consequence depends on the protection architecture. A failed or unreliable proximity channel can remove dependable shaft-position or vibration monitoring, potentially affecting alarm or shutdown functions and reducing the ability to detect a developing mechanical condition. For high-criticality rotating equipment, restoring the measurement chain promptly is therefore important. |
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11 / AFTER DELIVERY
Return & Replacement
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12 / CONTACT
Need 330104-10-15-10-01-05?
Send the complete part number, quantity, destination, required date and machine/system for a faster quotation. |
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