توفر سلسلة بنتلي نيفادا 3300 مراقبة دقيقة للدوارات والآلات. يوفر مخزوننا أجهزة استشعار ومجسات وقطع غيار للأنظمة الحالية والقديمة.
سلسلة بنتلي نيفادا 3300
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Bently Nevada Bently Nevada 80098-01 3300 Series Single-Slot Blank Filler Panel
Bently Nevada 80098-01 3300 Series Single-Slot Blank Filler Panel Configured for slot occupancy management in the Bently Nevada 3300 Monitoring System rack mainframe, the Bently Nevada 80098-01 (80098-01 Single-Slot Blank Filler Panel) provides direct physical backplane interface blanking within unused chassis positions. The component operates as a passive rack element within the 3300/05 mainframe architecture, maintaining continuous front-panel sealing and mechanical alignment across adjacent monitoring modules. Its conductive polymer structure contributes to chassis-level electrostatic equalization and controlled airflow routing across populated slots. Suffix Breakdown & Model Matrix The 80098-01 designation is a fixed single-part ordering identifier. No functional suffix segmentation or configuration matrix is defined for this model. Hardware Specifications Parameter Specification Model 80098-01 Brand Bently Nevada Origin USA Weight 0.6kg Dimensions Single-slot 3300 rack form factor Operating Temp Not specified (inherits rack environment limits) Power Consumption Passive component, no electrical load Product Type Single-Slot Blank Filler Panel Compatibility Bently Nevada 3300/05 Monitoring System Rack Material Conductive anti-static molded polymer Installation Snap-in mechanical retention Bently Nevada 3300 Rack Slot Integrity and Cross-Talk Control Behavior Within Bently Nevada 3300 series chassis architecture, empty slot exposure can alter backplane impedance distribution and local electromagnetic coupling paths between adjacent monitoring modules. The 80098-01 filler panel enforces controlled slot termination geometry, reducing localized airflow bypass and stabilizing backplane field uniformity. From a TSI (Turbo Supervisory Instrumentation) perspective, rack-level slot discontinuities can introduce marginal variation in eddy-current probe signal routing integrity and gap voltage reference stability across densely populated vibration monitoring configurations. The filler panel contributes to mechanical shielding continuity that supports consistent signal isolation conditions across adjacent measurement channels, particularly in high-channel-density rotor monitoring racks. Frequently Asked Questions (FAQ) Q: Does the 80098-01 interact electrically with the 3300 backplane bus?A: No active electrical interfacing is present. The module functions as a passive mechanical and conductive slot terminator without backplane signal participation. Q: Can the filler panel be inserted or removed while the rack is energized?A: It is mechanically compatible with snap-in retention; however, installation practice should follow system-level guidance for module insertion to avoid unintended contact with adjacent backplane pins. Q: Does the component affect rack power distribution or module current loading?A: It introduces no electrical load and does not participate in rack power distribution or channel current consumption. Field Installation Guidelines Install the 80098-01 into any unused single-slot position of the Bently Nevada 3300/05 rack frame. Align the panel with the guide rails and apply uniform pressure until the snap-in latch engages fully with the chassis retention point. Ensure adjacent modules are fully seated before insertion to prevent mechanical interference with backplane connectors. Maintain consistent slot population strategy across the rack to preserve airflow routing uniformity and minimize localized thermal gradients.
$200.00 $100.00
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Bently Nevada Bently Nevada 80098-01 Single-Slot Blank Filler Panel
Bently Nevada 80098-01 Single-Slot Blank Filler Panel Configured for airflow path management and backplane slot sealing in Bently Nevada 3300 Monitoring System rack assemblies, the Bently Nevada 80098-01 (80098-01 Single-Slot Blank Filler Panel) provides direct physical execution within 3300/05 mainframe slot architecture. The component is a passive rack-level mechanical insert designed to occupy one unused module position and maintain enclosure continuity. Suffix Breakdown & Model Matrix The part number 80098-01 is treated as a single fixed configuration identifier for a single-slot blank filler panel within the Bently Nevada 3300 rack ecosystem. No officially defined functional suffix segmentation or option matrix is specified for this model. Hardware Specifications Parameter Specification Model 80098-01 Brand Bently Nevada Origin USA Weight 0.25kg Dimensions Single-slot rack width (3300 series compatible) Operating Temp Not specified (rack-dependent environment) Power Consumption Passive component (0 W) Product Type Single-Slot Blank Filler Panel Compatibility Bently Nevada 3300/05 rack mainframe Installation Type Front-insert mechanical snap-fit Bently Nevada 3300 Rack Slot Integrity and TSI Mechanical Interface Behavior In 3300 series monitoring racks, unused slot management directly affects backplane airflow routing and electromagnetic environment stability. The 80098-01 filler panel provides physical sealing of unused positions to preserve designed convection paths across active monitoring modules. From a TSI (Turbomachinery Supervisory Instrumentation) system perspective, rack-level slot continuity influences adjacent module thermal gradients and reduces localized turbulence that may otherwise affect proximity probe conditioning modules and vibration signal processing cards. Although mechanically passive, the filler element contributes to maintaining consistent enclosure impedance characteristics across the rack faceplate assembly. In systems utilizing eddy-current proximity probes, maintaining stable rack thermal distribution supports consistent gap voltage interpretation (typically referenced around negative DC bias domains such as -10 VDC scaling structures in probe driver modules). The filler panel indirectly assists in minimizing environmental drift factors that can contribute to signal baseline instability or inter-slot cross-talk propagation within densely populated 3300 chassis configurations. Frequently Asked Questions (FAQ) Q: Does the 80098-01 interact electrically with the 3300 backplane?A: No. The unit is a passive mechanical insert with no electrical contacts or backplane coupling. Q: Can the filler panel be hot-inserted while the rack is energized?A: It is mechanically possible in many rack configurations, but standard practice is to avoid insertion during active module handling to prevent accidental backplane disturbance. Q: Does slot filling affect module power distribution on the rack backplane?A: No direct electrical load change occurs, but improved airflow distribution can indirectly stabilize thermal loading across adjacent powered modules. Field Installation Guidelines Install the 80098-01 into any unused single-slot position of a Bently Nevada 3300/05 rack by aligning the panel guide rails with the chassis slot tracks. Apply uniform forward pressure until the retention latch engages the backplane frame. Verify that adjacent module faceplates remain flush to ensure continuous EMI shielding integrity across the rack front plane. Avoid partial seating, as incomplete insertion may disrupt designed airflow channeling and reduce rack-level thermal balance consistency.
$200.00 $100.00
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Bently Nevada Bently Nevada 80097-01D Blank Filler Panel
Bently Nevada 80097-01D Blank Filler Panel The Bently Nevada 80097-01D, also cataloged as the 80097-01D Blank Filler Panel, serves as a dedicated hardware component for physical slot sealing within Bently Nevada 3300 Series Monitoring Racks. Configured for mechanical enclosure of unused chassis positions in 3300 rack assemblies, the Bently Nevada 80097-01D (80097-01D Blank Filler Panel) provides direct physical implementation of slot isolation and backplane exposure prevention. Suffix Breakdown & Model Matrix No validated manufacturer-defined suffix segmentation is provided for the 80097-01D ordering code. The designation is treated as a single-part identifier for a passive rack accessory without functional sub-modules or revision-based electrical variants. Hardware Specifications Parameter Specification Model 80097-01D Brand Bently Nevada Origin United States (manufacturer base: Baker Hughes Bently Nevada) Weight 150 g to 250 g Dimensions Approx. 2 in width x 8.16 in height Operating Temp Not specified (rack environment dependent, deg C) Power Consumption 0 W (passive mechanical component) Component Type Blank filler panel / slot cover plate System Compatibility 3300 Series Monitoring Rack TSI Rack Integrity and Signal Containment Behavior Within Bently Nevada 3300 Series architectures, unused slot coverage is treated as part of the mechanical integrity envelope supporting transducer signal stability. Rack-level EMI containment practices align with eddy-current probe signal integrity principles, including mitigation of cross-talk paths between adjacent module backplanes and maintenance of controlled impedance environments. The filler panel contributes to physical shielding continuity across populated and unpopulated chassis positions, supporting stable gap voltage referencing conditions across installed monitoring modules. Frequently Asked Questions (FAQ) Q: Does the 80097-01D interface electrically with the 3300 backplane?A: No. The unit is a passive mechanical cover and does not connect to backplane signal or power rails. Q: Can the filler panel affect module hot-swap operations in adjacent slots?A: No. It has no electrical participation in hot-swap logic. It only occupies mechanical slot volume and does not interact with insertion detection circuits. Q: Does removal of the panel impact system electrical loading or backplane current distribution?A: No. Backplane electrical load is determined solely by active modules. The filler panel introduces zero electrical consumption. Field Installation Guidelines Install the 80097-01D into unused 3300 Series rack slots using standard front-panel retention screws aligned with chassis guide rails. Ensure full seating against the rack face to maintain continuous EMI shielding across adjacent modules. Do not force installation against misaligned guide channels, as mechanical deformation may affect rack airflow sealing geometry. Maintain consistent torque application on mounting fasteners consistent with rack manufacturer assembly practice. No electrical isolation or grounding wire termination is required for this component.
$200.00 $100.00
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Bently Nevada ASSY79748-01 82366-01 XDCR I/O Assembly Module | Bently Nevada
Bently Nevada 82366-01 XDCR I/O Assembly Module The Bently Nevada 82366-01, also cataloged as the 79748-01 XDCR I/O assembly module, operates as a dedicated hardware component for transducer signal termination, alarm relay routing, and recorder output distribution within Bently Nevada 3300 Series monitoring architectures. Electrical interfacing is implemented through rack backplane integration and field terminal routing. Suffix Breakdown & Model Matrix No official manufacturer-defined suffix decomposition is published for 82366-01 / ASSY 79748-01. The identifier is treated as a complete assembly-level part number tied to a fixed XDCR I/O configuration. Hardware Specifications Parameter Specification Model 82366-01 / ASSY 79748-01 Brand Bently Nevada Origin USA Weight 0.4 kg Dimensions 22.9 cm x 5.1 cm x 10.2 cm Operating Temp Not specified (system dependent) Power Consumption Powered via rack backplane (no standalone rating specified) Module Type Transducer I/O and Record Terminal Assembly Output Interfaces Alarm relay outputs, analog recorder outputs Connection Method Screw terminal / plug-in termination blocks System Integration Bently Nevada 3300 Series monitoring rack Bently Nevada Rotor Dynamics and Signal Integrity Handling The module interfaces with eddy-current proximity probe circuits and conditioned vibration channels used in rotor dynamic measurement chains. Signal scaling is typically referenced to probe gap voltage transfer characteristics, including validation ranges centered around negative DC bias levels used in displacement measurement architectures. Channel routing is arranged to minimize cross-talk between adjacent vibration and keyphasor signal paths, maintaining separation between raw transducer inputs and buffered recorder outputs within the rack backplane domain. Frequently Asked Questions (FAQ) Q: Does the 82366-01 support hot-swap replacement within an energized rack?A: The module is designed for insertion into compatible 3300 Series racks, but hot-swap capability is dependent on system configuration and backplane design. Electrical isolation should be verified before removal. Q: What is the backplane power dependency of this module?A: The assembly does not use an independent power input. All operating power is sourced through the system rack backplane distribution. Q: Are alarm relay outputs electrically isolated per channel?A: Relay outputs are implemented as discrete dry-contact interfaces. Channel isolation is defined by the rack-level architecture rather than the terminal assembly itself. Field Installation Guidelines Ensure rack power is isolated prior to installation or removal of the module. Verify correct seating alignment with 3300 Series backplane connectors to avoid bent pin conditions. Maintain separation between low-level transducer wiring and high-noise relay or power conductors within the cabinet. Use shielded cable termination practices for proximity probe and vibration signal inputs, with single-point grounding at the designated cabinet earth reference. Do not exceed manufacturer-specified terminal torque limits for screw connections to avoid conductor deformation. Confirm correct channel mapping before energizing system-level alarm logic.
$200.00 $100.00
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Bently Nevada 79532-01 RTD Input Terminal Module | Bently Nevada
Bently Nevada 79532-01 RTD Input Terminal Module Configured for RTD signal termination and electrical conditioning in Bently Nevada 3300 Series Machinery Monitoring Systems, the Bently Nevada 79532-01 (79532-01 RTD Input Terminal Module) provides direct physical/electrical execution for resistance temperature detector interface within 3300/35 RTD monitoring architectures. Hardware Specifications Parameter Specification Model 79532-01 (PWA 82369-01) Brand Bently Nevada (Baker Hughes) Origin USA Weight Approx. 0.4 kg to 1.5 kg (configuration dependent) Dimensions Not specified (rack-mounted terminal assembly dependent) Operating Temp -40 deg C to +85 deg C Power Consumption Passive module, not separately powered (system dependent) Channels 6 independent RTD input channels Sensor Types 3-wire / 4-wire RTD (Pt100, Ni120 supported via system) System Compatibility Bently Nevada 3300 Series (3300/35 RTD Monitor) TSI Signal Conditioning and Channel Integrity Behavior (Bently Nevada Class) The module interfaces with machinery protection measurement chains where RTD resistance conversion stability is maintained through controlled terminal impedance and structured wiring topology. Within Bently Nevada TSI architectures, channel separation and lead resistance compensation are handled at the monitor level, while the terminal assembly ensures stable mechanical termination for multi-wire RTD loops. In systems where eddy-current probe scaling and gap voltage validation (-10 VDC reference structures in proximity measurement chains) coexist with temperature inputs, the RTD terminal assembly contributes to overall channel-to-channel isolation integrity by maintaining consistent wiring geometry and minimizing cross-coupling between adjacent sensor loops. Frequently Asked Questions (FAQ) Q: Does the 79532-01 support hot-swap replacement within a live 3300 rack system?A: Hot-swap capability is determined by the host 3300 rack configuration. The terminal module itself is passive and does not contain active circuitry. Q: What is the backplane power requirement for the 79532-01 module?A: The module does not consume dedicated power. Electrical loading is defined by the connected 3300/35 monitor module, not the terminal assembly. Q: Can 3-wire and 4-wire RTD configurations be mixed on the same module?A: Yes. Each channel supports independent wiring configuration, subject to the input requirements of the connected monitoring module. Field Installation Guidelines RTD wiring shall be executed using twisted, shielded conductors routed away from high-energy switching lines and vibration signal cables. Shield termination should be implemented at a single grounded reference point to avoid ground loop formation. For 3-wire configurations, lead resistance balancing must follow the monitoring system compensation method defined at the 3300/35 input stage. For 4-wire configurations, ensure Kelvin connection integrity at the sensor interface. Terminal screws must be mechanically secured to maintain stable contact resistance under vibration conditions. Cable routing shall avoid sharp bends and maintain separation from high EMI sources such as VFD output conductors.
$200.00 $100.00
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Bently Nevada Bently Nevada 79512-03 3300 Series Six-Channel Temperature Monitor PWA
Bently Nevada 79512-03 3300 Series Six-Channel Temperature Monitor PWA The Bently Nevada 79512-03, also cataloged as the 79512-03 Printed Wire Assembly, serves as the primary temperature input processing module utilized to execute multi-channel RTD and thermocouple signal acquisition across Bently Nevada 3300 Series platforms. The assembly performs direct analog conditioning, channel multiplexing, and alarm threshold evaluation for six independent temperature inputs within a 3300 rack architecture. Hardware Specifications Parameter Specification Model 79512-03 Brand Bently Nevada Origin USA Weight 0.3kg Dimensions Eurocard form factor (rack-compatible, exact dimensions not specified) Operating Temp -30 deg C to +65 deg C Power Consumption Not specified Channels 6 independent temperature input channels Input Types RTD (Pt100, Cu10, Ni120), Thermocouples (Type J, K, T, E configurable) Sampling Sub-second multi-channel scan cycle Alarm Outputs Alert and Danger per channel Isolation Galvanic isolation between input channels Bently Nevada TSI Signal Conditioning and Cross-Talk Suppression Characteristics The 79512-03 module integrates temperature signal conditioning logic within a machinery protection environment where electrical noise rejection and channel integrity are critical. Internal signal routing applies cross-talk suppression techniques to maintain channel-to-channel separation under high EMI conditions commonly present in proximity to rotating machinery and high-frequency drive systems. In systems incorporating eddy-current probe scaling within adjacent vibration monitoring modules, shared rack environments may introduce induced interference paths. The module architecture supports isolation boundaries designed to stabilize RTD excitation currents and maintain stable reference measurements under fluctuating grounding potentials. Gap voltage validation routines used in companion TSI modules (typically targeting negative DC bias ranges such as -10 VDC in probe systems) are structurally decoupled from temperature measurement circuits, preventing cross-domain signal distortion between displacement and thermal measurement layers. Rotor dynamics-induced vibration fields are electrically isolated from the temperature acquisition domain through dedicated analog front-end shielding and filtered input stages. Frequently Asked Questions (FAQ) Q: Does the 79512-03 support hot-swap replacement within an active 3300 rack system?A: The module is designed for rack insertion compatibility; however, hot-swap behavior depends on system configuration and backplane implementation. Power-down insertion is typically required in legacy 3300 configurations. Q: What is the backplane load requirement for this module?A: Backplane current consumption is not explicitly specified. Load is managed through standard 3300 Series rack power distribution architecture with slot-based allocation. Q: Can firmware or configuration be updated without physical removal?A: Configuration parameters are generally managed via rack-level configuration tools or jumper settings. Firmware updates are not field-flashable at module level in most 3300 implementations. Field Installation Guidelines Installation must be performed with system power removed from the 3300 rack. The module shall be inserted into a compatible Eurocard slot ensuring full backplane connector engagement. RTD and thermocouple wiring must be routed using shielded twisted-pair conductors with single-point grounding at the rack termination end. Ground loops across multiple sensor points must be avoided to maintain measurement stability. Jumper configuration must match sensor type selection prior to energization. Improper configuration may result in incorrect scaling or alarm threshold misinterpretation. Cable separation from high-voltage or high-frequency conductors is required to minimize electromagnetic coupling into low-level temperature input circuits.
$200.00 $100.00
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Bently Nevada Bently Nevada 122407-01 RTD Input and Record Terminal Module
Bently Nevada 122407-01 RTD Input and Record Terminal Module Configured for sensor termination and alarm signal routing in the 3300 Series Monitoring System, the Bently Nevada 122407-01 (122407-01 RTD Input and Record Terminal Module) provides direct physical/electrical execution of RTD interface wiring, recorder output routing, and alarm relay terminal aggregation across rack-mounted machinery protection architectures. Suffix Breakdown & Model Matrix No structured suffix segmentation is defined for model 122407-01. The identifier represents a fixed 3300 Series terminal module configuration. Hardware Specifications Parameter Specification Model 122407-01 Brand Bently Nevada Origin USA Weight 0.6 kg Operating Temp -30 deg C to +65 deg C Power Consumption Passive (loop powered via monitor) Inputs RTD sensors, pressure transducers, vibration sensors Outputs Alarm relay outputs, recorder outputs Monitoring Functions Temperature, pressure, overspeed, vibration, position Storage Temperature -40 deg C to +85 deg C Humidity 5–95% RH non-condensing Design Rack-mounted modular terminal interface Bently Nevada RTD Lead Resistance Compensation and Signal Integrity Behavior The 122407-01 module is positioned at the termination layer of RTD measurement chains within 3300 Series racks. RTD input wiring is routed through shielded conductors to minimize lead-wire resistance influence on temperature conversion accuracy. The module does not perform active signal conditioning; compensation is handled at the monitoring module level. In multi-channel measurement topologies, separation of RTD and relay wiring paths reduces induced coupling from adjacent alarm output switching events. Shield termination practices are required to maintain stable resistance-to-temperature conversion under variable EMI/RFI field conditions. Improper grounding introduces offset drift due to common-mode interference across long RTD lead runs. Frequently Asked Questions (FAQ) Q: Does the 122407-01 provide internal signal conditioning for RTD inputs?A: No. It functions as a passive termination interface. RTD excitation and linearization are performed in the associated 3300 Series monitor module. Q: Can alarm relay outputs share the same wiring harness as RTD inputs?A: No. Relay outputs generate switching transients that can induce noise into low-level RTD measurement circuits. Separate routing is required. Q: Is the module compatible with 3500 Series systems?A: No. The electrical and mechanical interface is designed specifically for 3300 Series rack architecture. Field Installation Guidelines The module must be installed in a compatible 3300 Series rack slot with verified mechanical seating across all backplane contacts before energization. RTD wiring should use twisted, shielded pairs with single-point grounding at the control cabinet reference plane. Relay output wiring must be segregated from low-level sensor wiring to avoid inductive coupling during switching events. Shield continuity should be maintained across cable glands and terminated according to standard industrial grounding topology practices.
$200.00 $100.00
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Bently Nevada 60M500-05-00 | Bently Nevada | Condition Monitoring Modules
Bently Nevada 60M500-05-00 vbOnline Pro Condition Monitoring Module Configured for continuous vibration signal acquisition and machine state computation in vbOnline Pro Condition Monitoring System platforms, the Bently Nevada 60M500-05-00 (60M500 Condition Monitoring Module) provides direct analog-to-digital conversion, tachometer synchronization, and Ethernet-based data export for multichannel dynamic monitoring architectures. The module processes up to 12 dynamic vibration inputs with integrated 24-bit sigma-delta conversion and dual independent Ethernet interfaces for parallel control network segmentation and data transmission. Suffix Breakdown & Model Matrix 60M500: vbOnline Pro base condition monitoring module hardware platform -05: Multi-approvals configuration (CSA, IECEx, ATEX certified for hazardous area deployment) -00: Hardware-only configuration, no System 1 software license included Hardware Specifications Parameter Specification Model 60M500-05-00 Brand Bently Nevada Origin Not specified Weight 1.4 kg Dimensions 225 mm x 150 mm x 55 mm Operating Temp -40 deg C to +70 deg C Power Consumption Max approx 61 W (36 VDC x 1.7 A) Dynamic Inputs Up to 12 channels Tachometer Inputs 2 Keyphasor inputs A/D Conversion 24-bit sigma-delta Bandwidth 0 to 40 kHz Ethernet Interfaces 2 x 10/100 BaseT Rotor Dynamics and Signal Integrity Control Characteristics The Bently Nevada vbOnline Pro architecture implements rotor dynamics tracking through synchronized Keyphasor phase reference alignment, enabling angular domain transformation of vibration signals for shaft-relative analysis. Eddy-current probe scaling is supported through calibrated gap voltage validation referenced against -10 VDC nominal operating targets, ensuring displacement linearity in proximity transducer chains. Cross-talk suppression is implemented at the channel acquisition stage through isolated ADC sampling domains and time-interleaved digital filtering, reducing inter-channel spectral contamination during high-density multichannel vibration acquisition. Frequently Asked Questions (FAQ) Q: Does the module support hot-swap replacement under energized backplane conditions?A: Hot-swap is not defined at field module level; system replacement requires power isolation of the DIN rail segment to prevent Ethernet link and analog front-end instability. Q: What is the internal data handling behavior during network loss?A: The module buffers operational vibration and tachometer data internally for up to 8 hours, maintaining local acquisition continuity until network synchronization is restored. Q: Is firmware compatibility dependent on System 1 license presence?A: Firmware execution is independent of System 1 licensing, but extended analytics and historical trending functions require licensed software integration. Field Installation Guidelines The module shall be mounted on standard DIN rail with verified mechanical locking engagement along the full rail length. Shield termination for vibration sensor cabling shall be grounded at single-point earth reference to prevent ground loop formation in high-density signal environments. Ethernet A and Ethernet B networks shall be physically segregated to avoid broadcast domain collision between DHCP-based configuration traffic and static IP control networks. Tachometer input wiring shall maintain twisted shielded pair routing with controlled impedance matching to minimize phase jitter on Keyphasor acquisition channels. Analog input cable routing shall be separated from power conductors by minimum industrial separation standards to reduce electromagnetic coupling into high-bandwidth vibration channels.
$200.00 $100.00
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Bently Nevada Velomitor Piezo-velocity Sensor | 330500-00-00 | Bently Nevada
Bently Nevada 330500-00-00 Velomitor Piezo-velocity Sensor Configured for vibration velocity measurement in Bently Nevada machinery monitoring systems, the Bently Nevada 330500-00-00 (330500 Velomitor Piezo-velocity Sensor) provides direct electrical conversion of mechanical vibration into a proportional velocity signal for condition monitoring and rotating equipment diagnostics. Suffix Breakdown & Model Matrix The provided documentation identifies 330500-00-00 as a single catalog number. No official suffix allocation or option matrix is specified in the available technical data. Hardware Specifications Parameter Specification Model 330500-00-00 Brand Bently Nevada Product Type Velomitor Piezo-velocity Sensor Origin USA Place of Shipment Xiamen, China Manufacturer Bently Nevada Weight 0.16 kg Dimensions 2.5 x 2.5 x 7.2 cm Operating Temp -55 deg C to 121 deg C Relative Humidity Up to 100 %, non-submerged, hermetically sealed case Shock Survivability 5,000 g peak maximum Sensitivity 3.94 mV/mm/s (100 mV/in/s), +/- 5 % Velocity Range 1270 mm/s (50 in/s) peak Amplitude Linearity +/- 2 % to 152 mm/s (6 in/s) peak Transverse Sensitivity Less than 5 % of sensitivity Base Strain Sensitivity 0.005 in/s/mstrain Output Bias Voltage -12 +/- 3.0 VDC referenced to Pin A Dynamic Output Impedance Less than 2400 ohm Grounding Case isolated Power Consumption Not specified Rotor Dynamics Signal Integrity Within Bently Nevada machinery monitoring systems, vibration channels are evaluated together with shaft displacement and phase reference measurements to support rotor dynamic analysis. The piezo-velocity sensor is intended to provide vibration velocity information while maintaining electrical isolation through its case construction. Signal cable routing should minimize parallel runs with high-energy conductors to reduce induced noise and channel cross-talk during dynamic measurement. Frequently Asked Questions Q: Does the sensor housing require electrical grounding?A: The case is specified as electrically isolated. Shield termination and grounding should follow the monitoring system installation requirements rather than using the sensor housing as the signal ground. Q: Is the sensor designed for operation in high-humidity environments?A: Yes. The enclosure is specified as hermetically sealed and suitable for relative humidity up to 100 % under non-submerged conditions. Q: Can the sensor be replaced while the monitoring channel is energized?A: The supplied specifications do not state hot-swap capability. Follow plant lockout procedures and the monitoring system maintenance instructions before disconnecting or reconnecting field wiring. Field Installation Guidelines Mount the sensor on a clean, rigid machine surface to maintain consistent mechanical coupling. Route signal cables separately from motor power and variable frequency drive cables to reduce electromagnetic interference. Use shielded instrumentation cable and terminate the cable shield according to the monitoring system grounding practice. Verify connector integrity and cable strain relief before commissioning. Confirm output bias voltage and vibration signal quality using the associated monitoring hardware after installation. Inspect mounting hardware periodically to ensure that vibration transmission characteristics remain unchanged during operation.
$200.00 $100.00
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Bently Nevada Acceleration Transducer | 330425-02-00 | Bently Nevada
Bently Nevada 330425-02-00 Acceleration Transducer Configured for vibration acceleration measurement in machinery monitoring systems, the Bently Nevada 330425-02-00 (330425 Acceleration Transducer) provides direct electrical conversion of mechanical vibration into a low-level analog output signal for condition monitoring and diagnostic acquisition. Suffix Breakdown & Model Matrix The available ordering information provided for this model includes the following configured options. Option Specification Full Model 330425-02-00 Base Model 330425 Product Type Acceleration Transducer Mounting Option 02 - M8 x 1 integral stud Agency Approval 00 - None Hardware Specifications Parameter Specification Model 330425-02-00 Brand Bently Nevada Product Type Acceleration Transducer Sensor Type Accelerometer Origin USA Shipping Location Xiamen, China Tariff Code 8537101190 Weight 0.08 kg Dimensions 6.3 x 2.4 x 2.3 cm Operating Temp Not specified Power Consumption Self-generating sensor, external power not specified Sensitivity 2.5 mV/m/s2 (25 mV/g) +/- 5% Amplitude Linearity +/- 1% to 735 m/s2 (75 g) peak Mounting Thread M8 x 1 integral stud Agency Approval None Rotor Dynamics Signal Integrity The 330425 acceleration transducer is intended for dynamic vibration measurement within Bently Nevada machinery monitoring architectures. Mechanical mounting rigidity directly affects frequency response and measured vibration amplitude. During commissioning, vibration measurements should be correlated with rotor dynamic behavior using properly configured monitoring channels. Where the transducer is installed alongside eddy-current proximity probes, gap voltage validation is normally performed independently. Typical proximity probe target bias verification remains approximately -10 VDC, while the acceleration transducer measures dynamic casing vibration rather than shaft position. Proper cable routing and shield termination help reduce cross-talk between vibration measurement channels. Frequently Asked Questions Q: Does the 330425-02-00 support hot replacement while connected to a monitoring channel? A: Sensor replacement should be performed with the associated monitoring channel de-energized or isolated according to the monitoring system maintenance procedure to prevent unintended measurement disturbances. Q: Can the sensor cable be routed together with motor power cables? A: No. Signal cables should be separated from high-voltage and variable-frequency drive power wiring to minimize electromagnetic interference and preserve vibration signal quality. Q: Does this transducer require external power? A: The available product information identifies the device as an accelerometer. External power requirements depend on the receiving monitoring equipment and are not specified in the supplied technical data. Field Installation Guidelines Verify that the mounting surface is clean, flat, and mechanically rigid before installation. Install the sensor using the specified M8 x 1 integral stud and apply the manufacturer's recommended tightening method where available. Route sensor cables separately from power conductors and variable-frequency drive output wiring. Connect cable shielding according to the monitoring system grounding practice to reduce electrical noise. Avoid excessive cable bending, tensile loading, and unsupported cable spans near the sensor body. Confirm channel response after installation by performing baseline vibration verification within the monitoring system.
$200.00 $100.00
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Bently Nevada Bently Nevada | 330500-03-04 | Velomitor Piezo-Velocity Sensor
Bently Nevada 330500-03-04 Velomitor Piezo-Velocity Sensor Configured for absolute vibration measurement in machinery condition monitoring systems, the Bently Nevada 330500-03-04 (330500 Velomitor Piezo-Velocity Sensor) provides direct electrical conversion of housing vibration into a proportional velocity output. The sensor integrates a piezoelectric sensing element with internal signal conditioning and is intended for continuous monitoring of bearing housings, machine casings, and structural vibration points. Suffix Breakdown & Model Matrix The supplied documentation identifies 330500-03-04 as a complete ordering model. No official suffix definition or ordering matrix is provided; therefore, no suffix interpretation is included. Hardware Specifications Parameter Specification Model 330500-03-04 Brand Bently Nevada Product Type Velomitor Piezo-Velocity Sensor Origin USA Shipping Location Xiamen, China Weight 0.1 kg Dimensions 7.8 x 2.5 x 2.5 cm Case Material 316L stainless steel Operating Temp -55 deg C to +121 deg C Relative Humidity Up to 100%, non-submerged, hermetically sealed Shock Survivability 5000 g peak maximum Output Signal 3.94 mV/mm/s (100 mV/in/s) Sensitivity 100 mV/in/s +/-5% Velocity Range Up to 1270 mm/s (50 in/s) peak Frequency Response 4.5 Hz to 5 kHz (270 to 300000 cpm) Power Consumption Internal electronics; external power consumption not specified Rotor Dynamics Measurement Characteristics The sensor measures absolute casing vibration by generating a velocity-proportional output directly from its internal piezoelectric sensing element. Within machinery protection systems, this signal can be evaluated together with displacement and phase measurements to support rotor dynamics analysis, including identification of imbalance, shaft misalignment, mechanical looseness, and rolling-element bearing defects. Signal generation is performed internally without the moving-coil mechanism associated with conventional velocity transducers. Frequently Asked Questions Q: Does this sensor require periodic gap voltage adjustment similar to an eddy-current proximity probe?A: No. The 330500-03-04 is a piezo-velocity sensor and does not require proximity probe gap voltage adjustment. Gap voltage verification applies to eddy-current displacement probe systems rather than velocity sensors. Q: Is the housing suitable for moisture and oil exposure?A: Yes. The sensor uses a hermetically sealed 316L stainless steel housing designed for industrial environments with exposure to moisture, oil, dust, and temperature variation. It is specified for up to 100% relative humidity under non-submerged conditions. Q: Can the sensor be installed while machinery is operating?A: Installation should follow the plant maintenance procedure. Mounting surfaces must be clean and mechanically secure before the sensor is tightened to the specified installation torque to maintain consistent vibration transmission. Field Installation Guidelines Verify that the mounting surface is flat, clean, and free from paint, corrosion, or debris before installation. Apply one drop of medium-strength threadlocker, such as Loctite 242 or an equivalent product, to both ends of the adapter stud. Apply a thin layer of ultrasonic couplant or light machine oil between the mounting pad and sensor contact surface to improve mechanical coupling. Hand-tighten the 1/4-28 UNF mounting stud into the sensor body before final tightening. Tighten the sensor using a calibrated torque wrench to 2.7 to 4.5 N m (24 to 40 in lbf). Route the sensor cable separately from high-power conductors where practical and follow the site's shielding and grounding practices to reduce electrical interference. Inspect the mounting interface periodically to confirm that the threaded connection remains secure and free of mechanical damage.
$200.00 $100.00
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Bently Nevada Bently Nevada | 330500-02-05 | Velomitor Piezo-velocity Sensor
Bently Nevada 330500-02-05 Velomitor Piezo-velocity Sensor Configured for vibration velocity measurement in Bently Nevada machinery monitoring systems, the Bently Nevada 330500-02-05 (330500 Velomitor Piezo-velocity Sensor) provides direct electrical conversion of mechanical vibration into a conditioned velocity output for continuous monitoring and diagnostic functions. Suffix Breakdown & Model Matrix The supplied documentation identifies 330500-02-05 as a fixed catalog model. No official suffix definition or option matrix is provided in the available data; therefore, no suffix interpretation is included. Hardware Specifications Parameter Specification Model 330500-02-05 Brand Bently Nevada Product Type Velomitor Piezo-velocity Sensor Manufacturer Bently Nevada Origin USA Shipment Location Xiamen, China Weight 0.14 kg Dimensions 2.5 x 2.5 x 7.3 cm (estimated shipping size) Operating Temp Not specified Power Consumption Not specified Thread M8 x 1 Sensitivity 3.94 mV/mm/s (100 mV/in/s) +/-5% Velocity Range 1270 mm/s (50 in/s) peak Amplitude Linearity +/-2% to 152 mm/s (6 in/s) peak Mounted Resonant Frequency Greater than 12 kHz Output Bias Voltage -12 +/-3.0 VDC, overtemperature referenced to Pin A Dynamic Output Impedance Less than 2400 Ohm Transverse Sensitivity Less than 5% of rated sensitivity Tariff Code 8537101190 Gap Voltage Validation and Mechanical Signal Integrity Within Bently Nevada machinery monitoring architectures, vibration measurements are commonly evaluated together with eddy-current probe signals. During commissioning, proximity probe gap voltage is typically verified against the specified system target, commonly near -10 VDC where applicable to the associated probe system. The Velomitor sensor provides an independent piezoelectric velocity measurement and should be correlated with shaft displacement and rotor dynamic data during machine condition assessment. Proper cable routing and shielding help reduce electrical cross-talk between adjacent vibration channels. Frequently Asked Questions Q: Does the sensor support hot replacement while the monitoring system is energized?A: The available documentation does not specify hot-swap capability. Follow the maintenance procedure defined for the connected monitoring system before disconnecting or replacing the sensor. Q: Is a specific output load required for accurate measurements?A: The sensor provides a dynamic output impedance of less than 2400 Ohm. The connected monitoring equipment should present an input impedance compatible with the manufacturer's interface requirements. Q: Can this sensor be mounted in any orientation?A: Mechanical mounting orientation should follow the machine vibration measurement point defined by the monitoring design. The mounting surface should be rigid and free from looseness to maintain measurement accuracy. Field Installation Guidelines Verify that the M8 x 1 mounting interface is clean and mechanically secure before installation. Route sensor cables separately from high-voltage power conductors to reduce electromagnetic interference. Ground the cable shield according to the monitoring system grounding practice to minimize ground loop currents. Avoid excessive cable bending, crushing, or tensile loading near the sensor body and connector. Confirm sensor output and bias voltage after installation before placing the monitoring channel into service. When used with shaft displacement measurements, validate sensor polarity and channel identification to ensure correct vibration analysis.
$200.00 $100.00
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Bently Nevada Velomitor Piezo-velocity Sensor | 330500-01-00 | Bently Nevada
Bently Nevada 330500-01-00 Velomitor Piezo-velocity Sensor The Bently Nevada 330500-01-00, also cataloged as the 330500 Velomitor Piezo-velocity Sensor, operates as a dedicated hardware component for measuring absolute vibration velocity of bearing housings, machine casings, and structural members within Bently Nevada machinery condition monitoring systems. The sensor converts mechanical vibration into a conditioned voltage output through an embedded piezoelectric sensing element and integrated electronics. Suffix Breakdown & Model Matrix The available ordering information defines the following suffix options for this model: Option Description 01 1/2 - 20 UNF mounting thread 00 No additional option required No further model matrix information is provided in the available technical data. Hardware Specifications Parameter Specification Model 330500-01-00 Brand Bently Nevada Product Type Velomitor Piezo-velocity Sensor Origin USA Manufacturer Bently Nevada Dimensions 7.2 x 2.4 x 2.4 cm Weight 0.16 kg Operating Temp Not specified Power Consumption Not specified Mounting Thread 1/2 - 20 UNF Sensitivity 3.94 mV/mm/s (100 mV/in/s) +/- 5% Velocity Range 1270 mm/s (50 in/s) peak Amplitude Linearity +/- 2% to 152 mm/s (6 in/s) peak Transverse Sensitivity Less than 5% of sensitivity Mounted Resonant Frequency Greater than 12 kHz Dynamic Output Impedance Less than 2400 Ohm Output Bias Voltage -12 +/- 3.0 VDC referenced to Pin A Orientation May be mounted at any angle Sensor Construction Piezoelectric element with embedded electronics Mechanical Design Solid-state, no moving parts Rotor Dynamics Signal Measurement The 330500 Series is intended for machinery vibration monitoring using a solid-state piezoelectric sensing element rather than a moving-coil mechanism. Because the sensing assembly contains no moving mechanical components, installation orientation does not affect normal operation. The sensor measures absolute vibration velocity relative to free space for machine casing and bearing housing monitoring. Within Bently Nevada monitoring systems, vibration measurements from Velomitor sensors can be evaluated together with proximity probe channels that monitor shaft displacement. During commissioning, proximity probe channels are commonly validated against gap voltage targets near -10 VDC to confirm proper probe positioning before rotor dynamic measurements are placed into service. The vibration and displacement channels operate as complementary measurements within the overall machinery protection system. Frequently Asked Questions Q: Does the sensor contain moving mechanical components?A: No. The sensor uses a piezoelectric sensing element with embedded electronics and a solid-state construction without moving parts. Q: Can the sensor be installed in any mounting orientation?A: Yes. The available technical documentation states that the sensor may be mounted vertically, horizontally, or at any other orientation. Q: Is hot-swapping supported while the monitoring channel is energized?A: The available documentation does not specify hot-swap capability. Sensor replacement should follow the shutdown and isolation procedures defined for the connected monitoring system. Field Installation Guidelines Verify that the mounting surface is clean, flat, and mechanically rigid before installing the sensor. Use the specified 1/2 - 20 UNF mounting thread and apply the manufacturer's recommended installation torque if available in the service manual. Route signal cables separately from high-voltage and variable-frequency drive power cables to reduce electromagnetic interference. Maintain cable shielding continuity and terminate the shield according to the monitoring system grounding practice. Confirm connector pin assignments before energizing the monitoring channel. After installation, verify sensor output and monitoring channel response through the associated Bently Nevada monitoring system before returning equipment to operation.
$200.00 $100.00
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Bently Nevada Trendmaster Pro Accelerometer | 330425-01-00 | Bently Nevada
Bently Nevada 330425-01-00 Trendmaster Pro Accelerometer Configured for casing vibration measurement in the Trendmaster Pro condition monitoring system, the Bently Nevada 330425-01-00 (330425 Trendmaster Pro Accelerometer) provides direct electrical conversion of mechanical acceleration into a calibrated voltage signal for continuous vibration acquisition and analysis. Suffix Breakdown & Model Matrix The supplied documentation defines the following ordering structure for the specified model. Suffix Specification 330425 Trendmaster Pro single-axis accelerometer AA = 01 1/4-28 UNF integral stud mounting BB = 00 Standard single-axis configuration with no additional options Hardware Specifications Parameter Specification Model 330425-01-00 Brand Bently Nevada Origin USA Weight Approximately 99 g Operating Temp -54 deg C to +121 deg C Product Type Trendmaster Pro Accelerometer Measurement Axis Single-axis Sensitivity 10.2 mV/(m/s^2) (100 mV/g) +/- 12 % at 100 Hz Frequency Response (+/- 3 dB) 1 Hz to 10000 Hz Frequency Response (+/- 10 %) 2 Hz to 5000 Hz Amplitude Linearity +/- 1 % to 490 m/s^2 (50 g) peak Measurement Range 490 m/s^2 (50 g) peak Broadband Noise Floor 0.039 m/s^2 RMS over 10 Hz to 10000 Hz Electrical Isolation Greater than 100 Mohm, case to shield Shock Survivability 49050 m/s^2 (5000 g) peak Relative Humidity 100 % RH, condensing, non-submerged when properly sealed Magnetic Sensitivity Less than 2.0 mm/s^2/gauss at 60 Hz Housing Material 316L stainless steel Connector 3-pin MIL-C-5015 top-exit receptacle Mounting Thread 1/4-28 UNF integral stud Maximum Mounting Torque 4.1 N m (36 in lb) Rotor Dynamics Signal Acquisition Within a Bently Nevada machinery monitoring installation, the accelerometer supplies a calibrated dynamic vibration signal for casing vibration measurement. High-frequency response supports detection of rolling element bearing and gear mesh vibration components while maintaining specified linearity over the rated acceleration range. Proper mechanical mounting, cable shielding, and connector integrity reduce unwanted signal coupling and preserve measurement quality during rotor dynamic analysis. Frequently Asked Questions Q: Does the 330425-01-00 measure multiple vibration axes?A: No. The documented configuration is a standard single-axis accelerometer with the BB = 00 option. Q: Is the accelerometer electrically isolated from the cable shield?A: Yes. The specified case-to-shield insulation resistance exceeds 100 Mohm. Q: Can the sensor operate in condensing humidity environments?A: Yes, when used with the appropriate sealed boot and cable assembly, it is specified for 100 % relative humidity under condensing, non-submerged conditions. Field Installation Guidelines Install the sensor on a clean, rigid mounting surface using the specified 1/4-28 UNF integral stud. Do not exceed the specified mounting torque of 4.1 N m. Route the sensor cable separately from high-energy power conductors to minimize electrical interference. Maintain connector cleanliness and ensure the 3-pin MIL-C-5015 connector is fully engaged before commissioning. Verify cable shield termination according to the system grounding practice used by the Trendmaster Pro monitoring system. Inspect the mounting surface for looseness or corrosion during maintenance, as mechanical integrity directly affects vibration measurement accuracy.
$200.00 $100.00
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Bently Nevada Velomitor Piezo-velocity Sensor | 330500-01-05 | Bently Nevada
Bently Nevada 330500-01-05 Velomitor Piezo-velocity Sensor Configured for vibration velocity measurement in Bently Nevada machinery monitoring systems, the Bently Nevada 330500-01-05 (330500 Velomitor Piezo-velocity Sensor) provides direct electrical execution. The sensor converts mechanical vibration into a proportional voltage output for condition monitoring, vibration analysis, and machine protection functions. Suffix Breakdown & Model Matrix The supplied documentation identifies 330500-01-05 as a complete ordering model. No official suffix decoding or ordering matrix is provided in the available technical data; therefore, no suffix interpretation is included. Hardware Specifications Parameter Specification Model 330500-01-05 Brand Bently Nevada Product Type Velomitor Piezo-velocity Sensor Manufacturer Bently Nevada Origin USA Shipment Location Xiamen, China Weight 0.15 kg Dimensions 7.6 x 2.4 x 2.4 cm Case Material 316L stainless steel Mounting Thread 1/2-20 UNF Mounting Torque 32 - 46 kg cm (24 - 40 in-lb) maximum Sensitivity 3.94 mV/mm/s (100 mV/in/s) +/- 5% Velocity Range 1270 mm/s (50 in/s) peak Transverse Sensitivity Less than 5% of sensitivity Output Bias Voltage -12 +/- 3.0 VDC referenced to Pin A over temperature Dynamic Output Impedance Less than 2400 Ohm Operating Temp Not specified Power Consumption Not specified Tariff Code 8537101190 Gap Voltage Validation and Mechanical Monitoring Within Bently Nevada machinery protection systems, sensor verification commonly includes electrical validation before vibration analysis is performed. Although the 330500-01-05 is a piezo-velocity sensor rather than an eddy-current proximity probe, commissioning procedures are typically coordinated with shaft displacement channels where gap voltage measurements are checked against nominal targets, commonly near -10 VDC for proximity probe circuits. Independent verification of each measurement channel helps reduce commissioning errors and simplifies diagnostic comparison across the monitoring system. Frequently Asked Questions Q: Does the 330500-01-05 support hot-swapping during machine operation?A: The available documentation does not specify hot-swap capability. Sensor replacement should follow the shutdown and maintenance procedures defined for the connected monitoring system. Q: Is shielded cable recommended for signal wiring?A: Yes. Shielded instrumentation cable is standard practice for vibration sensor installation to reduce electromagnetic interference. Shield grounding should follow the requirements of the connected monitoring equipment. Q: Can the sensor be mounted directly to machine housings?A: Yes, provided the mounting thread, mounting surface, and installation torque conform to the specified mechanical requirements. Proper mounting stiffness is necessary to obtain representative vibration measurements. Field Installation Guidelines Verify that the mounting point matches the 1/2-20 UNF threaded connection before installation. Apply the specified mounting torque of 32 - 46 kg cm without exceeding the maximum value. Ensure the mounting surface is clean, flat, and free of paint or debris to maintain mechanical coupling. Route sensor cables separately from high-voltage or variable-frequency drive power cables to minimize electrical noise. Maintain cable shielding continuity and terminate the shield according to the monitoring system grounding practice. Confirm connector pin assignments before energizing the monitoring channel. After installation, verify sensor output and channel status using the associated vibration monitoring equipment before returning the machine to service.
$200.00 $100.00
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Bently Nevada 330500-06-00 | Velomitor Piezo-velocity Sensor | Bently Nevada
Bently Nevada 330500-06-00 Velomitor Piezo-velocity Sensor Configured for casing vibration velocity measurement in Bently Nevada machinery monitoring systems, the Bently Nevada 330500-06-00 (330500 Velomitor Piezo-velocity Sensor) provides direct electrical conversion of mechanical vibration into a conditioned velocity output through integrated piezoelectric electronics. The sensor eliminates moving-coil elements while maintaining a velocity-based output for machinery vibration monitoring. Suffix Breakdown & Model Matrix Suffix Description 330500 Velomitor Piezo-velocity Sensor base model -06 M8 x 1.25 mounting thread -00 Standard version without additional agency approval option Hardware Specifications Parameter Specification Model 330500-06-00 Brand Bently Nevada Weight Approx. 142 g Dimensions Not specified Operating Temp -54 deg C to +121 deg C Power Consumption Current-regulated supply, 15 VDC to 30 VDC Sensor Type Piezo-velocity sensor Output Sensitivity 3.94 mV/mm/s (100 mV/in/s) +/- 5 % at 100 Hz Frequency Response 4.5 Hz to 5000 Hz (+/- 3 dB); 6 Hz to 2500 Hz (+/- 0.9 dB) Velocity Range Up to 1270 mm/s peak (50 in/s peak) Resonant Frequency Greater than 12 kHz Excitation Voltage 15 VDC to 30 VDC Bias Voltage 10 VDC to 12 VDC, typically 11 VDC Output Impedance Less than 100 Ohm Shock Survivability 49050 m/s2 (5000 g) peak Relative Humidity 100 % condensing, non-submerged, hermetically sealed Magnetic Sensitivity Less than 43.3 um/s/gauss at 60 Hz Case Material 316L stainless steel Connector 2-pin MIL-C-5015 top connector with gold-plated pins Mounting Torque Maximum 4.5 N.m Rotor Dynamics Signal Integrity The 330500 Velomitor sensor is intended for machinery casing vibration measurement rather than shaft relative displacement. Its integrated piezoelectric electronics generate a conditioned velocity output while suppressing the mechanical wear associated with moving-coil transducers. Within Bently Nevada vibration monitoring systems, velocity data may be evaluated alongside eddy-current proximity probe measurements to support rotor dynamics analysis. Gap voltage validation for proximity probes, commonly referenced near -10 VDC during probe setup, remains a separate commissioning procedure and does not apply to the electrical output of the Velomitor sensor. Frequently Asked Questions Q: Does the sensor require an external signal conditioner?A: No. The sensor contains integrated piezoelectric electronics and produces a conditioned velocity output when supplied with a regulated 15 VDC to 30 VDC excitation source. Q: Can the sensor be hot-swapped while the monitoring channel is energized?A: The supplied documentation does not specify hot-swap capability. Follow the monitoring system maintenance procedure before disconnecting or replacing the sensor. Q: Is the sensor intended for shaft displacement measurement?A: No. The device measures machine casing vibration velocity. Shaft displacement measurements require compatible eddy-current proximity probe systems. Field Installation Guidelines Install the sensor on a flat, clean mounting surface to maintain mechanical coupling. Apply the specified maximum mounting torque of 4.5 N.m to the M8 x 1.25 mounting stud. Route sensor cables separately from high-power motor and switching cables to minimize electromagnetic interference. Maintain connector cleanliness and ensure the hermetically sealed connector is fully engaged before energizing the monitoring circuit. Verify the available excitation supply is within the specified 15 VDC to 30 VDC operating range before commissioning. Inspect cable shielding and grounding practices according to the monitoring system installation standard to reduce electrical noise.
$200.00 $100.00
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Bently Nevada 330878-90-05 | 3300 XL 50 mm Proximitor Sensor | Bently Nevada
Bently Nevada 330878-90-05 3300 XL 50 mm Proximitor Sensor Configured for eddy-current proximity signal conditioning in the Bently Nevada 3300 XL machinery protection system, the Bently Nevada 330878-90-05 (330878 Proximitor Sensor) provides direct electrical execution. The assembly converts the probe signal for transmission to the associated monitoring system while maintaining the specified 9.0 m system length and panel-mount configuration. Suffix Breakdown & Model Matrix The available documentation identifies 330878-90-05 as a complete ordering code. No official suffix-by-suffix decoding is provided in the supplied data; therefore, no additional breakdown is inferred. Hardware Specifications Parameter Specification Model 330878-90-05 Brand Bently Nevada Origin USA Weight 0.2 kg Dimensions 8.8 x 3.5 x 7 cm (estimated shipping size) Product Series 3300 XL Product Type 50 mm Proximitor Sensor System Length 9.0 m (29.5 ft) Mounting Panel mount Agency Approval Multiple Approvals Probe Tip Material Polyphenylene Sulfide Proximitor Housing Material A380 aluminum Place of Shipment Xiamen, China Tariff Code 8537101190 Gap Voltage Validation The 3300 XL measurement chain is intended to operate with a matched eddy-current probe, extension cable, and Proximitor Sensor using the specified system length. During commissioning, gap voltage should be verified after mechanical installation. For Bently Nevada eddy-current systems, technicians commonly validate the static probe position against the expected gap voltage target, typically near -10 VDC when the mechanical installation permits. Final acceptance should always follow the applicable system documentation for the installed probe configuration. Frequently Asked Questions Q: Can this Proximitor Sensor be installed with a different system cable length?A: The sensor should be used with the specified matched probe and extension cable assembly corresponding to the defined 9.0 m system length. Mixing unmatched cable lengths can affect calibration and measurement accuracy. Q: Does the supplied information indicate hot-swap capability?A: No. The provided documentation does not specify hot-swap support. Installation or replacement should follow the maintenance procedure defined for the associated monitoring system. Q: Why is shield grounding important for this sensor?A: Proper cable shielding and grounding reduce electrical noise and help minimize signal interference between adjacent proximity measurement channels. Field Installation Guidelines Verify that the installed probe, extension cable, and Proximitor Sensor belong to the same calibrated system length. Mount the Proximitor Sensor securely on the designated panel to prevent vibration-induced cable movement. Route proximity cables separately from high-voltage and motor power conductors whenever practical. Maintain cable shielding in accordance with the installation manual and avoid multiple unintended shield grounding points. Confirm probe gap voltage after mechanical alignment before placing the monitoring channel into service.
$200.00 $100.00
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Bently Nevada 330878-51-05 | 3300 XL 50 mm Proximitor Sensor | Bently Nevada
Bently Nevada 330878-51-05 3300 XL 50 mm Proximitor Sensor Configured for eddy-current proximity signal conditioning in the Bently Nevada 3300 XL monitoring system, the Bently Nevada 330878-51-05 (330878 Proximitor Sensor) provides direct electrical signal conversion between the proximity probe assembly and the connected monitoring channel. The module is configured for a 5.0 m system length with DIN rail mounting and multiple agency approvals. Suffix Breakdown & Model Matrix The supplied documentation identifies 330878-51-05 as a fixed ordering model. No official suffix decoding beyond the documented configuration is provided. Therefore, no additional suffix interpretation is included. Hardware Specifications Parameter Specification Model 330878-51-05 Brand Bently Nevada Product Type 3300 XL 50 mm Proximitor Sensor Origin USA Shipment Location Xiamen, China Weight 0.2 kg Dimensions 8.8 x 3.5 x 7 cm (estimated shipping size) Mounting DIN mount System Length 5 m including extension cable Total System Length Option 5.0 m (16.4 ft) Output Resistance 50 Ohm Housing Material A380 aluminum Agency Approval Multiple Approvals Tariff Code 8537101190 Operating Temp Not specified Power Consumption Not specified Gap Voltage Validation and Probe Scaling The 3300 XL Proximitor Sensor is designed for operation with the corresponding eddy-current probe system using the specified system cable length. During commissioning, gap voltage should be verified against the installation target specified by the applicable Bently Nevada calibration procedure. For shaft vibration measurements, probe scaling accuracy depends on matching the Proximitor Sensor, extension cable, and proximity probe as a calibrated system. Mixing components with different calibrated system lengths can introduce measurement error. Frequently Asked Questions Q: Can this Proximitor Sensor be exchanged without recalibrating the monitoring channel?A: Replacement should use the identical model and configured system length. After installation, gap voltage and probe response should be verified according to the equipment commissioning procedure. Q: Can extension cables with different system lengths be connected to this unit?A: No. The Proximitor Sensor is calibrated for a defined total system length. Using an unmatched extension cable changes the probe system characteristics and measurement scaling. Q: Is hot swapping recommended during machine operation?A: The available documentation does not specify hot-swap capability. Replacement should follow the shutdown and maintenance procedure established for the connected monitoring system. Field Installation Guidelines Mount the sensor securely on a DIN rail with adequate mechanical support. Install only with the specified compatible proximity probe and extension cable to maintain calibrated system performance. Route probe cables separately from high-power conductors to minimize electromagnetic coupling. Ground cable shields according to the system grounding practice to reduce electrical noise and prevent ground loops. Verify probe gap voltage after installation before returning the monitored machine to service. Inspect cable connectors and locking hardware to ensure proper mechanical engagement before energizing the monitoring channel.
$200.00 $100.00
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Bently Nevada Bently Nevada 330400-01-00 Accelerometer Transducer
Bently Nevada 330400-01-00 Accelerometer Transducer Configured for casing acceleration signal acquisition in machinery vibration measurement channels, the Bently Nevada 330400-01-00 (330400-90-00 Accelerometer) provides direct physical output proportional to housing vibration acceleration within Bently Nevada mechanical monitoring systems. Suffix Breakdown & Model Matrix No validated manufacturer-published suffix segmentation is provided for 330400-01-00 within the supplied dataset. The identifier is treated as a single ordering configuration without decomposed functional variants. Hardware Specifications Parameter Specification ModelBrand Bently Nevada 330400-01-00 Origin USA Weight 0.1 kg Dimensions 25.4 mm diameter x 58.5 mm height (housing) OperatingTemp -55 degC to +120 degC PowerConsumption Passive accelerometer, external signal conditioning required Sensitivity 10.2 mV per m/s2 (100 mV/g) +/-5% Linearity +/-1% up to 490 m/s2 (50 g) peak Frequency Response 10 Hz to 15 kHz Noise Floor 0.039 m/s2 RMS (10 Hz to 15 kHz) Grounding Case isolated Connector Type MIL-C-5015 style, 2-pin top exit Rotordynamics Signal Integrity Behavior (Bently Nevada Monitoring Architecture) The 330400-01-00 is aligned with Bently Nevada rotordynamics acquisition chains where casing-mounted accelerometers must preserve high-frequency energy transfer from bearing housings to measurement electronics. In this configuration class, signal fidelity is influenced by mechanical coupling stiffness, mounting torque consistency, and local resonance behavior. The case-isolated structure is used to reduce ground loop formation in multi-channel vibration acquisition racks and to maintain stable reference potential across TSI input modules. Frequently Asked Questions Q: Can the 330400-01-00 be hot-swapped under live vibration monitoring?A: No hot-swap electrical architecture is defined for this accelerometer. Disconnection requires signal channel isolation at the conditioning system to avoid transient voltage spikes. Q: Does the sensor require external excitation power?A: Yes. The device is a passive piezoelectric accelerometer and depends on an external signal conditioning module for biasing and signal conversion. Q: What limits the usable frequency range in field installation?A: The effective bandwidth is constrained by mounting surface compliance, stud coupling quality, and casing transmissibility characteristics rather than only the internal 10 Hz to 15 kHz sensor specification. Field Installation Guidelines Mount the accelerometer using the specified threaded stud interface with direct metal-to-metal contact. Ensure the mounting surface is machined flat and free from paint or oxidation layers at the contact point. Maintain short lead lengths where possible and use shielded cabling with a single-point grounding strategy at the monitoring system end. Avoid routing signal cables parallel to high-current power conductors to reduce induced noise coupling. Mechanical loosening should be prevented using standard locking hardware appropriate for vibration service conditions.
$200.00 $100.00
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Bently Nevada 330400-02-00 | Bently Nevada | Accelerometer Acceleration Tranducer
Bently Nevada 330400-02-00 Accelerometer Acceleration Transducer Configured for vibration acceleration measurement in rotor and structural monitoring channels in TSI signal acquisition chains, the Bently Nevada 330400-02-00 (330400-02-00 Accelerometer Acceleration Transducer) provides direct physical/electrical execution. HardwareSpecifications Parameter Specification ModelBrand Bently Nevada 330400-02-00 Origin USA Weight 0.1 kg Dimensions 2.3 x 2.3 x 6 cm OperatingTemp N/A PowerConsumption Passive sensor, N/A Mounting M8 x 1 integral stud Sensitivity 10.2 mV per m/s2 (100 mV/g) +/-5% AmplitudeLinearity +/-1% up to 490 m/s2 (50 g) peak AccelerationRange 490 m/s2 (50 g) peak, 10 Hz to 15 kHz BroadbandNoiseFloor 0.039 m/s2 rms Eddy Current Scaling and Cross-Talk Suppression in TSI Signal Chain The Bently Nevada mechanical sensing architecture integrates the 330400 series output into vibration conditioning paths where signal integrity is maintained across long cable runs. In TSI acquisition environments, cross-talk suppression is enforced through controlled grounding topology and shield termination practices, reducing parasitic coupling between adjacent sensor channels. Signal conditioning interfaces typically align accelerometer output scaling with downstream monitoring modules. This includes validation of amplitude response consistency under high-g transient events and maintaining stable gain behavior across the defined frequency span. Frequently Asked Questions Q: Is the M8 x 1 integral stud suitable for high vibration mounting points?A: The threaded stud is designed for rigid mechanical coupling. Proper torque and full thread engagement are required to avoid resonance detachment or signal distortion. Q: Does the sensor require external power supply conditioning?A: The device operates as a passive piezoelectric acceleration transducer. External conditioning is applied only at the monitoring input stage, not at the sensor body. Q: How is broadband noise floor behavior handled in high-frequency environments?A: Noise floor performance is determined by internal element construction and cable shielding effectiveness. Proper grounding reduces induced noise components. FieldInstallationGuidelines Install using full M8 x 1 thread engagement on a rigid, flat-machined surface. Avoid mounting on flexible brackets or thin sheet structures that introduce mechanical damping artifacts. Maintain shield continuity from sensor body to acquisition module ground reference. Avoid ground loops by ensuring single-point grounding strategy across the measurement channel. Route signal cable away from high current conductors and switching devices. Maintain physical separation to minimize electromagnetic coupling into the low-level acceleration signal path.
$200.00 $100.00
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Bently Nevada 330850-50-CN | Bently Nevada | 3300 XL 25 mm Proximitor Sensor
Bently Nevada 330850-50-CN Proximitor Sensor The Bently Nevada 330850-50-CN, also cataloged as the 3300 XL 25 mm Proximitor Sensor, operates as a dedicated hardware component for eddy-current signal conditioning and displacement measurement within 3300 XL proximity transducer systems. Configured for signal conversion from probe gap variation into proportional voltage output, the Bently Nevada 330850-50-CN (3300 XL 25 mm Proximitor Sensor) provides direct electrical execution for rotor-to-case clearance monitoring. Hardware Specifications Parameter Specification ModelBrand Bently Nevada 330850-50-CN Origin USA Weight 0.2 kg Dimensions 8.8 x 3.5 x 7 cm (shipping size) OperatingTemp N/A PowerConsumption N/A System Length 5.0 m (16.4 ft) Output Resistance 50 W Average Scale Factor 0.787 V/mm Probe Material AISI 304 stainless steel Product Type 3300 XL 25 mm Proximitor Sensor Eddy-Current Signal Conditioning and Gap Voltage Scaling The 330850-50-CN processes eddy-current probe feedback by converting probe-target gap modulation into a calibrated voltage response defined by its 0.787 V/mm scale factor. System operation is aligned with -10 VDC gap reference validation practice used in proximity transducer calibration loops. Signal linearity is maintained through controlled impedance matching at the proximitor interface, supporting rotor dynamics displacement tracking. Cross-talk suppression is implemented at the probe-cable interface level to maintain channel isolation integrity under multi-probe installations. Frequently Asked Questions Q: Does the 330850-50-CN support direct hot-swap replacement in active proximity channels?A: Replacement requires system power isolation. The proximitor is not designed for live hot-swap under energized probe bias conditions. Q: What electrical interface governs the probe-to-proximitor signal path?A: The system uses an eddy-current inductive interface with voltage scaling proportional to gap displacement, referenced against internal bias excitation circuitry. Q: Can multiple proximitor channels operate in close proximity without signal interference?A: Channel separation is maintained through cross-talk suppression design, but physical routing separation and shield termination remain mandatory. Field Installation Guidelines Probe and extension cable routing must maintain continuous shielding from probe head to proximitor input terminal. Shield termination should be grounded at a single system reference point to avoid ground loop formation. Cable bending radius must be controlled to prevent impedance discontinuity along the 3300 XL system length. Installation must ensure mechanical isolation of probe housing to avoid vibration-induced signal distortion. All connections should be verified for stable impedance before energizing the monitoring channel.
$200.00 $100.00
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Bently Nevada Proximitor Sensor 330980-70-00 | Bently Nevada
Bently Nevada 330980-70-00 Proximitor Sensor The Bently Nevada 330980-70-00 also cataloged as the 3300 XL NSv Proximitor Sensor operates as a dedicated hardware component for eddy-current displacement signal conversion within the 3300 XL NSv proximity measurement architecture. Suffix Breakdown & Model Matrix 70: 7.0 m (23.0 ft) system length configuration 00: no agency approval requirement optionNo additional structural decoding is defined beyond factory configuration coding. Hardware Specifications Parameter Specification Model / Brand Bently Nevada 330980-70-00 Origin USA Weight 0.26 kg Dimensions 8 x 6.1 x 6.5 cm (shipping envelope) Operating Temp Not specified (refer to system installation manual) Power Consumption Not specified (passive signal conditioning device) Sensor Type 3300 XL NSv Proximitor Sensor System Length 7.0 m (23.0 ft) Output Resistance 50 ohm Housing Material A380 aluminum Probe Case Material AISI 304 stainless steel Mounting Type Panel mount Eddy-Current Signal Conditioning and Gap Voltage Validation The 3300 XL NSv Proximitor Sensor implements eddy-current probe scaling for non-contact shaft displacement measurement. Signal conditioning is performed through a calibrated oscillator-demodulator stage designed to maintain linear response across the probe-to-target air gap. Gap voltage validation is referenced against a nominal negative bias region (typical -10 VDC target region in proximity transducer systems). The conditioning loop maintains amplitude stability under variable rotor dynamics, ensuring consistent demodulated output proportional to shaft radial position. Cross-talk suppression is implemented through shielding continuity and controlled impedance matching across the 50 ohm output stage. Frequently Asked Questions Q: Can the sensor operate with mixed probe cable lengths?A: Only system-qualified 3300 XL NSv probe and extension cable combinations are supported. Mismatched impedance alters calibration slope and gap linearity. Q: Does the output stage support hot-swap replacement?A: The proximitor sensor is not designed for energized hot-swap insertion. System power isolation is required to avoid transient offset drift. Q: What is the effect of grounding errors on signal stability?A: Improper grounding introduces eddy-current noise coupling and distorts gap voltage linearity, resulting in unstable displacement readings. Field Installation Guidelines The proximitor sensor shall be installed using panel-mount fixation with controlled torque to avoid housing deformation. Cable routing must maintain separation from high-voltage conductors to minimize electromagnetic coupling into the 50 ohm output loop. Shield termination must be performed at a single-point ground reference to avoid ground loop formation. Probe extension connections must be mechanically secured and verified for continuity before system energization. Maintain consistent air-gap calibration using manufacturer-defined target surfaces and avoid ferromagnetic mounting interference within the sensing field.
$200.00 $100.00
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Bently Nevada Bently Nevada 330980-51-00 Proximitor Sensor
Bently Nevada 330980-51-00 Proximitor Sensor Configured for proximity signal conversion in Bently Nevada 3300 XL NSv Proximitor Sensor systems, the Bently Nevada 330980-51-00 (330980 Proximitor Sensor) provides direct physical/electrical execution for eddy-current based displacement measurement within Bently Nevada transducer signal chains. Suffix Breakdown & Model Matrix 51: 5.0 m (16.4 ft) system length, DIN rail mount configuration 00: No agency approval option required Hardware Specifications Parameter Specification Model Bently Nevada 330980-51-00 Brand Bently Nevada Origin USA Weight 0.2 kg Dimensions 8.13 cm x 6.12 cm x 6.35 cm System Length 5.0 m (16.4 ft) Output Resistance 50 ohm Incremental Scale Factor 7.87 V/mm (200 mV/mil) Sensor Material A380 aluminum Mounting Type DIN rail / panel mount compatible Bently Nevada Eddy-Current Transduction Characteristics The 330980-51-00 operates as part of a 3300 XL NSv eddy-current measurement chain, implementing calibrated gap voltage conversion for radial vibration and shaft displacement tracking. The signal conditioning stage supports standardized scaling alignment at 7.87 V/mm, ensuring consistent translation from probe gap variation to voltage output within the proximitor interface loop. Cross-talk suppression is implemented through optimized internal shielding and impedance matching (50 ohm output stage), reducing interference susceptibility in high-density machinery monitoring environments. The proximitor architecture supports stable gap voltage validation behavior in typical -10 VDC reference scaling systems used across Bently Nevada proximity probe assemblies. Frequently Asked Questions Q: Does the 330980-51-00 support hot-swap installation?A: The module is not designed for energized hot-swap insertion. Signal loop disconnection is required prior to replacement to prevent transient excitation on the proximitor output stage. Q: What is the impact of cable length on signal scaling accuracy?A: The 5.0 m system length is factory matched. Deviations in extension length or connector impedance mismatch can affect eddy-current linearity and calibration accuracy. Q: Can the 50 ohm output be interfaced directly to PLC analog inputs?A: Direct connection is not recommended without proper signal conditioning or input impedance matching to maintain linear voltage transfer characteristics. Field Installation Guidelines Maintain continuous shield grounding at a single earth reference point to prevent ground loop currents. Ensure DIN rail mounting stability with full mechanical seat engagement to avoid micro-displacement noise injection. Route sensor cabling separately from high-frequency drive or switching power lines to reduce electromagnetic coupling. Avoid sharp cable bends; maintain minimum bend radius consistent with industrial instrumentation wiring practices. Verify connector torque and contact integrity at both proximitor and probe termination points before system energization.
$200.00 $100.00
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Bently Nevada Bently Nevada 330850-91-05 Proximitor Sensor
Bently Nevada 330850-91-05 Proximitor Sensor Configured for conversion of eddy-current probe gap variations into conditioned analog voltage in 3300 XL monitoring architectures, the Bently Nevada 330850-91-05 (3300 XL 25 mm Proximitor Sensor) provides direct electrical signal conditioning for radial vibration and displacement measurement chains. Suffix Breakdown & Model Matrix No explicit manufacturer-published suffix decomposition for 330850-91-05 is provided in the supplied dataset. The order code is referenced as a system-level configuration identifier within the 3300 XL 25 mm Proximitor Sensor platform, primarily defining system length and approval options. Hardware Specifications Parameter Specification ModelBrand Bently Nevada 330850-91-05 Origin USA Weight 0.2 kg Dimensions 8.8 x 3.5 x 7 cm (shipping size) OperatingTemp -51 degC to +100 degC StorageTemp -51 degC to +105 degC System Length 9.0 m (29.5 ft) Average Scale Factor 0.787 V/mm (20 mV/mil) nominal PowerConsumption Not specified Product Type Proximitor Sensor (Eddy Current Signal Conditioner) Eddy Current Scaling and Gap Voltage Validation Characteristics The 3300 XL 25 mm Proximitor Sensor implements eddy-current transduction scaling aligned with probe-to-target gap linearization. The output transfer function is referenced to nominal sensitivity scaling of 0.787 V/mm, enabling displacement conversion from high-frequency carrier demodulation. Gap voltage validation is aligned with standardized -10 VDC bias reference behavior typical in Bently Nevada proximity systems. This supports linear operating region verification for probe-to-target clearance conditions under static and dynamic shaft movement. Cross-talk suppression is achieved through shielded cabling architecture and impedance-controlled signal routing, minimizing interference between adjacent vibration channels in multi-probe installations. Rotor dynamics signal integrity is maintained via low-noise demodulation stages optimized for high-speed shaft vibration tracking. Frequently Asked Questions Q: Is the 330850-91-05 hot-swappable within a running 3300 XL rack system?A: The module is not designed for live insertion. Power isolation is required prior to sensor chain disconnection to prevent transient excitation of the probe driver circuit. Q: What is the electrical behavior of the output scaling interface?A: The output is a conditioned analog voltage proportional to gap displacement, using a nominal scaling factor of 0.787 V/mm under standard calibration conditions. Q: Does the system length of 9.0 m affect signal integrity?A: System length defines probe cable routing limits. Excessive deviation from rated length can introduce attenuation and phase distortion in the eddy-current loop. Field Installation Guidelines Ensure proper separation between probe cabling and high-voltage conductors to minimize electromagnetic coupling. Maintain continuous shield grounding at a single reference point to avoid ground loop currents in the proximitor signal path. Cable routing must respect minimum bend radius specifications to prevent coaxial impedance variation. All connectors should be torqued to manufacturer mechanical retention standards to ensure stable high-frequency carrier transmission. Verify probe gap calibration using static shaft reference before commissioning. Avoid mechanical stress on probe tip assembly during installation to preserve linear response characteristics.
$200.00 $100.00
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