Probe at the machine
Place the cabled external probe at the selected mechanical point while locating the terminal for practical access and radio coverage.
The Hitelecom H Series vibration sensor combines a cabled external probe with a wireless terminal for high-frequency machinery monitoring. Mount the probe on a rigid motor bearing-housing point and send configured readings to your maintenance team. Select single-axis or triaxial sensing, with a vibration velocity RMS range of 0–50 mm/s, a display resolution of 0.1 mm/s and a measurement frequency range of 10–5,000 Hz. Match 4G, NB-IoT or LoRa connectivity and the reporting profile to your installation.
KEY FEATURES
Bring a machine-mounted probe, a suitable measurement profile and a wireless data connection into one monitoring workflow.
Place the cabled external probe at the selected mechanical point while locating the terminal for practical access and radio coverage.
Measure vibration velocity RMS from 0–50 mm/s with a display resolution of 0.1 mm/s. Choose single-axis or triaxial sensing for the machine and measurement objective.
Monitor machinery vibration within a 10–5,000 Hz measurement frequency range. Match the probe mounting and acquisition profile to the frequencies relevant to your equipment.
Use the supplied 4G, NB-IoT or LoRa variant to connect distributed measurement points to the agreed monitoring platform.
Define project thresholds, notification recipients and the inspection response around the selected metric and normal operating conditions.
NFC activation, local configuration and OTA updates are listed for the family. Confirm the functions available on the supplied model.
MEASURE THE RIGHT QUANTITY
A useful machine trend starts with a repeatable point, a clearly defined value and the operating conditions behind it. Agree these together before selecting the probe and reporting profile.
Root mean square (RMS) vibration velocity is expressed in mm/s. The measurement range is 0–50 mm/s, with a display resolution of 0.1 mm/s. Compare readings at the same machine point under comparable operating conditions.
The specified measurement frequency range is 10–5,000 Hz. This describes the vibration frequencies measured by the probe; choose the wireless reporting interval separately to suit your maintenance workflow.
Machine speed, load and production stage give each comparison its context. Capture these in the monitoring plan or available site records.
Mount the external probe directly on an approved rigid motor bearing housing or end-shield measurement pad near the selected bearing. Choose the sensing direction for a single-axis configuration, or define the three-axis orientation for a triaxial configuration. Secure the probe cable with suitable strain relief, clear of rotating parts and hot surfaces. Mount the wireless terminal separately within its environmental limits and verify coverage at that position. Follow the supplied probe mounting method, cable specification and installation drawing.
FROM READING TO RESPONSE
Acquisition defines how vibration is measured; reporting defines when the terminal sends data. Set the measurement band, acquisition requirements, reporting interval and alert response as one operating profile.
The external probe measures at the labelled machine point. Match the supplied measurement quantity, frequency band and acquisition settings to the monitoring objective.
The terminal sends the configured readings through the selected cellular or LoRa connection. Agree the reporting schedule and complete platform path.
Compare like operating states, review configured notifications and give the maintenance team an agreed inspection step. Record the result for the next comparison.
The published battery-life reference exceeds 10 years at one-hour reporting under specified conditions. This reference belongs to the configured terminal operating profile. Actual life depends on the supplied battery, probe and acquisition duty, reporting schedule, radio coverage, retransmissions and temperature. Request the life estimate for the complete configuration you intend to deploy.
APPLICATIONS
Explore 48 practical monitoring tasks across eight machinery families. Each task identifies a fixed probe point, the operating context to compare and the details that help specify a suitable configuration.
8 machinery families 48 monitoring tasks
Photos illustrate machinery environments. Select the actual point, probe band and installation with your machine engineer.

Compare vibration trends at selected fixed motor measurement points across production lines, power packs and rotating drive systems.

Track changes at a motor's bearing housing and give maintenance teams a repeatable reference for routine inspection.

Compare readings within matching speed and load windows so normal changes in operating duty remain visible in the trend.

Observe the electric motor that drives a hydraulic power unit and support checks during comparable pressure-demand cycles.

Follow motor-side vibration through repeatable moulding cycles and help prioritise drive inspection alongside production records.

Build a vibration history for a generator's rotating electrical machine at defined operating load and speed.

Record comparable vibration readings during a defined run test to support an agreed inspection or acceptance workflow.

Place the probe near the motor or pump bearing path and relate changes to flow, pressure and operating duty.

Track selected motor and pump points across duty and standby units to support maintenance planning at pumping stations.

Observe accessible dry-mounted pump and motor assemblies and compare trends alongside pumping-cycle records.

Monitor a selected fixed bearing region on a vertical pump's motor and record changes during normal running duty.

Maintain a vibration trend for circulation pumps that support manufacturing equipment and compare readings at stable process demand.

Observe motor-side or bearing-housing vibration on a sanitary pumping line while keeping the installation outside the product-contact path.

Compare vibration changes on compatible pump drives and use the result alongside pressure, flow and maintenance records.

Monitor fixed fan-drive and bearing locations rather than blades, flexible ducts or building movement.

Follow the vibration of a ventilation fan's drive and bearing arrangement to support inspection of occupied-building services.

Trend selected fan-bearing points during consistent extraction duty and help maintenance teams identify changes worth inspecting.

Monitor the fixed motor or fan bearings of a dust-extraction system as part of machine-maintenance routines.

Track local vibration at an auxiliary fan drive and compare readings across documented operating demand.

Observe fan-drive condition trends that help maintenance teams plan inspections around drying-line production.

Record repeatable vibration trends at an aeration blower's motor and drive bearings while documenting its process demand.

Keep the measurement point close to a stationary bearing region and match the sensing specification to the compressor duty.

Track vibration near the compressor's bearings and compare changes across stable operating and loading states.

Observe local vibration trends at a drive or bearing region while recording the compressor's normal cyclic duty.

Follow a compatible compressor drive's vibration trend to support planned inspection of a refrigeration plant.

Compare local drive and housing vibration during matching vacuum-process states and use changes to guide equipment checks.

Trend selected stationary measurement points on a dry-screw vacuum system for maintenance review across comparable production cycles.

Use a qualified installation to observe machinery vibration on a selected process-compressor drive or bearing location.

Measure the selected drive or bearing path. Operating speed, material load and motion cycles provide context for comparison.

Track local gearbox and motor vibration at a conveyor drive and compare the same transport-duty conditions over time.

Observe a screw feeder's external drive vibration to support inspection without placing sensing hardware in the material path.

Maintain a trend at the elevator's drive gearbox or motor bearing region to support accessible machinery inspection.

Observe selected stationary drive bearings and compare vibration within repeatable sorter operating cycles.

Track a selected hoist or travel drive's machinery vibration while documenting repeatable lift or travel cycles.

Compare gearbox vibration under defined process load to support inspection of an extruder's rotating drive components.

Record local machine vibration in the relevant production state, with mounting and cable protection matched to the working environment.

Follow selected spindle-housing vibration during repeatable machining or run-test conditions to support tooling and machine inspection.

Compare headstock vibration at a repeatable fixed point during matching speed and machining duty.

Track local spindle vibration across defined grinding duty and use the history to plan inspection of rotating components.

Record vibration at a fixed spindle or drive housing during comparable cutting operations and maintenance run tests.

Observe a selected rolling-line motor or reducer bearing path and relate trends to documented production loads.

Track an approved stationary drive-bearing point during repeatable production phases to support routine machinery checks.

Support production-maintenance routines with local machinery trends, while reviewing process duty, cleanability and mounting access.

Observe the motor and reducer's local vibration during matching mixing recipes and batch loads.

Trend selected fixed centrifuge bearing points and interpret changes with bowl speed, material feed and operating state.

Observe a separator's approved stationary drive or bearing location to support maintenance review during stable production duty.

Track local motor or gearbox vibration on a production line while comparing repeatable filling and capping duty.

Observe an approved external drive point during documented drying stages to support equipment-maintenance records.

Record local vibration at selected stationary roll-bearing housings and compare equivalent paper-machine production states.

Select the rotating drive or fixed bearing housing for machinery monitoring, with range and installation reviewed against normal process excitation.

Track a selected crusher bearing or drive point and compare trends against documented feed and operating conditions.

Observe local motor or reducer vibration on a grinding line and relate readings to comparable feed and load states.

Maintain a vibration history at selected shredder-drive bearings while recording the material and normal operating cycle.

Observe local rotating-exciter bearing vibration as a machinery trend at a defined stationary housing point.

Track a selected mill-drive bearing path and use consistent production-load records to make trend comparisons useful.

Observe a fixed drive or rotor-bearing housing and compare the vibration history within documented material-processing duty.
SERIES & CONFIGURATIONS
H200, H300 and H500 are published H Series family identifiers. Specify the complete probe, terminal, wireless variant and operating profile in the configuration proposal for your project.
Confirm the supplied radio, external probe and measurement profile for your project.
Discuss this configuration ↗Confirm the supplied radio, external probe and measurement profile for your project.
Discuss this configuration ↗Confirm the supplied radio, external probe and measurement profile for your project.
Discuss this configuration ↗| Published family models | H200 / H300 / H500 |
|---|---|
| Vibration velocity RMS range | 0–50 mm/s |
| Measurement frequency range | 10–5,000 Hz |
| Measurement axes | Single-axis or triaxial, by selected configuration |
| Vibration velocity RMS display resolution | 0.1 mm/s |
| Published accuracy condition | ±1% at 80 Hz calibration; confirm the full supplied measurement specification |
| Sensing arrangement | Cabled external probe at a rigid motor bearing-housing or machine measurement point |
| Wireless variants | 4G / NB-IoT / LoRa, by supplied model and regional configuration |
| Data integration | MQTT listed; confirm the complete path for the supplied variant |
| Terminal enclosure rating | IP68; specify probe, cable and connector suitability separately |
| Published operating temperature | −20°C to +70°C; confirm component-specific limits for the installation |
| Published storage temperature | −20°C to +80°C |
| Device configuration | NFC activation / local setup; OTA updates, by supplied configuration |
| Battery-life reference | Over 10 years at one-hour reporting under specified conditions; configuration and duty dependent |
Share the component, rigid mounting surface, measurement direction, speed range and normal load states.
Select single-axis or triaxial sensing and specify the machine frequencies of interest within the 10–5,000 Hz measurement range. The vibration velocity RMS range is 0–50 mm/s with a display resolution of 0.1 mm/s. Agree acquisition duty, reporting and calibration requirements.
Review probe and cable conditions, terminal location, radio coverage, reporting, alerts and the platform handover.
CONNECTIVITY & INTEGRATION
Connect configured readings to Hitelecom Cloud or a compatible customer platform. MQTT is listed in the family specification. Agree the message format, endpoint and supported authentication with the selected radio variant and onward connection.
Select the supplied modem and regional bands around operator availability and coverage at the terminal position. Agree the measurement schedule, reporting profile and configured notification workflow.
Match the supplied radio protocol, regional settings and receiver or gateway. Specify any LoRaWAN requirement with the model and complete onward connection.
Agree device identity, machine and mounting-point labels, measurement quantity, units and timestamps in a sample message. Confirm the MQTT endpoint and supported authentication for the supplied configuration, then test the complete path to the intended platform and notification recipients.
Discuss platform integration ↗ANSWERS FOR YOUR PROJECT
Answers for specifying machinery measurement, planning the cabled probe installation and connecting readings to the maintenance workflow.
Ask about your project ↗The Hitelecom H Series uses a cabled external probe for high-frequency machinery vibration monitoring. Vibration velocity is reported as a root mean square (RMS) value over a 0–50 mm/s range, with a display resolution of 0.1 mm/s. The specified measurement frequency range is 10–5,000 Hz. Select single-axis or triaxial sensing for the machine and mounting point, then configure the wireless reporting profile.
Mount the probe directly on an approved rigid part of the motor bearing housing or end shield, close to the bearing being monitored. Use the supplied mounting method and a prepared measurement surface. Record the point identifier and the single-axis direction or triaxial orientation. Secure the cable and locate the wireless terminal separately for access and radio coverage.
Common project candidates include electric motors, pumps, fans, compressors, gearboxes, conveyors, machine-tool spindles, mixers and centrifuges. Select a rigid, stationary measurement point near the component of interest, and match the supplied probe’s usable frequency band, range and installation conditions to the machine. This external-probe family is intended for high-frequency machinery vibration monitoring.
The probe cable connects the mechanical measurement point to the monitoring terminal. The configured 4G, NB-IoT or LoRa connection handles the remote data link. Plan the probe position, approved cable length and terminal location together, considering machine access, cable protection and radio coverage.
The specified measurement frequency range is 10–5,000 Hz. This is the vibration frequency range measured at the probe, rather than a wireless reporting rate. The 80 Hz calibration condition is a separate calibration reference. Share the machine speed, target components and mounting arrangement so the acquisition and reporting profile can be matched to the application.
Yes. Single-axis and triaxial configurations are available. A single-axis configuration measures vibration along its selected sensing direction. A triaxial configuration measures along three axes at the same mounting point. Specify the configuration and mounting orientation for your machine; the vibration velocity RMS display resolution is 0.1 mm/s.
Record the machine's speed, load and operating stage with the monitoring plan. Establish comparable baselines for the states that matter, such as a stable running speed or a repeatable production-cycle phase. Review changes against those conditions and the maintenance history so the trend supports a focused inspection.
Use the approved mounting method on a clean, flat, rigid measurement surface. Mechanical coupling affects the mounted frequency response, so the sensor interface and any mounting base should be reviewed for the target band. Secure the cable with strain relief and suitable slack, and route it safely around moving parts and motor-power wiring.
Agree a normal operating baseline, the values to review and a practical inspection response. A sustained change at a labelled measurement point can help the team prioritise checks and compare readings before and after maintenance. Detailed fault interpretation depends on the machine, the available measurement data and the analysis method used in the project.
Share the machine type, speed range, operating cycle, target components, photos of the proposed mounting points and whether you need single-axis or triaxial measurement. Include the environment, cable-route requirements, measurement/reporting intervals, country and preferred platform or communications link. These details help align the probe, terminal and data requirements with your installation.
LET'S TALK ABOUT YOUR PROJECT
Share the machine, operating conditions and monitoring objective. We’ll help match the cabled probe, measurement configuration and wireless connection, then discuss your quotation.
sales@hitelecom.cn ↗A machine photo, bearing-housing detail or maintenance specification helps us plan the installation. Add operating speed, load, cable routing and your reporting or platform requirements.