Wind inspection product catalogue

Wind turbine inspection systems.

Compare wind turbine blade inspection and blade clearance monitoring, rotor imbalance detection and nacelle wind lidar, plus ultrasonic bolt preload tools.

Compare task, output and conditions

Six documented systems

Compare systems by evidence chain.

Every published number remains paired with its measurement meaning and source condition. Asterisked values require the configuration notes on the product page. Product cards use the supplied field imagery, equipment views, engineering renders and drawings identified on each card.

01

Blade Inspection & Clearance

Capture blade-interior evidence or measure blade-to-tower clearance with the sensing method matched to the site condition.

WIT-BR60 crawler inside a wind-turbine blade — product overview

WIT-BR60

Wind Turbine Blade Inspection Robot

A negative-pressure crawler with multiple cameras, remote control and AI-assisted defect review for visual inspection inside wind-turbine blades.

documented internal coverage
Up to 70%*
one-cavity automatic run
70 m / ≤60 min*
primary inspection capture
3840 × 2160
Engineering illustration of the video blade clearance monitoring unit

WIT-VC20

Video Blade-to-Tower Clearance Monitoring

Nacelle-mounted imaging and edge processing calculate blade-to-tower clearance and can transmit configured measurements to the turbine controller.

specified measurement accuracy
50 cm*
documented enclosure rating
IP65*
historical traceability
Video + data
Product overview of the WIT-RC30 radar and camera clearance sensor module

WIT-RC30

Radar–Camera Blade Clearance Monitoring

An 80 GHz FMCW radar and camera-fusion system for blade-to-tower clearance measurement, traceable event data and industrial-controller integration.

specified measurement range
≥130 m*
specified measurement accuracy
50 cm*
documented acquisition rate
≥25 Hz*
02

Rotor & Nacelle Intelligence

Review rotor behaviour and forward wind conditions using field-deployed optical or lidar measurement systems.

Application illustration of a ground-camera rotor imbalance inspection kit near a wind turbine

WIT-RB20

Wind Turbine Rotor Imbalance Detection

A ground-camera field kit that evaluates clearance variation, rotor speed and aerodynamic imbalance from captured turbine video.

specified clearance accuracy
20 cm*
clearance measurement range
0–20 m*
self-powered inspection service
6 h*
Engineering illustration of the WIT-WL40 nacelle wind lidar

WIT-WL40

Nacelle Wind Lidar

Forward-looking wind measurement across multiple distance layers, with wind-speed and direction data available for monitoring and project-specific turbine control inputs.

measurement distance
50–400 m*
documented range layers
10 layers*
specified wind-speed accuracy
0.1 m/s*
03

Bolt Integrity

Measure and control bolt preload with ultrasonic axial-force feedback and retained tightening records.

Application illustration of bolt preload equipment used on a large industrial component

WIT-BW10

Ultrasonic Bolt Preload Wrench

Hydraulic tightening with ultrasonic axial-force feedback closes the loop against a configured preload target and retains the tightening record.

documented output load
≤2500 kN*
documented bolt size
≤M64*
specified measurement accuracy
3% F.S.*
Compare all six systemsTasks, sensing, outputs, operating conditions and interfaces

Compare by required evidence

Which system fits the task?

The six systems answer different questions. These are supplied product-document summaries; a configuration review must establish fit for your site.

Six systems: task, sensing, output, conditions and interfaces
SystemTaskSensing / measurementDocumented outputOperating conditionsInterfaces
WIT-BR60Wind Turbine Blade Inspection RobotInternal blade visual inspectionMultiple illuminated camera views record accessible blade-interior surfaces.Selected findings are organized into a structured report for human review.The 70 m / ≤60 min value applies to one cavity over a 70 m internal area in a 95 m blade, with the stated setup and an unobstructed robot path. The 70% coverage statement is a separate product-document value.No interface is specified in this published summary; confirm for the selected configuration.
WIT-VC20Video Blade-to-Tower Clearance MonitoringBlade-to-tower clearanceNacelle-mounted imaging records blade passage with documented night illumination.Historical video and structured data support retrieval and project integration.Accuracy and enclosure values are product-document specifications. Turbine actions depend on project integration, calibration, data quality and controller logic; predictive functions require controller data.Industrial-bus output for project-specific controller logic
WIT-RC30Radar–Camera Blade Clearance MonitoringLong-range blade clearanceAn 80 GHz FMCW radar measures range while a camera records visual context.Video and point-cloud event records can be stored for later review.Range and accuracy are product-document specifications. The source excludes extreme conditions involving dense fog together with rain or snow. Output-rate wording remains held from publication pending reconciliation; only the documented acquisition rate is shown.Supported industrial interfaces include Modbus and CANopen
WIT-RB20Wind Turbine Rotor Imbalance DetectionAerodynamic imbalance assessmentA positioned ground camera records the turbine under documented capture conditions.Calculated results can be exported in a Word report for engineering review.Performance depends on camera position, turbine yaw, image stability, visibility and the documented capture conditions. Drone configuration is optional and project-specific.No interface is specified in this published summary; confirm for the selected configuration.
WIT-WL40Nacelle Wind LidarForward-wind measurementDoppler sensing collects forward wind speed and direction across configured range layers.Second- and minute-level data are available through supported project interfaces.Values are product-document specifications. Control outcomes depend on installation, project integration, turbine controller logic and operating conditions.Supported industrial data interfaces
WIT-BW10Ultrasonic Bolt Preload WrenchControlled bolt tighteningUltrasonic feedback measures bolt axial force using the calibrated bolt parameters.The system stops within the configured tolerance and stores analysis and process data.Accuracy depends on the documented calibration workflow, bolt parameters, sensor coupling, selected tooling and operating procedure. The axial-force coefficient is normally established by calibration.No interface is specified in this published summary; confirm for the selected configuration.

WIT-BR60

Wind Turbine Blade Inspection Robot

Task
Internal blade visual inspection
Documented output
Selected findings are organized into a structured report for human review.
Measurement, conditions & interfaces
Sensing / measurement
Multiple illuminated camera views record accessible blade-interior surfaces.
Operating conditions
The 70 m / ≤60 min value applies to one cavity over a 70 m internal area in a 95 m blade, with the stated setup and an unobstructed robot path. The 70% coverage statement is a separate product-document value.
Interfaces
No interface is specified in this published summary; confirm for the selected configuration.

WIT-VC20

Video Blade-to-Tower Clearance Monitoring

Task
Blade-to-tower clearance
Documented output
Historical video and structured data support retrieval and project integration.
Measurement, conditions & interfaces
Sensing / measurement
Nacelle-mounted imaging records blade passage with documented night illumination.
Operating conditions
Accuracy and enclosure values are product-document specifications. Turbine actions depend on project integration, calibration, data quality and controller logic; predictive functions require controller data.
Interfaces
Industrial-bus output for project-specific controller logic

WIT-RC30

Radar–Camera Blade Clearance Monitoring

Task
Long-range blade clearance
Documented output
Video and point-cloud event records can be stored for later review.
Measurement, conditions & interfaces
Sensing / measurement
An 80 GHz FMCW radar measures range while a camera records visual context.
Operating conditions
Range and accuracy are product-document specifications. The source excludes extreme conditions involving dense fog together with rain or snow. Output-rate wording remains held from publication pending reconciliation; only the documented acquisition rate is shown.
Interfaces
Supported industrial interfaces include Modbus and CANopen

WIT-RB20

Wind Turbine Rotor Imbalance Detection

Task
Aerodynamic imbalance assessment
Documented output
Calculated results can be exported in a Word report for engineering review.
Measurement, conditions & interfaces
Sensing / measurement
A positioned ground camera records the turbine under documented capture conditions.
Operating conditions
Performance depends on camera position, turbine yaw, image stability, visibility and the documented capture conditions. Drone configuration is optional and project-specific.
Interfaces
No interface is specified in this published summary; confirm for the selected configuration.

WIT-WL40

Nacelle Wind Lidar

Task
Forward-wind measurement
Documented output
Second- and minute-level data are available through supported project interfaces.
Measurement, conditions & interfaces
Sensing / measurement
Doppler sensing collects forward wind speed and direction across configured range layers.
Operating conditions
Values are product-document specifications. Control outcomes depend on installation, project integration, turbine controller logic and operating conditions.
Interfaces
Supported industrial data interfaces

WIT-BW10

Ultrasonic Bolt Preload Wrench

Task
Controlled bolt tightening
Documented output
The system stops within the configured tolerance and stores analysis and process data.
Measurement, conditions & interfaces
Sensing / measurement
Ultrasonic feedback measures bolt axial force using the calibrated bolt parameters.
Operating conditions
Accuracy depends on the documented calibration workflow, bolt parameters, sensor coupling, selected tooling and operating procedure. The axial-force coefficient is normally established by calibration.
Interfaces
No interface is specified in this published summary; confirm for the selected configuration.

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