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INDUSTRIAL INSPECTION / INSPECTION

Industrial inspection.

Bring inspection to the asset. Bring evidence back.

Navigate repeatedly to inspection points and combine visual, thermal or task-specific sensors with data capture, anomaly assessment and remote collaboration.

Mobile inspectionRepeat asset visitsException records
Industrial inspection application imagery from the HOPO product manualPlatform motionEnvironment sensing
HOPO / APPLICATION 03Application imagery · product manual
01 / FIELD CHALLENGES

Repeatable access, consistent capture and timely response.

Define the solution around actual operating conditions.

01

Repetitive work and exposure

Distributed assets and frequent rounds create repetitive work. Heat, noise and restricted passages complicate access and fragment records.

Impact: recurring effort and site exposure
02

Complex access and platform motion

Narrow passages, transitions and uneven ground affect access. Legged-platform motion also changes sensor pointing and observations.

Impact: less consistent visits and measurements
03

Incomplete exception workflows

Inspection goes beyond photographs. Readings, thermal or acoustic anomalies need asset, time and location context, alerts and follow-up actions.

Impact: poor traceability and slower follow-up
02 / SOLUTION ARCHITECTURE

Connect autonomous access to inspection follow-up.

HopoEngine and navigation devices support pose and environmental perception. Payloads capture inspection data; the inspection platform handles analysis, records and collaboration. Clear responsibilities support integration.

HopoEngineSENSOR FUSION / NAVIGATION / INTEGRATION
GNSS / IMUOutdoor pose and motion
Stereo vision / radarDepth and access observations
Task sensors · optionalVisual, thermal or acoustic
Points and mission mapAssets, exclusions and routes
SYNCHRONIZATION / CALIBRATION / FUSION
FUSION ENGINEHopoEngine

Navigation and attitude outputs for access and observation

DEVICE & EXECUTIONWheeled / legged robot

Connect existing controls and safety strategies through agreed interfaces.

APPLICATIONCapture, alerts and review records

Configure missions, records and feedback with the application system.

Conceptual architecture: sensors, payloads and execution modules are selected by project. The diagram does not imply that every module is included in one device.
01

Autonomous access and repeat visits

Configure asset points, rounds and access constraints. Fused positioning and perception support access, coordinated obstacle handling and exception stops.

Evaluate: reachability, point error and traversability
02

Payload integration and capture

Select visual, thermal or task-specific sensors. Align observations using timing, mounting calibration and attitude information to support comparable repeat measurements.

Evaluate: data completeness, view and timing
03

Anomaly handling and collaboration

Integrate gauge reading, thermal or acoustic analysis by project and associate results with asset records. Define thresholds and human review for detection, response and re-inspection.

Evaluate: false alerts, evidence and follow-up
03 / MISSION WORKFLOW

From mission definition to execution and feedback.

  1. 01

    Configure points and tasks

    Frequency, route and payload

  2. 02

    Navigate to the asset

    Route tracking and perception

  3. 03

    Capture with asset context

    Images, temperature, readings or sound

  4. 04

    Alert, review and revisit

    Human confirmation and response records

04 / APPLICATION FIT

Match the integration to the mission.

Station routes / equipment rooms

Power and equipment rounds

Evaluate navigation and capture against electromagnetic, mounting and network conditions. Confirm certification and protection needs by project.

Wheeled bases / inspection robots

Factory and campus rounds

Connect workshops and outdoor routes with repeat rounds, readings and exception records.

Legged robots / specialist bases

Access over complex terrain

Validate stairs, ramps and uneven paths with the base, attitude changes and payload field of view.

05 / INTEGRATION & VALIDATION

Integrate with clear interfaces. Validate with field data.

O1 MAX navigation platform illustrationO1 MAX / HopoEngine

O1-series form factor illustration

NAVIGATION / EXECUTION

O1 MAX + HopoEngine

GNSS/IMU + monochrome stereo + mmWave radar

Use O1 MAX as a starting point for multimodal navigation and perception. Integrate inspection payloads, the robot base and platform interfaces; diagnostic applications provide the task-specific analysis.

Navigation outputs→Interfaces and frame alignment→Machine control and missions
View product and configuration

Three groups of field validation criteria

Agree operating conditions and acceptance targets before comparing field results.

Repeat visits

Point access, route error and viewing angle

Capture quality

Completeness, time alignment and repeatability

Response workflow

Detection, false alerts and review process

Capabilities depend on sensors, machine control, operating conditions and project scope. Confirm accuracy, perception and mission performance through field evaluation.

QUESTIONS / ANSWERS

Clarify the key questions before integration.

Define the environment, interfaces and delivered scope with HOPO.

Does the navigation device include thermal, OCR and diagnosis?

The device provides navigation and related perception. Thermal imaging requires a payload; OCR and diagnosis are handled by applications and platforms. Confirm the delivered scope for each project.

Is it suitable for hazardous or explosive areas?

Verify the complete machine, payload, battery and communications against required certification, protection and operating conditions. Generic navigation capability does not establish hazardous-area certification.

Can it connect to an existing asset platform?

Evaluate connections for inspection points, asset IDs, mission results and exceptions. Define formats, timing, access and network conditions before integration.