Dynamic Seal Defect Detection
99% defect detection sensitivity across 6 part variants
Kompass AI +Tigris Infrastructure with auto feeder
100% Automated Inspection – 1 Part Every Second
JIDOKA's Approach
Multi-Camera Image Acquisition
Station 1 – 5 Cameras
As seals enter the first inspection station, fivecameras capture the bottom face and outer diameter (OD) from multiple views.The cameras are positioned at defined distances and angles to maintainconsistent image quality as parts move through the inspection station.
Station 2 – 9 Cameras
After flipping, nine cameras capture the top face,inner diameter (ID) and side profile of the seal. The side-view cameras providededicated coverage for detecting FOG-related defects, while the top and IDviews complete the inspection of the remaining critical surfaces
This two-stage, 14-camera inspection architecture provides comprehensive visual coverage of the seal across both orientations.
Automated Part Flipping
A dual pick-and-place mechanism transfers and flips each seal onto a second conveyor. Cameras on the second conveyor capture the bottom face and inner diameter circumference, allowing the system to inspect the remaining critical surfaces without requiring manual handling. This two-stage architecture provides comprehensive visual coverage of the seal.
AI-Based Defect Detection
Captured images are processed on an on-premise industrial computer using a deep-learning-based edge detection algorithm. The AI inspection identifies defects across the defined inspection zones, including:
- Loose or flaky flash
- Excess flash above 0.7 mm
- Splits and tears visible without stretching
- Missing material
- Irregular or missing FOG
- Missing or double springs
- Damaged springs
- Rusted springs
- Tucked lips
- Missing grease
- Excess wax
- Damaged or irregular trim
- Short shots
- Damaged rubber
Each inspected seal is classified according to the inspection decision.
Real-Time PLC Integration
The AI inspection result is communicated to the machine PLC in real time. When a defective seal is identified, the PLC triggers a pneumatic pusher to remove the NG part from the production flow. This creates an automated sequence from image acquisition to final rejection.
Automatic Part Changeover
The inspection system supports six seal variants with different camera-position requirements. When changing between size ranges, actuators automatically adjust the camera positions to establish the correct working distance for the selected variant. These positions are pre-programmed for the supported part variants. The operator selects the required part variant in the software before starting the production batch.
Production Monitoring and Reporting
A monitoring display provides live production information, including OK and NOT OK part counts by type. Inspection reports can also be downloaded in Excel or CSV format, giving production and quality teams access to inspection data for further analysis.
Conveyor Cleaning
Because seals can carry excess grease, a wiper mechanism beneath each inspection conveyor continuously cleans the conveyor belt. This helps maintain a cleaner inspection surface and supports consistent image acquisition during production. System handling architecture: The feeder-stacker loads seals onto the inspection conveyor, while grippers, a holder unit and pusher mechanism support controlled part handling through the inspection process.