Find visible damage before downstream operations.
Inspecting near the process that creates the surface can support earlier review, containment and process investigation before more value is added.
Use Case
Give quality and manufacturing teams a consistent way to identify configured scratches, cracks and surface discontinuities under controlled inspection conditions.
AI surface defect detection learns the visible appearance of acceptable parts and configured discontinuities, such as scratches, cracks or marks, under controlled imaging conditions. United Vision helps plant teams capture examples, train the inspection, deploy the model near the line and update it as parts, finishes or defect definitions change.
Inspection sequence
The film shows why illumination is part of the inspection, not decoration. The gear is presented in a repeatable position, directional light reveals subtle discontinuities, and the configured model identifies the regions that require a plant-defined response.
Operational value
Surface decisions often involve natural material variation, changing finishes and defect shapes that are difficult to express as a fixed rule. A trained visual model can support a more adaptable inspection when the signal is made consistently visible.
Inspecting near the process that creates the surface can support earlier review, containment and process investigation before more value is added.
Representative examples help separate relevant scratches, cracks or marks from acceptable texture, machining patterns, reflections and cosmetic variation.
Classification and localization can present the affected region for review, correction and a more useful production record when the workflow is configured to retain it.
Plant-owned lifecycle
United Vision connects this use case to the same plant-controlled workflow used to implement, update and extend visual inspection across the factory.
Collect acceptable and suspect surfaces with the production camera, optics, light and part presentation.
Let plant experts label defect types, severity boundaries and acceptable natural variation.
Train the visual model and challenge it with withheld parts, finishes and borderline conditions.
Run the approved model on a supported edge device and connect the result to the chosen response.
Add new defect appearances and revalidate when material, tooling, finish or lighting changes.
Explore the complete plant-controlled inspection workflow, deployment-readiness questions and customer data and IP position.
Qualification
A defect must be optically visible and distinguishable from acceptable texture across the full production range.
Raking, diffuse, coaxial or other controlled illumination should be evaluated against reflectivity, curvature, finish and the orientation of the smallest relevant discontinuity.
Qualify part position, rotation, focus, motion, field of view and occlusion so the model receives comparable evidence at the decision point.
Agree which types, sizes, locations and severities require action, and preserve difficult borderline examples for validation and review.
Buyer questions
Direct answers for quality, operations, automation and manufacturing engineering teams evaluating this use case.
AI visual inspection can be trained for visible, consistently imaged conditions such as configured scratches, cracks, dents, stains, pits or discontinuities. Feasibility depends on whether the defect can be separated from acceptable texture and production variation.
Rule-based vision is effective when a stable visual condition can be described with deterministic features. A trained model can help with more variable appearances, but it still requires controlled imaging, representative examples, acceptance criteria and production validation.
They can be evaluated, but reflections and texture often become the main imaging challenge. Lighting geometry, polarization, optics, part presentation and the range of acceptable finishes must be qualified before model performance can be judged.
There is no defensible universal number. The useful dataset must represent the defect types, severities, locations, part variants, finishes, lighting conditions and normal variation the production inspection will encounter.
The plant can capture the new condition, review labels, retrain the model and validate an updated version before redeployment. Changes that alter the image outside the qualified range should trigger that review.
Production inference always runs on a supported factory-owned edge device close to the line. The camera-to-verdict path does not depend on a round trip to a vendor cloud. Edge hardware, latency, interfaces and failure behavior are qualified for this inspection.
No. United Vision is hardware- and cloud-agnostic within supported configurations. The plant can bring qualified cameras and edge devices, and United Vision cloud services run in a supported cloud account chosen and owned by the customer.
Not within the licensed factory. One factory license supports unlimited United Vision use cases. The inspection still requires suitability assessment, imaging, integration and production validation, and any hardware or services are scoped separately.
Related guidance
Use the supporting guidance to evaluate readiness, select the right technical approach and keep the inspection current after deployment.
Understand when deterministic rules are enough and when learned visual variation matters.
Read moreBuild production change, error review and controlled redeployment into the operating model.
Read moreExplore surface, dimensional and thermal inspection questions for metal components and processes.
Read moreBring acceptable and suspect samples, defect definitions, surface finishes, current lighting and camera details, line speed and the required operating response.