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Matlab Use Visual Inspection

MathWorksOfficialCreated by MathWorks

  • Skill
  • Tool integration
  • Software development
  • BSD-2-Clause
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From the author

Build machine vision inspection systems with MATLAB Visual Inspection Toolbox. Covers the full arc from problem selection through deployment: anomaly detection (Student-Teacher, PatchCore, FastFlow, FCDD), object detection (YOLOX), counting (CounTR, shape matching), gauging and measurement (caliper, fitcircle, fitangle), blob analysis (regionprops, calibrated measurement), shape matching for fixturing and localization, synthetic data generation for training augmentation, and deployment to standalone apps, embedded C/C++, NVIDIA GPUs (TensorRT), NPUs (ONNX), and Beckhoff PLCs. Routes to rule-based tools when problems are geometric and deterministic, AI-based tools when defect appearance varies, and hybrid pipelines combining both.
— the description by MathWorks

AutoGineer summary

Written by AutoGineer from the skill’s own files, not by the author

This skill provides a structured approach to developing machine vision inspection systems, guiding users through the selection of rule-based, AI-based, or hybrid pipelines. It covers the entire development lifecycle, from initial problem analysis and data preparation to model training and deployment across various hardware targets, including embedded systems, GPUs, and industrial PLCs.

What it does

  • Selects between rule-based, AI-based, or hybrid inspection strategies.
  • Implements anomaly detection, object detection, counting, and gauging.
  • Supports synthetic data generation for training augmentation.
  • Provides deployment paths for standalone apps, C/C++, TensorRT, ONNX, and PLCs.
  • Offers guidance on vision fixturing and calibrated measurements.
  • Includes specific patterns for high-performance production inference.

When to use it

  • When building automated defect detection or classification systems.
  • When performing precise dimensional measurements or gauging on parts.
  • When counting objects with varying levels of visual complexity.
  • When deploying inspection models to edge devices or industrial controllers.
  • When you need to combine geometric rule-based logic with AI-based flexibility.

Advantages

  • Covers the full development arc from problem selection to deployment.
  • Provides clear decision criteria for choosing between rule-based and AI approaches.
  • Optimized for industrial performance with support for hardware-specific acceleration.
  • Includes robust patterns for vision fixturing and pose normalization.
  • Reduces development time by providing pre-built functions for common inspection tasks.

Usage examples

“How do I choose between rule-based and AI-based inspection for my manufacturing line?”
The skill provides a decision matrix comparing defect predictability, lighting control, data availability, and the need for explainability to guide your choice.
“I need to deploy a deep learning inspection model to an NVIDIA Jetson device.”
The skill instructs you to use GPU Coder with TensorRT, providing specific rules for model loading and export to ensure high-performance inference.
“How can I measure parts in millimeters when my camera has lens distortion?”
The skill guides you to use camera calibration and imageToWorldPlane to rectify the image, enabling direct measurement in physical units using regionprops.
“My parts move on a conveyor; how do I ensure my anomaly detector works?”
The skill mandates using matchshape for vision fixturing to normalize the part pose before passing the cropped region to the anomaly detector.

Install

  1. Download the skill as a ZIP:

    https://mp-staging.autogineer.com/agent-skills/matlab/matlab-use-visual-inspection/download
  2. Unzip it into the cross-client skills folder of your project:

    mkdir -p .agents/skills && unzip matlab-use-visual-inspection.zip -d .agents/skills

Documentation by MathWorks

Visual Inspection with MATLAB

Build machine vision inspection systems using Visual Inspection Toolbox. Select the right approach — rule-based, AI-based, or hybrid — based on problem characteristics, then implement, train, and deploy.

When to Use

Defect detection and classification

  • Detecting anomalies on manufactured parts (scratches, dents, contamination)

  • Training anomaly detectors with good-part images only (one-class learning)

  • Detecting and localizing defects with bounding boxes (YOLOX)

  • Classifying defect types or severity levels

Measurement and gauging

  • Measuring widths, gaps, angles, diameters on parts

  • Calibrated measurement in physical units (mm, degrees)

  • Vision fixturing — locating parts and repositioning measurement tools

  • Blob analysis — area, perimeter, shape metrics of segmented regions

Counting and localization

  • Counting identical rigid parts via shape matching

  • Few-shot counting with intra-class variation (CounTR)

  • Locating parts by edge geometry for downstream inspection

Training data augmentation

  • Generating synthetic labeled data via copy-paste augmentation

  • Expanding small defect datasets for YOLOX training

Deployment

  • Packaging inspection as standalone executables (MATLAB Compiler)

  • Generating C/C++ for embedded/edge targets (MATLAB Coder)

  • GPU-accelerated inference with TensorRT (GPU Coder)

  • ONNX export for NPUs, AI accelerators, smart camera SDKs

  • Deploying to Beckhoff TwinCAT industrial PLCs

When NOT to Use

  • Camera acquisition, frame grabber configuration — use Image Acquisition Toolbox

  • PLC communication, OPC UA, MQTT protocols — use Industrial Communication Toolbox

  • General image processing unrelated to inspection (artistic filters, medical imaging)

Must-Follow Rules

Approach Selection
  • Rule-based for geometric, deterministic problems — when defects are dimensional deviations or parts have known geometry, use caliper/fitcircle/matchshape. No training data needed

  • AI-based for variable appearance — when defect appearance can't be enumerated, use anomaly detection or YOLOX. Requires training data

  • Hybrid when parts move — use matchshape to fixture (locate + normalize pose), then AI on the cropped/warped region. Anomaly detectors are NOT rotation/scale invariant

Anomaly Detection
  • Anomaly detectors require consistent pose — CNN backbones are not rotation/scale invariant. Fixture with matchshape + imwarp to canonical orientation before training and inference

  • Choose detector by data availability — >100 good images: studentTeacherAnomalyDetector; <100 images: patchCoreAnomalyDetector; have anomaly labels: fcddAnomalyDetector

  • Use classify for inference — returns [tf, score, map] for anomaly map visualization

Object Detection (YOLOX)
  • Use AutoResize=false for full-resolution inference — prevents downscaling that loses small defects. Pair with tiled training when objects are small relative to image

  • Synthetic data benefits YOLOX most — copy-paste augmentation via objectInsertionDatastore is proven for detection tasks

Measurement
  • Vision fixturing pattern — matchshape locates part → transform measurement positions to detected pose → measure at repositioned locations

  • Calibrated measurements require imageToWorldPlane — converts pixel measurements to physical units using camera calibration

  • images.geotrans.Warper for production rectification — precompute the mapping once, apply per frame for maximum throughput

Deployment
  • Always use persistent + isempty guard in codegen entry points — load model once, infer many times

  • coder.loadDeepLearningNetwork for DL models — not coder.load (which is for structs/shape models)

  • coder.Constant for MAT file path — codegen requires compile-time constant paths

  • Pass detector objects directly to exportONNXNetwork — never extract .Network or .Backbone first. The object-level export includes pre/post-processing logic

  • ONNX for NPUs/AI accelerators; GPU Coder + TensorRT for NVIDIA — don't use ONNX for Jetson/Orin

Pipeline Construction

Machine vision inspections compose tools in sequence:

  1. Acquire — Get the image (Image Acquisition Toolbox)

  2. Fixture — Locate a stable reference feature (matchshape)

  3. Reposition — Transform measurement positions to detected pose

  4. Inspect — Apply measurement or classification at repositioned locations

  5. Decide — Compare to tolerances → pass/fail

  6. Communicate — Send results to PLC/SCADA (Industrial Communication Toolbox)

Common Hybrid Patterns
PatternRule-Based PartAI Part
Fixture + classifymatchshape locates part, crops ROIAnomaly detector on cropped region
Fixture + detectmatchshape locates partYOLOX finds defects relative to fixture
Pose normalize + anomalymatchshape + imwarp to canonical poseAnomaly detector on normalized image
Segment + measureThresholding / morphologyregionprops on segmented blobs

Primary Decision: Rule-Based vs. AI-Based

Choose Rule-Based WhenChoose AI-Based When
Defects have predictable, enumerable geometryDefect appearance varies unpredictably
Lighting and positioning are tightly controlledBackground or part appearance varies
Need dimensional measurements (mm, degrees)Need classification without precise measurement
Few or no labeled examples availableHave labeled training data (or can generate synthetic)
Require explainable, auditable decisionsAccuracy matters more than explainability

Key Functions

FunctionPurposeToolboxAvailable From
shapemodelBuild edge-geometry model from templateVisual Inspection ToolboxR2026b
matchshapeFind model instances in search imageVisual Inspection ToolboxR2026b
caliperMeasure edge distances along a profileVisual Inspection ToolboxR2026b
fitangleMeasure angle between edgesVisual Inspection ToolboxR2026b
fitcircleMeasure circle center and radiusVisual Inspection ToolboxR2026b
studentTeacherAnomalyDetectorOne-class anomaly detection (>100 good images)Visual Inspection ToolboxR2026b
patchCoreAnomalyDetectorOne-class anomaly detection (few-shot, <100 images)Visual Inspection ToolboxR2026b
fastFlowAnomalyDetectorNormalizing-flow anomaly detectionVisual Inspection ToolboxR2026b
fcddAnomalyDetectorSemi-supervised anomaly detectionVisual Inspection ToolboxR2026b
yoloxObjectDetectorObject/defect detection with bounding boxesVisual Inspection ToolboxR2026b
counTRObjectCounterCounting with intra-class variation (few-shot)Visual Inspection ToolboxR2026b
objectInsertionDatastoreSynthetic labeled training data (copy-paste)Visual Inspection ToolboxR2026b
regionpropsBlob area, perimeter, shape featuresImage Processing ToolboxR2006a
imageToWorldPlaneCalibrated world-unit measurementComputer Vision ToolboxR2022b

Decision Trees

"I need to detect defects"
SituationApproach
Defect appearance unpredictable; good-part images onlyAnomaly detection
Classify defect types with bounding boxes; have labeled dataYOLOX object detection
Defects are geometric deviations from known shapeShape matching + gauging
Dimensional out-of-tolerance (too wide, too narrow)Caliper / fitcircle / fitangle
"I need to measure parts"
SituationApproach
Widths, gaps, edge-to-edge distancescaliper
Angles between edgesfitangle
Hole diameters, arc radiifitcircle
Area, perimeter, shape of segmented blobsregionprops
Need measurements in mm (physical units)Camera calibration + rectification
Part position varies image-to-imageVision fixturing with matchshape
"I need to count objects"
SituationApproach
Identical rigid parts, controlled backgroundshapemodel / matchshape
Intra-class variation, few labeled examplesCounTR (few-shot counting)
Multiple classes, complex scenes, have labelsYOLOX detection → count
"I need to locate parts"
SituationApproach
Rigid part, known edge geometryshapemodel / matchshape
Variable appearance, multiple classesYOLOX detection
"I don't have enough training data"
SituationApproach
Have segmented defect examples + clean imagesCopy-paste synthetic data
Good-part images only (no defect labels)Anomaly detection (one-class)
No data at all, defects are geometricRule-based (no training needed)
"I need to deploy"
TargetPath
Standalone app, full MATLAB featuresMATLAB Compiler
Monitoring dashboard or UI appMATLAB Compiler
Embedded CPU (x86, ARM)MATLAB Coder
NVIDIA Jetson/Orin or dGPUGPU Coder + TensorRT
NPU or AI acceleratorONNX export
Smart camera with vendor SDKONNX export
Beckhoff industrial PLCMATLAB Coder → TwinCAT

Patterns

Each reference file contains executable code patterns, API calling conventions, and worked examples for its topic. Load the relevant reference before writing code.

Conventions

  • Always: use machine vision terminology (rule-based, tool chaining, fixturing)

  • Always: recommend the specific VIT function, not generic IPT building blocks

  • Always: consider hybrid pipelines (rule-based fixturing + AI classification)

  • Always: ensure anomaly detector receives images in consistent pose

  • Always: use persistent + isempty for model loading in codegen entry points

  • Always: pass detector objects directly to exportONNXNetwork (never extract .Network)

  • Never: recommend AI when the problem is purely dimensional measurement

  • Never: recommend rule-based when defect appearance is highly variable

  • Never: use coder.load for deep learning models (use coder.loadDeepLearningNetwork)

  • Never: use ONNX export for NVIDIA targets (use GPU Coder + TensorRT)

  • Prefer: anomaly detection when only good-part images are available

  • Prefer: YOLOX when labeled defect examples with bounding boxes exist

  • Prefer: shapemodel/matchshape over YOLOX for locating rigid parts

  • Prefer: images.geotrans.Warper for production rectification throughput

  • Prefer: MATLAB Compiler for dashboards and UI-based monitoring apps

References
Load when...Reference
Training or using anomaly detectorsreferences/detect-anomaly.md
Locating parts by shape, vision fixturingreferences/match-shape.md
Training or using YOLOX object detectorsreferences/detect-objects.md
Counting objects (shape matching, CounTR, YOLOX)references/count-objects.md
Measuring with caliper, fitcircle, fitanglereferences/measure-gauging.md
Blob analysis, regionprops, calibrated measurementreferences/blob-analysis.md
Deploying models (Compiler, Coder, TensorRT, ONNX)references/deploy-inspection.md
Generating synthetic training datareferences/synthetic-data.md

Copyright 2026 The MathWorks, Inc.


Files

references/synthetic-data.md

Synthetic Data Generation and Auto-Labeling

Generate synthetic training images by pasting labeled defect instances into clean background images. Labels (bounding boxes, class names, instance masks) are produced automatically — no manual annotation needed for the synthetic set.

When to Use

  • Small labeled dataset, need more training images

  • Have pixel-labeled defect examples and unlabeled good images

  • Want to pre-train YOLOX before fine-tuning on real data

  • Need instance segmentation training data from limited examples

  • Copy-paste augmentation for industrial defect detection

When NOT to Use

  • No segmented defect examples available — label some first

  • Need photorealistic 3D rendering from CAD — different workflow

  • Standard augmentation (flips, rotations, color jitter) is sufficient — use imageDataAugmenter

Key Functions

FunctionPurpose
objectInsertionDatastoreGenerate a full synthetic labeled dataset as a datastore
insertObjectInImageInsert one object into one image (low-level, single-image use)

Concepts

Copy-paste augmentation — Cut a labeled object from one image using its pixel mask and paste it into a clean background at a random location with blending. The inserted object's bounding box and mask are known exactly, providing free labels.

Source datastore — Provides defect instances. Each read returns a 4-element cell: {Image, BoundingBoxes, Labels, Masks} where Masks is logical(H,W,P) with P planes for P objects.

Destination datastore — Provides clean background images. Can optionally return {Image, RegionConstraintMask} to restrict where objects may be placed.

Overall Workflow

  1. Prepare source data — segment defects, store with boxes/labels/masks

  2. Prepare destinations — collect clean/good images

  3. Configure — set insertion count, overlap, blending, geometric augmentation

  4. Generate — objectInsertionDatastore produces labeled synthetic images

  5. Train — feed datastore directly to trainYOLOXObjectDetector, or write to disk first

  6. Fine-tune — fine-tune the synthetically pre-trained model on real labeled data

Online vs. On-Disk Synthetic Data

ApproachProsCons
Online (datastore → trainer directly)Simplest code; infinite variety each epochSlower training — blending/insertion recomputed every image every epoch
On-disk (writeall then train from files)Faster training (read-only I/O); fixed dataset for reproducibility, visualization, QARequires disk space; less variety (fixed set)

Choose on-disk when training speed matters or you want experiment management with a fixed dataset. Choose online when you want maximum variety and simpler code.

Patterns

Source Datastore Format

The source datastore must return a 4-element cell per read:

dsObject = fileDatastore(annotatedImagePaths, ...
    ReadFcn=@(imgPath) readObjectData(imgPath, annotationPath));

Where the read function returns:

function data = readObjectData(imagePath, annotationPath)
    img = imread(imagePath);
    [~, baseName] = fileparts(imagePath);
    annotation = load(fullfile(annotationPath, baseName + ".mat"));
    boxes = annotation.boxes;
    labels = categorical(annotation.labels);
    masks = annotation.masks;
    data = {img, boxes, labels, masks};
end
  • boxes is [P x 4] in [x, y, width, height] format

  • labels is P x 1 categorical vector (all reads must share the same categories)

  • masks is logical(H, W, P) where each plane corresponds to one object

Destination Datastore

Simple (any location valid):

dsDest = imageDatastore(cleanImagePaths);

With region constraint (restrict placement to specific area):

dsDest = fileDatastore(cleanImagePaths, ReadFcn=@readDestWithMask);

function data = readDestWithMask(imagePath)
    img = imread(imagePath);
    mask = imread(strrep(imagePath, ".png", "_mask.png")) > 0;
    data = {img, mask};
end
objectInsertionDatastore: Full Configuration
numSyntheticImages = 1000;
dsSynthetic = objectInsertionDatastore(dsDest, dsObject, numSyntheticImages, ...
    NumObjectsToInsert=[1 3], ...
    ObjectsInSceneMaxOverlap=0.3, ...
    BlendMethod="guidedfilter", ...
    GeometricAugmentation=@() randomAffine2d(Scale=[0.8 1.2], ...
        XReflection=true, YReflection=true, Rotation=[-180 180]), ...
    OutputFormat="ObjectDetection");
Online Training (Direct Datastore to Trainer)
detector = yoloxObjectDetector("small-coco", className, InputSize=[512 512 3]);
options = trainingOptions("sgdm", MaxEpochs=20, MiniBatchSize=32);
netSynthetic = trainYOLOXObjectDetector(dsSynthetic, detector, options);
On-Disk Training (Write First, Then Train from Files)
dsSynthetic.writeall(outputFolder, FilenamePrefix="synth_");

dsOnDisk = fileDatastore(outputFolder, ReadFcn=@(f) load(f).labeledImageData);
netSynthetic = trainYOLOXObjectDetector(dsOnDisk, detector, options);

Writing to disk avoids recomputing blending/insertion each epoch — faster training at the cost of disk space and a fixed (non-varying) dataset.

Synthetic Pre-training + Real Fine-tuning

Pre-train on synthetic data, then fine-tune on real labeled data. This is the documented best practice and yields significantly higher AP than real-only:

netSynthetic = trainYOLOXObjectDetector(dsSynthetic, detector, options);
netFinal = trainYOLOXObjectDetector(dsTrainReal, netSynthetic, options);

Documented result: [email protected] = 0.846 (synthetic + fine-tune) vs 0.760 (real only).

Instance Segmentation Output

For instance segmentation training, use OutputFormat="InstanceSegmentation":

dsSynthetic = objectInsertionDatastore(dsDest, dsObject, numSyntheticImages, ...
    NumObjectsToInsert=[1 3], ...
    ObjectsInSceneMaxOverlap=0.3, ...
    BlendMethod="guidedfilter", ...
    GeometricAugmentation=@() randomAffine2d(Scale=[0.8 1.2], ...
        XReflection=true, YReflection=true, Rotation=[-180 180]), ...
    OutputFormat="InstanceSegmentation");

Each read returns {Image, Boxes, Labels, Masks}.

Visualizing Synthetic Output
sampleData = preview(dsSynthetic);
sampleImg = sampleData{1};
sampleBoxes = sampleData{2};
sampleLabels = sampleData{3};
figure
imshow(sampleImg)
hold on
showShape("rectangle", sampleBoxes, Label=string(sampleLabels), Color="green")
hold off
Single Image Insertion (Low-Level)

For one-off insertion or custom pipelines, use insertObjectInImage directly:

[augImg, box, mask] = insertObjectInImage(destImg, sourceImg, sourceMask, ...
    BlendMethod="guidedfilter", ...
    BoundaryConstraintMode="inbounds-bbox", ...
    ObjectsInSceneMaxOverlap=0.3);

Returns the augmented image, the bounding box of the inserted object, and a logical mask of where content was pasted.

Parameters

objectInsertionDatastore
ParameterDefaultPurpose
NumObjectsToInsert1Scalar or [min max] range of objects per image
OutputFormat"InstanceSegmentation""ObjectDetection", "InstanceSegmentation", or "SceneClassification"
BoundaryConstraintMode"inbounds-bbox"How objects are constrained at image boundary
ObjectsInSceneMaxOverlap1.0Max overlap ratio with previously inserted objects (0–1)
MaxInsertionAttempts10Attempts to find valid placement before skipping
BlendMethod"guidedfilter""guidedfilter", "poisson", "none", or custom @(dest,src,mask)
GeometricAugmentationidentityFunction handle returning affinetform2d
BoundaryConstraintMode
ModeBehaviorUse When
"inbounds-bbox"Bounding box must fit entirely within destinationDefault; works well for blob-like defects
"inbounds-exact"Exact mask shape must fit (FFT-based erosion)Elongated/irregular shapes, or object nearly fills constraint region
"center"Only object center must be in bounds; clipping allowedObjects at edges are realistic (e.g., partially visible parts)

Use "inbounds-exact" when the object (including after geometric augmentation with rotation/scale) is large relative to the RegionConstraintMask area — the bounding-box approximation is more likely to fail to find valid placements.

BlendMethod
MethodEffectUse When
"guidedfilter"Edge-aware blending via guided filterDefault — good general-purpose boundary blending
"poisson"Seamless cloning that adapts object color to destinationObject color doesn't naturally match the destination region
"none"Direct pixel paste, no blendingSource already matches destination appearance
@(dest,src,mask)Custom blend functionSpecial blending needs

Decision Framework

SituationApproach
Need synthetic dataset for YOLOX trainingobjectInsertionDatastore → trainYOLOXObjectDetector
Best accuracy from limited labelsSynthetic pre-train → real fine-tune
Training speed matterswriteall to disk, train from files
Maximum variety per epochOnline datastore (direct to trainer)
Need reproducible experiments or visual QAwriteall to disk
Custom insertion logic or single imageinsertObjectInImage directly
Objects can be partially visible at edgesBoundaryConstraintMode="center"
Large objects in small constraint regionBoundaryConstraintMode="inbounds-exact"
Defects vary in scale/rotation in real dataGeometricAugmentation with randomAffine2d
Inserted object color doesn't match backgroundBlendMethod="poisson"
Need instance masks for trainingOutputFormat="InstanceSegmentation"

Conventions

  • Always: provide source data as {Image, Boxes, Labels, Masks} (4-element cell)

  • Always: use categorical for labels; all reads must share the same categories

  • Always: use GeometricAugmentation to add scale/rotation variation

  • Never: write intermediate COCO JSON — the datastore integrates directly with MATLAB trainers

  • Never: build DIY copy-paste pipelines from low-level primitives when these functions exist

  • Prefer: "guidedfilter" blending for most industrial defect insertion

  • Prefer: "poisson" when object color doesn't naturally blend into destination

  • Prefer: synthetic pre-train + real fine-tune over synthetic-only training

  • Prefer: OutputFormat="ObjectDetection" for YOLOX training

  • Prefer: on-disk generation when training speed is a priority

Common Mistakes

MistakeWhy It's WrongCorrect Approach
Writing to files then converting to COCO JSONUnnecessary complexitywriteall produces .mat files directly usable as training input
Source data missing masks (3 elements)Datastore requires 4-element cellAlways include masks: {Image, Boxes, Labels, Masks}
Building DIY alpha blending pipelineReinvents existing functionalityinsertObjectInImage with BlendMethod
No geometric augmentationAll synthetic objects same scale/orientationGeometricAugmentation=@() randomAffine2d(...)
ObjectsInSceneMaxOverlap=1 with many objectsObjects pile on top of each otherSet to 0.2–0.3 for realistic placement
Training only on synthetic dataDomain gap limits accuracyPre-train synthetic, fine-tune on real
"inbounds-bbox" with large irregular objectsFails to find valid placementsSwitch to "inbounds-exact"
Labels not categorical or categories mismatchTraining fails on inconsistent labelsEnsure all reads return same categorical categories

Copyright 2026 The MathWorks, Inc.


Requirements and compatibility

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Attribution and licence

Created by
MathWorks
Publisher
MathWorks (Official)
Source
matlab/matlab-agentic-toolkit · skills-catalog/image-processing-and-computer-vision/matlab-use-visual-inspection · commit 2a7f215
Licence
BSD 2-Clause License (redistribution allowed)
  • LICENSE (added by AutoGineer from LICENSE.md)
  • ATTRIBUTION.md (written by AutoGineer)
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