Matlab Use Visual Inspection
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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
Download the skill as a ZIP:
https://autogineer.com/agent-skills/matlab/matlab-use-visual-inspection/downloadUnzip 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
matchshapeto 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+imwarpto canonical orientation before training and inferenceChoose detector by data availability — >100 good images:
studentTeacherAnomalyDetector; <100 images:patchCoreAnomalyDetector; have anomaly labels:fcddAnomalyDetectorUse
classifyfor inference — returns[tf, score, map]for anomaly map visualization
Object Detection (YOLOX)
Use
AutoResize=falsefor full-resolution inference — prevents downscaling that loses small defects. Pair with tiled training when objects are small relative to imageSynthetic data benefits YOLOX most — copy-paste augmentation via
objectInsertionDatastoreis proven for detection tasks
Measurement
Vision fixturing pattern —
matchshapelocates part → transform measurement positions to detected pose → measure at repositioned locationsCalibrated measurements require
imageToWorldPlane— converts pixel measurements to physical units using camera calibrationimages.geotrans.Warperfor production rectification — precompute the mapping once, apply per frame for maximum throughput
Deployment
Always use
persistent+isemptyguard in codegen entry points — load model once, infer many timescoder.loadDeepLearningNetworkfor DL models — notcoder.load(which is for structs/shape models)coder.Constantfor MAT file path — codegen requires compile-time constant pathsPass detector objects directly to
exportONNXNetwork— never extract.Networkor.Backbonefirst. The object-level export includes pre/post-processing logicONNX 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:
Acquire — Get the image (Image Acquisition Toolbox)
Fixture — Locate a stable reference feature (
matchshape)Reposition — Transform measurement positions to detected pose
Inspect — Apply measurement or classification at repositioned locations
Decide — Compare to tolerances → pass/fail
Communicate — Send results to PLC/SCADA (Industrial Communication Toolbox)
Common Hybrid Patterns
| Pattern | Rule-Based Part | AI Part |
|---|---|---|
| Fixture + classify | matchshape locates part, crops ROI | Anomaly detector on cropped region |
| Fixture + detect | matchshape locates part | YOLOX finds defects relative to fixture |
| Pose normalize + anomaly | matchshape + imwarp to canonical pose | Anomaly detector on normalized image |
| Segment + measure | Thresholding / morphology | regionprops on segmented blobs |
Primary Decision: Rule-Based vs. AI-Based
| Choose Rule-Based When | Choose AI-Based When |
|---|---|
| Defects have predictable, enumerable geometry | Defect appearance varies unpredictably |
| Lighting and positioning are tightly controlled | Background or part appearance varies |
| Need dimensional measurements (mm, degrees) | Need classification without precise measurement |
| Few or no labeled examples available | Have labeled training data (or can generate synthetic) |
| Require explainable, auditable decisions | Accuracy matters more than explainability |
Key Functions
| Function | Purpose | Toolbox | Available From |
|---|---|---|---|
shapemodel | Build edge-geometry model from template | Visual Inspection Toolbox | R2026b |
matchshape | Find model instances in search image | Visual Inspection Toolbox | R2026b |
caliper | Measure edge distances along a profile | Visual Inspection Toolbox | R2026b |
fitangle | Measure angle between edges | Visual Inspection Toolbox | R2026b |
fitcircle | Measure circle center and radius | Visual Inspection Toolbox | R2026b |
studentTeacherAnomalyDetector | One-class anomaly detection (>100 good images) | Visual Inspection Toolbox | R2026b |
patchCoreAnomalyDetector | One-class anomaly detection (few-shot, <100 images) | Visual Inspection Toolbox | R2026b |
fastFlowAnomalyDetector | Normalizing-flow anomaly detection | Visual Inspection Toolbox | R2026b |
fcddAnomalyDetector | Semi-supervised anomaly detection | Visual Inspection Toolbox | R2026b |
yoloxObjectDetector | Object/defect detection with bounding boxes | Visual Inspection Toolbox | R2026b |
counTRObjectCounter | Counting with intra-class variation (few-shot) | Visual Inspection Toolbox | R2026b |
objectInsertionDatastore | Synthetic labeled training data (copy-paste) | Visual Inspection Toolbox | R2026b |
regionprops | Blob area, perimeter, shape features | Image Processing Toolbox | R2006a |
imageToWorldPlane | Calibrated world-unit measurement | Computer Vision Toolbox | R2022b |
Decision Trees
"I need to detect defects"
| Situation | Approach |
|---|---|
| Defect appearance unpredictable; good-part images only | Anomaly detection |
| Classify defect types with bounding boxes; have labeled data | YOLOX object detection |
| Defects are geometric deviations from known shape | Shape matching + gauging |
| Dimensional out-of-tolerance (too wide, too narrow) | Caliper / fitcircle / fitangle |
"I need to measure parts"
| Situation | Approach |
|---|---|
| Widths, gaps, edge-to-edge distances | caliper |
| Angles between edges | fitangle |
| Hole diameters, arc radii | fitcircle |
| Area, perimeter, shape of segmented blobs | regionprops |
| Need measurements in mm (physical units) | Camera calibration + rectification |
| Part position varies image-to-image | Vision fixturing with matchshape |
"I need to count objects"
| Situation | Approach |
|---|---|
| Identical rigid parts, controlled background | shapemodel / matchshape |
| Intra-class variation, few labeled examples | CounTR (few-shot counting) |
| Multiple classes, complex scenes, have labels | YOLOX detection → count |
"I need to locate parts"
| Situation | Approach |
|---|---|
| Rigid part, known edge geometry | shapemodel / matchshape |
| Variable appearance, multiple classes | YOLOX detection |
"I don't have enough training data"
| Situation | Approach |
|---|---|
| Have segmented defect examples + clean images | Copy-paste synthetic data |
| Good-part images only (no defect labels) | Anomaly detection (one-class) |
| No data at all, defects are geometric | Rule-based (no training needed) |
"I need to deploy"
| Target | Path |
|---|---|
| Standalone app, full MATLAB features | MATLAB Compiler |
| Monitoring dashboard or UI app | MATLAB Compiler |
| Embedded CPU (x86, ARM) | MATLAB Coder |
| NVIDIA Jetson/Orin or dGPU | GPU Coder + TensorRT |
| NPU or AI accelerator | ONNX export |
| Smart camera with vendor SDK | ONNX export |
| Beckhoff industrial PLC | MATLAB 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+isemptyfor model loading in codegen entry pointsAlways: 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.loadfor deep learning models (usecoder.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/matchshapeover YOLOX for locating rigid partsPrefer:
images.geotrans.Warperfor production rectification throughputPrefer: MATLAB Compiler for dashboards and UI-based monitoring apps
References
| Load when... | Reference |
|---|---|
| Training or using anomaly detectors | references/detect-anomaly.md |
| Locating parts by shape, vision fixturing | references/match-shape.md |
| Training or using YOLOX object detectors | references/detect-objects.md |
| Counting objects (shape matching, CounTR, YOLOX) | references/count-objects.md |
| Measuring with caliper, fitcircle, fitangle | references/measure-gauging.md |
| Blob analysis, regionprops, calibrated measurement | references/blob-analysis.md |
| Deploying models (Compiler, Coder, TensorRT, ONNX) | references/deploy-inspection.md |
| Generating synthetic training data | references/synthetic-data.md |
Copyright 2026 The MathWorks, Inc.
Files
- ATTRIBUTION.mdAdded by AutoGineer1.1 KiB
- LICENSELicence file added by AutoGineer1.4 KiB
- SKILL.md12.3 KiB
- manifest.yaml629 B
- references/blob-analysis.md7.0 KiB
- references/count-objects.md6.4 KiB
- references/deploy-inspection.md10.1 KiB
- references/detect-anomaly.md10.0 KiB
- references/detect-objects.md11.4 KiB
- references/match-shape.md7.1 KiB
- references/measure-gauging.md11.1 KiB
- references/synthetic-data.md11.7 KiB
references/detect-objects.md
Object Detection with YOLOX
Train YOLOX object detectors on labeled industrial images and detect defects with bounding boxes. YOLOX is anchor-free with built-in FPN for multi-scale feature fusion — the recommended detector for industrial defect detection.
When to Use
Defect detection requiring bounding box localization
Multi-class defect detection (scratches, cracks, missing components, etc.)
Small object detection in high-resolution industrial images
Deploying object detectors to hardware via MATLAB Coder / GPU Coder
When NOT to Use
Anomaly detection without defect labels — see
references/detect-anomaly.mdTemplate matching / part localization — see
references/match-shape.mdPixel-level segmentation — use semantic segmentation
Only need binary good/bad without localization — use anomaly detection
Model Selection
| Variant | Speed | Accuracy | Use When |
|---|---|---|---|
"small-coco" | Moderate | Higher | Default choice — best P/R vs. latency tradeoff |
"tiny-coco" | Fast | Lower | Constrained hardware, real-time needs |
Larger models give better precision/recall at the cost of higher latency and
compute. "tiny-coco" is the smallest non-depthwise architecture — nano
variants use depthwise convolutions that may not be faster on actual hardware
despite smaller parameter counts.
Default recommendation: Use "small-coco" for training unless deployment
hardware requires the lower latency of "tiny-coco".
Resolution Strategy
| Strategy | When | Key Setting |
|---|---|---|
| Standard (default) | Defects visible at training InputSize, GPU fits full batch | InputSize=[H W 3] — auto-resizes images |
| Tiled training + full-res inference | Small defects lost by resize, full image fits in memory | Train on tiles, detect(..., AutoResize=false) |
| Tiled training + tiled inference | Full image does not fit in CPU/GPU memory at inference | Tile at inference, stitch results with NMS |
The preferred inference approach is AutoResize=false — a single forward pass on
the full-resolution image. This leverages the fully convolutional architecture,
is faster, and is easier to deploy via code generation. Use tiled inference with
stitching only when the full image exceeds available memory.
Use tiled training when defects are small relative to image size and GPU memory limits training at full resolution.
Workflow
Organize data — images + annotation tables with bounding boxes and labels
Create datastores —
imageDatastore+boxLabelDatastore→combineSplit data —
subsetwith shuffled indices into train/val/testAugment —
transformwith geometric augmentations (flip, scale, translate)Create detector —
yoloxObjectDetector(variant, classNames, InputSize=sz)Train —
trainYOLOXObjectDetectorwithtrainingOptionsEvaluate —
evaluateObjectDetection→summarize,precisionRecallSelect threshold — choose operating point from PR curve
Deploy —
detectat chosen threshold; optionally generate code
Key Functions
| Function | Purpose | Toolbox |
|---|---|---|
yoloxObjectDetector | Create/configure YOLOX detector | Visual Inspection Toolbox |
trainYOLOXObjectDetector | Train detector on labeled data | Visual Inspection Toolbox |
detect | Run inference — returns [bboxes, scores, labels] | Visual Inspection Toolbox |
evaluateObjectDetection | Compute AP, precision-recall per class | Computer Vision Toolbox |
mAPObjectDetectionMetric | Training metric for validation monitoring | Computer Vision Toolbox |
boxLabelDatastore | Datastore for bounding box + label data | Computer Vision Toolbox |
blockLocationsWithROI | Select tile locations containing objects (tiled workflow) | Computer Vision Toolbox |
balanceBoxLabels | Balance tile sampling across classes | Computer Vision Toolbox |
blockedImage | Represent large images as tiled blocks | Image Processing Toolbox |
insertObjectAnnotation | Draw bounding boxes on images for display | Computer Vision Toolbox |
Patterns
Standard Training Pipeline
imds = imageDatastore(imageDir, IncludeSubfolders=true);
blds = boxLabelDatastore(annotationTable);
ds = combine(imds, blds);
numImages = ds.numpartitions;
shuffledIdx = randperm(numImages);
numTrain = floor(0.7 * numImages);
numVal = floor(0.15 * numImages);
dsTrain = subset(ds, shuffledIdx(1:numTrain));
dsVal = subset(ds, shuffledIdx(numTrain+1:numTrain+numVal));
dsTest = subset(ds, shuffledIdx(numTrain+numVal+1:end));
dsTrain = transform(dsTrain, @augmentData);
detector = yoloxObjectDetector("small-coco", classNames, InputSize=[800 800 3]);
options = trainingOptions("sgdm", ...
InitialLearnRate=5e-4, ...
LearnRateSchedule="piecewise", ...
LearnRateDropFactor=0.99, ...
LearnRateDropPeriod=1, ...
MaxEpochs=100, ...
MiniBatchSize=20, ...
Shuffle="every-epoch", ...
ValidationData=dsVal, ...
ValidationFrequency=100, ...
ResetInputNormalization=false, ...
OutputNetwork="best-validation-loss", ...
Metrics=mAPObjectDetectionMetric(Name="mAP50"), ...
ObjectiveMetricName="mAP50", ...
L2Regularization=5e-4);
[detector, info] = trainYOLOXObjectDetector(dsTrain, detector, options);Images are automatically resized to InputSize during training and inference by
default. Choose InputSize large enough that your smallest defects occupy at
least a few pixels after resizing.
ResetInputNormalization
false— use for standard uint8 [0,255] images (the common case with COCO pretrained backbones). Skips recomputation of normalization statistics, which speeds up training startup.true— use when input data is outside the [0,255] range expected by the COCO pretrained backbone (e.g., normalized floats, 16-bit images, non-standard intensity ranges). Recomputes mean/std from your training data.
Data Augmentation
Use geometric augmentations that preserve bounding box validity:
function data = augmentData(A)
data = cell(size(A));
for ii = 1:size(A, 1)
I = A{ii, 1};
bboxes = A{ii, 2};
labels = A{ii, 3};
sz = size(I);
tform = randomAffine2d(XReflection=true, Scale=[1 1.1]);
rout = affineOutputView(sz, tform, BoundsStyle="centerOutput");
I = imwarp(I, tform, OutputView=rout);
[bboxes, indices] = bboxwarp(bboxes, tform, rout, OverlapThreshold=0.25);
labels = labels(indices);
if isempty(indices)
data(ii, :) = A(ii, :);
else
data(ii, :) = {I, bboxes, labels};
end
end
endDetection and Visualization
[bboxes, scores, labels] = detect(detector, img, Threshold=0.5);
annotatedImg = insertObjectAnnotation(img, "rectangle", bboxes, labels);
imshow(annotatedImg)Full-Resolution Inference
After tiled training, infer on the full image without resizing:
[bboxes, scores, labels] = detect(detector, fullResImg, AutoResize=false, Threshold=0.5);This is faster and easier to deploy than tiled inference. It works as long as the
full image fits in CPU/GPU memory. Use MiniBatchSize=1 when running on a
datastore to limit memory usage.
Evaluation with Precision-Recall
Run detection at a low threshold to capture the full score range, then analyze:
detResults = detect(detector, dsTest, Threshold=0.01);
metrics = evaluateObjectDetection(detResults, dsTest);
[summaryDataset, summaryClass] = summarize(metrics);Extract precision-recall curve for threshold selection:
[precision, recall, scores] = precisionRecall(metrics, ClassNames="defect");Threshold Selection Strategies
Choose the operating point based on application requirements:
[precision, recall, scores] = precisionRecall(metrics, ClassNames="defect");
P = precision{1};
R = recall{1};
S = scores{1};
f1 = 2 * (P .* R) ./ (P + R);
[~, idxF1] = max(f1);
threshMaxF1 = S(idxF1);
targetRecall = 0.95;
idxRecall = find(R >= targetRecall, 1, "last");
threshFixRecall = S(idxRecall);
targetPrecision = 0.95;
idxPrecision = find(P >= targetPrecision, 1, "last");
threshFixPrecision = S(idxPrecision);| Strategy | When | Tradeoff |
|---|---|---|
| Max F1 | General-purpose balanced | Equal weight to P and R |
| Fix recall (e.g., 0.95) | Safety-critical — cannot miss defects | Tolerates more false alarms |
| Fix precision (e.g., 0.95) | High-throughput — false alarms are costly | May miss some defects |
Size-Based Performance Analysis
Evaluate detection performance stratified by object size:
metrics = evaluateObjectDetection(detResults, dsTest);
boxPrctileBoundaries = prctile(boxArea, [33 66]);
areaMetrics = metricsByArea(metrics, [0, boxPrctileBoundaries, Inf]);This reveals whether small defects need the tiled training workflow.
Class Imbalance Handling
Use ClassWeights when defect classes are imbalanced:
[detector, info] = trainYOLOXObjectDetector(dsTrain, detector, options, ...
ClassWeights=[1 2 3 1 5 2]);Higher weights increase the classification loss contribution for rare classes.
Transfer Learning with Frozen Backbone
For small datasets, freeze the pretrained backbone initially:
[detector, info] = trainYOLOXObjectDetector(dsTrain, detector, options, ...
FreezeSubNetwork="backbone");Then unfreeze and fine-tune with a lower learning rate for best results.
Decision Framework: InputSize
| Image Resolution | Defect Size | Recommended Approach |
|---|---|---|
| ≤1024×1024 | >20×20 px at input | Standard with InputSize matching image |
| >1024×1024 | Still visible after resize | Standard with InputSize=[800 800 3] or similar |
| >1024×1024 | <20×20 px after resize | Tiled training + full-res inference |
If defects are too small after resizing to InputSize, switch to tiled
training: train on crops, infer on the full image with AutoResize=false.
Conventions
Always: use
combine(imds, blds)to create training datastores — not manual cell constructionAlways: use
evaluateObjectDetection+precisionRecallfor threshold selection — not ad-hoc score sweepsAlways: use
mAPObjectDetectionMetricas the validation metric during trainingPrefer:
AutoResize=falsesingle-pass inference — faster, deployable via code generationPrefer:
"small-coco"over"tiny-coco"unless hardware-constrainedPrefer: geometric augmentations (flip, scale, translate) that preserve box validity via
bboxwarpFall back to: tiled inference with NMS stitching only when full image exceeds available memory
Common Mistakes
| Mistake | Why It's Wrong | Correct Approach |
|---|---|---|
| Defaulting to tiled inference with stitching | Unnecessary when image fits memory; harder to deploy | detect(detector, img, AutoResize=false) for full-res |
| Evaluating at default Threshold=0.25 | Misses the full PR curve | detect(..., Threshold=0.01) then analyze PR |
Not specifying InputSize | Network uses default size, may lose small defects | Explicit InputSize based on defect visibility |
| Ad-hoc threshold selection | No principled tradeoff | Use PR curve: Max F1, fix recall, or fix precision |
| Ignoring class imbalance | Rare defects get low AP | ClassWeights proportional to inverse frequency |
Copyright 2026 The MathWorks, Inc.
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- 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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