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PLATFORM 03

Faststream Vision

Faststream Vision builds industrial machine vision systems that run on a production line: imaging chain, illumination, edge inference, PLC handshake and reject actuation. The engineering that decides whether a vision cell works is rarely the model. It is the lighting geometry, the trigger timing, the cycle-time budget and the handshake with the controller that already runs the line.

Machine visionEdge AIOCR / OCVPLCReject automation
Machine vision, in the order it must be engineered
01Defect physicswhat makes it visible02Illuminationgeometry03Optics and sensorresolution and blur04Triggerencoder-locked05Inferenceinside cycle time06PLC handshakeverdict window07Reject and recordtraceabilityImaging first, algorithm second, integration third. Reversing it is the expensive mistake.
SCOPE

What the platform covers.

THE ENGINEERING REALITY

Lighting decides more than the model does.

A defect that is invisible in the image cannot be found by any model. Most failed inspection pilots are lighting failures wearing an algorithm costume — a scratch that only shows under low-angle illumination, a print defect that vanishes under a dome, a specular surface that saturates half the frame.

So the imaging trial comes before the model. Faststream photographs real parts with real defects under several illumination geometries, and only then decides what the detection problem actually is. Frequently it turns out to be a classical vision problem that does not need a learned model at all, which is a better outcome: deterministic, explainable and free of drift.

INSPECTION TYPES

What gets inspected.

Surface defect

Scratches, dents, inclusions, porosity, contamination and coating faults.

Dimensional

Gauging, edge and hole position, gap and flush, profile against tolerance.

Presence and absence

Components fitted, fasteners present, seals seated, contents correct.

Assembly verification

Orientation, sequence, mating and connector engagement.

Print and label

Print quality, label placement, skew, legibility and code grading.

OCR and OCV

Date, lot and serial reading, and verification against expected content.

Colour and texture

Shade matching, gloss, weave and finish consistency.

Weld and seam

Bead geometry, continuity, spatter and undercut.

COMMON QUESTIONS

What engineers ask before they call.

01

What is AI visual inspection?

AI visual inspection is automated optical inspection that uses learned models, running on edge hardware, to classify or locate defects in images captured on a production line. A complete system includes cameras and optics, controlled illumination, encoder-locked triggering, inference hardware, a PLC handshake and reject actuation.

02

Does every inspection problem need a learned model?

No, and it is worth checking. Many problems — dimensional gauging, presence and absence, code reading — are solved more reliably by classical vision, which is deterministic, explainable and does not drift. Learned models earn their place where defect appearance varies in ways a rule cannot capture.

03

How does a vision system integrate with existing line controls?

Through the PLC. The system takes a trigger, returns a pass or fail result within the cycle-time budget, and drives reject actuation through digital I/O or fieldbus. Results and images are passed to MES or a historian for traceability.

KEEP READING

Related work.

BUILD WITH FASTSTREAM

Bring us the difficult part.

Tell us the specification, the constraint and the deadline. Programmes that cross silicon, radio, embedded and AI are where Faststream is strongest.