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MordeTech

Solution

AI Vision Quality Inspection

Cameras and trained models that judge every part at line speed, so defects are caught at the station that produced them.

Catch the defect where it is made, not at final inspection or at the customer.

What this addresses

  • Defects found at final inspection after value has already been added
  • Sampling misses intermittent faults that only appear at speed
  • Inspection consistency drops across shifts and operators
  • No usable record of what failed, when, or on which station

What we build

Surface and dimensional checks

Scratches, porosity, burrs, weld quality, print and label verification, presence and absence, dimensional gauging against tolerance.

Line-speed decisions

Inference runs on an industrial edge device beside the line. The verdict reaches the PLC in time to divert the part on the same cycle.

Trained on your parts

Models are built from images of your own production, including the defects your team actually sees, rather than a generic library.

Evidence for every call

Each decision stores the image and the reason, so quality can review borderline cases and argue from the record.

Operator-facing, not a black box

HMI screens show why a part failed. Operators can flag a wrong call, and those corrections feed the next training round.

Technology

  • Industrial cameras and controlled lighting
  • Edge inference hardware
  • PyTorch / ONNX
  • Siemens S7-1500 integration
  • OPC UA to MES or SCADA

How it integrates

  • The vision station is added alongside the existing line, not in place of it
  • Reject handling is wired through the PLC so existing safety interlocks are untouched
  • Runs locally; a network outage does not stop inspection

Estimate the saving

Enter your own figures. Every assumption behind the result is listed, and nothing is hidden inside the calculation.

Estimated annual saving

₹19.44 L

Units per year
7,20,000
Defects per year
14,400
Defects caught
12,960
Assumptions used
  • 1,200 units per shift × 2 shift(s) × 300 days
  • 2% of production is currently defective
  • The system catches 90% of those defects
  • Each defect caught avoids ₹150 of scrap, rework and handling
  • Savings are gross: system cost, installation and running cost are not deducted

This is an estimate from the figures you entered, not a quotation. It shows gross savings only — system cost, installation and running cost are not deducted. Real detection rates depend on whether the defect is reliably visible under your production conditions, which is what a proof of concept establishes.

Discuss a proof of concept

Common questions

What is required for an AI vision proof of concept?

Sample parts covering good production and the defect types you care about, access to the station for mounting and lighting trials, and agreement on what counts as a defect. A proof of concept establishes whether the defect is reliably visible under production conditions before any line changes are committed.

Does production data leave the facility?

Not unless you choose it. Inference runs on an edge device inside the plant. Images and results stay on your network by default. If you want remote dashboards, we agree exactly what is sent and how it is secured before anything is configured.

Start with an assessment

We walk the line with your team and tell you where the largest opportunity is — whether or not that is this solution.