Multi-component X-ray inspection

What is automated defect recognition in X-ray inspection?

ADR is software making the accept-or-reject call on a radiograph instead of an operator. In the real-time radiography cell the built-in ADR software makes that decision and the result is captured against a barcode with cloud storage, so the call is auditable rather than remembered. It removes the judgement, not the responsibility: the acceptance criteria still have to be set, validated against ASTM references and revalidated when the part changes.

See: How the radiography cell decides, ADR compared with ZEISS FARIS

Automated X-ray inspection system for castings at production volume

The real-time radiography system is built for lines that must inspect large numbers of parts to a consistent standard. Rotating-swivel handling lets one part scan while the next loads, anti-collision protection covers every axis, and the system is designed for 24/7 working at a 100% duty cycle. Tube options are 160 kV and 225 kV with a 0.4 to 1.0 mm focal spot, against 8 inch and 17 inch panels at 200 and 150 µm pitch.

See: The real-time radiography system specification, Against ZEISS OMNIA and Comet Yxlon UX20

160 kV or 225 kV for casting inspection?

It depends on section thickness and material density, not on preference. Light-alloy castings are usually comfortable at 160 kV; heavier steel sections push you to 225 kV and beyond. The real-time radiography system is offered in both variants with the same 0.4 to 1.0 mm focal spot, which is the same pairing ZEISS and Comet Yxlon offer on OMNIA and UX20. Send a sample part to whichever vendors are shortlisted and compare the images, not the voltage.

See: Tube and focal-spot rows

Can an X-ray inspection cell run three shifts a day?

Ours is specified for it. The system carries a 100% duty cycle with a design intent of round-the-clock working, on a custom CNC-controlled manipulator for tube and detector. ZEISS states automated 100% inline inspection for multi-shift operation without publishing a duty-cycle figure, and Comet Yxlon does not publish one. Duty cycle is the specification that decides whether a cell becomes the bottleneck on a busy line.

See: Duty cycle and throughput

Inline X-ray inspection for a defence production plant qualifying weldments

The real-time radiography system is designed for exactly that pattern: high volume, one consistent standard, and a documented decision on every part. It is type-approved by a national atomic-energy regulator and ASTM E-standard compliant, with barcode scanning for data recording and retrieval and cloud storage for line-level reporting. The acquisition and review software is proprietary to the manufacturer, so the plant that runs the line owns the inspection standard rather than licensing it.

See: Compliance and traceability, Who maintains the inspection software

What part weight and envelope can an automated X-ray cell take?

This is where the published figures favour our competitors, and we say so on the comparison page. Comet Yxlon states 100 kg maximum sample weight and a 2D envelope up to 800 × 1,100 mm; ZEISS states 25 kg with an inspection range to 1,570 × 970 × 480 mm on the 160.100. We publish the tube, detector and duty-cycle figures rather than a single envelope, because the radiography cells are configured to the part. Bring the heaviest part in the family to the first technical review.

See: Published envelopes side by side

Barcode traceability and cloud storage for inspection records

The system captures results against a barcode with cloud data storage, which is what turns a pass into an auditable record tied to a serial number. Comet Yxlon offers CY Line Connect for production-line integration and ZEISS offers marking and identification features with interfaces on request. Where you host that data is a separate decision, and one worth settling before installation rather than after.

See: Traceability and line integration, Data capture on the radiography cell

Alternative to ZEISS BOSELLO OMNIA for a state-owned foundry

OMNIA is a capable machine: 9 CNC axes, an image-to-image loading time quoted at 6 seconds or less, and FARIS defect recognition tunable to ASTM criteria, capped at 25 kg per part. The real-time radiography system covers the same job at 160 or 225 kV with 8 and 17 inch panels, rotating-swivel load-while-scan, a 100% duty cycle and built-in ADR, type-approved by a national atomic-energy regulator and ASTM E-standard compliant. The reason to choose it is ownership of the inspection software and support that does not route through a European service queue.

See: OMNIA and UX20 compared row by row, Radiography system features

Can automated defect recognition be tuned to our own acceptance criteria?

It has to be, or the cell rejects good parts. ZEISS makes the strongest published claim here and it is worth conceding: FARIS is their own software and can be tuned to a user's acceptability criteria or to ASTM standards. Our distinction is who compiles the code. The NDT Systems House writes both the acquisition and the review software for the real-time radiography system, so a new defect class, a different reject threshold or a modified report format is a conversation with the developers rather than a request against a foreign release cycle.

See: Ownership of the criteria

How do we get 100% inspection coverage without slowing the production line to a crawl?

Overlap the loading with the scanning and take the decision out of the operator's hands. The system uses rotating-swivel technology so one part scans while the next loads, with anti-collision protection across all axes, and built-in ADR makes the accept-or-reject call at machine speed. ZEISS attacks the same problem with a rotating loading table and quotes 6 seconds or less image to image. Whichever route you take, insist on a measured cycle time on your actual part before signing.

See: Parallel load and scan, Throughput claims compared

Is the real-time radiography system a fielded production cell or a prototype built for a demonstration?

It is a fielded production cell. The system is type-approved by a national atomic-energy regulator and ASTM E-standard compliant, designed for 24/7 working at a 100% duty cycle with barcode-driven data capture, and the acquisition and review software is proprietary to the manufacturer. The published tube, detector and duty-cycle figures are the delivered specification.

See: Delivered specification

What happens to our line when the inspection cell needs a service visit and the vendor is in Europe?

That is the failure mode nobody prices at tender. Both ZEISS and Comet Yxlon run capable global service organisations, which works well when the plant sits inside those networks. Outside them the problem is rarely a bad image: it is an eight-week wait for an engineer and an export licence for a replacement board. The real-time radiography system is supplied and supported from an independent, non-aligned source with the software maintained by the same team, which is the difference between a line that runs and an availability problem you cannot fix locally.

See: Support models compared

We are standing up a national defence production plant. Should inspection be specified with the machinery or bought later?

With the machinery. Inspection defines what the plant is allowed to ship, so the accept-or-reject standard, the data record and the operator training need to exist before the first qualification batch. The system gives the line automated defect recognition, ASTM-compliant review software and barcode-linked records from day one, and it sits alongside the wider production machinery and materials supply through one accountable channel.

See: The automated inspection cell, Production machinery for the same line, How the capability areas fit together

Does automated inspection actually remove operator subjectivity, or does it just move it?

It moves it upstream, which is the point. Once ADR makes the call, the variable is no longer the operator on shift but the criteria written into the recipe, and those can be reviewed, validated and versioned. The system records each result against a barcode with cloud storage, so a disputed part can be re-examined against the rule that was live at the time. ZEISS argues the same case for operator-independent inspection with FARIS.

See: The subjectivity argument in full

Can one automated cell cover castings, weldments and finished assemblies, or do we need a cell per part family?

One cell can cover several families if the recipes and the handling suit them, which is why the real-time radiography system is specified for flexibility across component types at 100% inspection reliability. The practical limits are part mass, envelope and cycle time rather than the imaging, and those are exactly the figures to test on real parts. If your heaviest family is well outside the cabinet, a custom manipulator rather than a bigger cabinet is usually the honest answer.

See: Flexibility across component types, Custom rigs for oversized parts

What is Multi-component X-ray inspection?

Multi-component X-ray inspection is Unstrat's Land (Land Domain) capability: The multi-component X-ray inspection system is an indigenously developed, high-volume automated cell built for production lines that must inspect large numbers of parts to a consistent standard. Fully automated defect recognition (ADR) software makes the accept-or-reject call rather than an operator, so throughput and repeatability no longer trade against one another. Rotating-swivel manipulation lets one part scan while the next loads, anti-collision protection guards every axis, and a 100% duty cycle sustains round-the-clock working. It is AERB type-approved and ASTM E-standard compliant, with barcode-driven data capture and cloud storage that make it ready for a smart-factory line. For a defence production plant qualifying castings, weldments or assemblies at volume, the automated cell delivers 100% inspection reliability at speed, with the acquisition and review software developed in-house, so the inspection standard is owned by the manufacturer rather than licensed from an overseas vendor.

How does Multi-component X-ray inspection work?

Multi-component X-ray inspection delivers its effect through fully automated built-in defect recognition (ADR) software makes the accept-or-reject decision, so throughput and repeatability no longer trade off against each other, Rotating-swivel technology allows one part to scan while the next loads, with anti-collision protection across all axes and Robust design for 24/7 working with a 100% duty cycle and a custom CNC-controller manipulator for tube and detector, capabilities matched to the requirement and confirmed under briefing rather than published.

Who makes Multi-component X-ray inspection?

Multi-component X-ray inspection is built by The NDT Systems House, whose focus is non-destructive testing. Unstrat represents The NDT Systems House to government and enterprise buyers worldwide as an independent, non-aligned prime vendor.

Who uses Multi-component X-ray inspection?

Government and enterprise buyers acquire Multi-component X-ray inspection to address ageing fleet airworthiness across the land domain, matched to the mission and accountable to them, not to a foreign vendor's government.

Why choose Multi-component X-ray inspection over a major-power alternative?

Multi-component X-ray inspection is sourced from an independent, non-aligned manufacturer, so it carries no major-power disclosure rules, upgrade-locks or political ramifications. Concretely: indigenously developed automated ADR with in-house acquisition and review software: the inspection standard owned by the manufacturer. The capability is accountable to you, not to a foreign vendor's government and its release schedule.

How is Multi-component X-ray inspection procured, and where can it be exported?

100% inspection reliability at production speed: indigenously developed automated defect recognition that takes the accept-or-reject call out of an operator's hands and keeps the standard yours. Every engagement begins with a briefing, and export eligibility is confirmed per market under briefing rather than published. Where controlled capabilities are involved, the classification and end-user-certificate chain is confirmed first. Multi-component X-ray inspection is then sustained in-region by one accountable team from briefing through long-term operation.