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Installed MQS bunker-based shell inspection system with two gantry towers and a central shell positioning stage

Shell / Ammunition Inspection Solutions

One Application. Two Inspection Architectures.

MQS Technologies provides Digital X-ray inspection solutions for artillery shells and ammunition across different calibres. The inspection architecture is selected around the calibre, material, wall thickness, required penetration, throughput and facility layout.

Cabinet-based · 160 kV to 450 kVBunker-based · LINAC 2–6 MeVDFPD imaging

Cabinet-Based and Bunker-Based Digital X-ray Inspection for Artillery Shells & Ammunition

01Cabinet-Based Systems

Integrated Digital Radiography for production inspection.

  • Suitable where shell size, penetration requirement and workflow fit a cabinet configuration.
  • Configurable MQXR source options from 160 kV to 450 kV, depending on the application.
  • Can integrate shell rotation, indexing, preset programs and DFPD imaging.
  • Designed for repeatable inspection with a compact, engineered system footprint.
02Bunker-Based Systems

High-energy inspection for demanding penetration requirements.

  • LINAC-based Digital Radiography installed in a shielded bunker.
  • High-energy options in the 2–6 MeV range, selected according to penetration needs.
  • Custom motion, positioning and handling can be engineered around shell geometry and bunker layout.
  • Suited to applications where larger or denser sections require deeper penetration.

The inspection method stays the same. The deployment architecture changes.

Both configurations combine the X-ray source, digital detector, manipulation and software into a system engineered around the shell and the inspection objective. The final source, detector and handling configuration is application-specific.

How MQS Selects the Right Configuration

Selection factorWhat MQS evaluates
Shell / ammunition sizeCalibre, diameter, length and handling constraints.
Material & wall thicknessDensity and penetration required to reveal internal conditions.
Inspection objectiveDefect target, required image quality and evidence / documentation needs.
ThroughputCycle time, batch size and automation requirement.
Facility conceptCabinet deployment or integration into a shielded bunker and production layout.

Cabinet-Based Shell Inspection

Automated Digital Radiography for Repeatable Production Inspection

For applications that fit a cabinet-based architecture, MQS can combine digital X-ray imaging with automated shell handling, rotation and indexing. A reference MQS shell-inspection configuration uses a dual-station workflow to improve consistency and reduce manual dependency.

Reference Automated Workflow

Render of the reference MQS automated shell inspection and handling configuration: X-ray source on a vertical column, shell tray on a linear frame, inclined loading chute and a trolley, with lettered callouts A to E

Reference MQS automated shell inspection and handling configuration

Bunker-Based Shell Inspection

High-Energy LINAC Inspection for Greater Penetration

When the inspection requires higher penetration than a cabinet-based configuration can provide, MQS can engineer a bunker-based shell inspection system using a high-energy LINAC source. The X-ray source, detector, shell positioning and control architecture are integrated around the shielded bunker and the required inspection sequence.

Engineered motion, detector positioning and handling architecture
Installed bunker-based shell inspection configuration

Representative MQS bunker-based LINAC shell inspection systems. Final configuration is engineered around the calibre, penetration requirement and bunker layout.

High-Energy Imaging

Penetration matched to the application.

  • High-energy source options in the 2–6 MeV range are available depending on the required penetration.
  • Source and DFPD detector pairing is selected for the component and imaging objective.

Bunker Integration

Designed around the facility.

  • System architecture is integrated into a shielded bunker rather than a compact cabinet.
  • Motion, detector positioning and controls can be adapted to the available layout.

Custom Handling

The shell defines the mechanism.

  • Rotation, indexing and positioning can be configured around calibre and shell geometry.
  • Automation can reduce manual handling and improve repeatability.

Digital Workflow

From image capture to review.

  • Digital imaging supports repeatable inspection, image storage and documentation.
  • Preset or programmed sequences can be developed around the inspection requirement.

Cabinet or bunker is an engineering decision, not a product hierarchy.

The right architecture depends on the shell, penetration requirement, throughput and site conditions. MQS can recommend the simpler cabinet configuration where it is sufficient, and move to a LINAC-based bunker solution when the application demands higher energy or a larger installation envelope.

Technical Configuration

Source and Detector Options

The supplied shell inspection material lists multiple X-ray source and DFPD options. Exact pairings should be finalized after the component and inspection requirement are reviewed by MQS engineering.

X-ray Source Options

System architectureX-ray source optionsTypical deployment logic
Cabinet-BasedMQXR 160 / 225 / 320 / 450 seriesSelected when the required penetration and component envelope fit an integrated cabinet system.
Bunker-BasedHigh Energy / LINAC 2–6 MeVSelected when the application requires deeper penetration, larger handling space or bunker integration.

DFPD Detector Options

DetectorX-ray RangePixel SizeActive Area
MQXRD 0822 XX0–16 MeV200 µm200 × 200 mm
MQXRD 3025 XX0–450 kV139 µm250 × 300 mm
MQXRD 1621 XX0–16 MeV200 µm400 × 400 mm
MQXRD 4343 HE XX20–16 MeV139 µm427 × 427 mm

Common Capabilities Across Both Architectures

01

Configurable Energy

Match the source to the material thickness and penetration need.

02

Digital Imaging

DFPD options support clear image capture and documentation.

03

Automation

Rotation, indexing and programmed sequences can improve consistency.

04

Custom Engineering

Handling, motion and layout can be adapted to the application.

Applications

Suitable for inspection of artillery shells and ammunition across calibres. The same engineering approach can also be extended to similar cylindrical inspection applications where internal integrity must be verified without destructive sectioning.

Bring Us the Calibre. We'll Engineer the Inspection.

Share the shell size, material, wall thickness, inspection objective, throughput and available facility layout. MQS can recommend a cabinet-based system or engineer a bunker-based LINAC solution around the requirement.

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