On the roadmap · planned

Micro-CT for additive and cast parts.

X-ray micro-computed tomography rotates a part in an X-ray beam and reconstructs its full internal volume from hundreds of projections. It sees porosity, voids, and inclusions in three dimensions, and it is on the Sondera roadmap so the same defect analysis and reporting can run on volumetric data.

The modality

A full 3D view of what is inside.

In micro-CT, a part sits between an X-ray source and a detector and rotates a fraction of a degree at a time. At each angle the detector records a projection, a shadow image of how much the material absorbs. Hundreds or thousands of these projections are combined by reconstruction into a stack of cross-sectional slices: a complete 3D volume of the part at micrometer resolution.

Because every voxel carries a density value, internal features stand out on their own. A pore is a low-density spot, an inclusion a high-density one. There is no echo to interpret; the geometry is there to measure directly.

X-ray sourcerotating partdetectorporesreconstructed slice

What it measures

What tomography reveals.

Porosity and voids

Gas pores and shrinkage voids in castings and additive parts, counted, sized, and located in 3D.

Inclusions and density

High- and low-density inclusions and local density variation, straight from the reconstructed voxels.

Internal geometry

Wall thickness, channels, and lattice structures measured non-destructively, even where no probe can reach.

Cracks and delaminations

Volumetric cracks and layer defects in additive parts, seen through the full thickness.

How it works

From projections to a signed-off report.

01

Rotate and project

The part rotates in the X-ray beam while the detector records a projection at each angle.

02

Reconstruct the volume

Projections are reconstructed into a 3D stack of density slices at micrometer resolution.

03

AI defect analysis

Models segment pores, voids, and inclusions from the volume and separate real defects from artifacts and noise.

04

Quantify and classify

Each indication is sized, located, and classified with confidence, and porosity is quantified across the part.

05

Map to a decision

Results are compared against acceptance criteria and assembled into a traceable report.

Why micro-CT

Nothing else sees the whole volume.

Where terahertz and ultrasound infer defects from signals, CT measures the internal geometry directly, in three dimensions. For complex additive and cast parts it is often the only way to qualify what is inside.

  • True 3D: the full internal volume, not a surface or a line
  • Direct measurement of geometry and density, not an inferred echo
  • Micrometer resolution on small, complex parts
  • Ideal for additive manufacturing qualification
  • One scan supports metrology and defect analysis together

Where it fits

Built for complex, high-value parts.

Additively manufactured metal and polymer partsCastings and investment castingsElectronics and battery cellsComposite and lattice structuresMedical devices and implantsSmall assemblies and connectors

CT completes the picture: terahertz and ultrasound for fast, in-line or field inspection, micro-CT for the definitive 3D qualification of high-value parts.

How it joins the platform

Volumetric data, the same decision layer.

Micro-CT is planned, not yet live. It brings a different kind of data, a 3D volume rather than a time-domain signal, but the goal is the same: find the defects, size them, and map them to a decision with confidence and a traceable record. The reconstruction and 3D segmentation are the new front end; the detection and reporting layer is shared with the rest of the platform. Tell us if volumetric inspection is a priority for you.

Have parts to qualify in 3D?

Micro-CT is on the roadmap. Tell us about your porosity or internal-defect problem, or send us CT data to analyze, and help us prioritize what comes after terahertz.