DescriptionThe elliptical lung–spine phantom is designed to simulate anatomical structures and radioactivity distributions of the human upper thorax. It includes fillable lung inserts and a spine insert, enabling realistic evaluation of acquisition and reconstruction methods in cardiac and pulmonary imaging. The phantom is particularly suited to analyze non-uniform attenuation and scatter effects in ECT and SPECT studies and for advanced research work.
Features- Elliptical phantom simulating the human upper thorax
- Fillable lung inserts and spine insert included
- Lung inserts fillable with polystyrene beads and water
- Simulated lung density approximately 0.3 g/cm³
- Optional cardiac insert available separately
- Body and inserts made of transparent PMMA (polymethyl methacrylate)
- Suitable for cardiac and pulmonary ECT studies
Cylinder dimensions- Inner diameter major axis: 305 mm
- Inner diameter minor axis: 221 mm
- Inner height: 186 mm
- Wall thickness: 6.4 mm
Volumes- Empty cylinder: ~9.5 L
- Left lung without beads: ~0.9 L
- Right lung without beads: ~1.1 L
- Left lung with beads: ~0.36 L
- Right lung with beads: ~0.44 L
- Cylinder volume with lungs: ~7.4 L
Models- ECT/LUNG-SPINE/P - Elliptical lung–spine phantom
- ECT/CAR/I - Optional cardiac insert
Technical characteristics / specifications- Main use: anatomical simulation and activity distribution for ECT and SPECT; evaluation of attenuation and scatter corrections
- Material: body and inserts in transparent PMMA (polymethyl methacrylate)
- Lung inserts: fillable with polystyrene beads and water to simulate aeration and lung density
- Simulated lung density: ~0.3 g/cm³
- Spine insert included for thoracic anatomical simulation
- Cardiac insert: optional and sold separately (model reference ECT/CAR/I)
- Dimensions: major axis 305 mm, minor axis 221 mm, inner height 186 mm
- Wall thickness: 6.4 mm
- Internal volumes: empty cylinder ~9.5 L; lung volumes and cylinder with lungs as indicated above
- Applications: quality control, advanced research, evaluation of acquisition and reconstruction methods in nuclear imaging