Material Analysis Using Wave/Particle Radiation TRIZ Cases

A light-tight imaging setup standardizes drill cuttings analysis with UV and visible illumination to reduce operator bias and ambient-light error.

X-ray small angle scattering compares electron density distributions to detect molecular shape changes and motion in solution for biopharma quality control.

3D volume masks limit micro-CT reconstruction to the sample region, cutting memory use and iterative processing time in air-filled scans.

3D masks and bounding boxes limit reconstruction to the sample area, cutting memory use and iterative X-ray micro tomography processing time.

Multiple X-ray sources and adjustable collimation reduce scatter and cone artifacts, enabling more precise and repeatable CBCT measurements.

A movable slit shifts X-ray incident angles to interpolate missing wavelengths and improve spectral resolution without smaller detector elements.

Terahertz scanning detects and localizes stator winding insulation defects in situ, avoiding high-voltage damage and incomplete field-based testing.

A variable acceptance-angle collimator cuts axial divergence and low-angle peak distortion while preserving X-ray intensity across scans.

An inner shielding portion blocks primary X-rays from the aperture edge, cutting aperture fluorescence noise and improving XRF signal clarity.

Deep uncontaminated fluid sampling and 3D pore modeling improve oil saturation accuracy under true reservoir conditions.

Photon radiography quantifies carburization in ethylene furnace coils without destructive testing, cutting inspection time and downtime.

An outer-side endless belt and guide wheel layout lets CT slip rings keep rotating while cutting disassembly time during belt replacement.

Coordinate transforms enable direct convolution on selected CT regions, speeding optical absorption coefficient calculation for tilted planes.

A dual-material target verifies X-ray and optical alignment together, cutting calibration check time for X-ray fluorescence devices.

A fluid-immersed X-ray source and detector assembly cuts bulk and X-ray loss while enabling fast 3D inspection of composite gaps and shims.

Correlating core images, borehole data, caliper enlargement, and loss circulation signals improves secondary porosity mapping and volumetric estimates.

X-ray images track low-density region volume change after strain, giving elastic materials a more reliable wear-performance indicator.

Waveform separation splits an elastic backscatter peak into minor peaks, enabling element identification and sample density evaluation.

Particle composition is identified first, then a matched gas removes EUV mask debris cleanly while minimizing substrate damage.

A Venturi choke with tuned radiotransparency preserves phase fraction accuracy in multiphase flow meters as well flow declines.

Maintenance-time-based temperature holding during power-saving mode cuts detector heat-cycle damage, saves power, and preserves sensitivity.

A cross-grid phase-contrast CT setup uses detector grating feedback to correct beam hardening and scatter, improving material discrimination.

Movable X-ray source, detector, and item platform enable field CT and parcel inspection while preserving imaging accuracy through controlled positioning.

A radiotransparent CT fixture simulates bodily pressure to track fluid movement in absorbent samples with accurate real-time analysis.

Correlating pole figures with a reference spherical function corrects EBSD/TKD frame misalignment and improves texture analysis accuracy.

Randomly scattered cut fiber bundles in paste reduce strength directionality, limit fluff, and support stable high-productivity sheet molding.

Real-time pose tracking of the radiation source and ionization chamber corrects surface density readings without stopping measurement.

Waveform separation of elastically scattered peaks reveals minor peak positions and widths to identify elements and evaluate sample density.

A newly identified FAS gamma subunit clarifies substrate shuttling and supports inhibitor design for KR, ER, and MPT enzymes.

XRF and vision-based classification separates cast, wrought, and extruded aluminum scrap to improve alloy purity and recyclability.

A low-density granular support bed holds components in CT scan orientations, improving image separation while avoiding custom fixture delays.

Dual adjustable graspers stabilize heavy subjects during rotation, enabling clearer 3D X-ray imaging without dropping or instability.

Shielding around backscattering detectors blocks outer-layer scatter, enabling clearer X-ray imaging of inner structures in multilayer objects.

Spatially varying compensators replace temporal modulation to capture Psi, Delta, and spectral data in one frame with higher speed and resolution.

Varying moderator thickness separates thermal and fast neutron effects, enabling more accurate composition analysis from gamma measurements.

A CT-referenced sample holder and positioning setup aligns the target cutting plane for histology while minimizing tissue loss.

Adjustable collimation angles let one backscatter detector array target multiple depths and suspect areas with better adaptability and accuracy.

A sealed, pressure-adjusted container enables vacuum XRF measurement of light elements in liquids without evaporation, film damage, or helium handling.

A motorized object platform replaces manual repositioning and moving X-ray hardware, enabling compact cabinet 2D and 3D imaging.

Ground-based electron and gas-cavity simulation reproduces atmospheric optical radiation, enabling spectral study without costly high-altitude tests.

A dual reflective layer with a controlled adhesive thickness limits thermal warpage in scintillator arrays and preserves detector resolution.

Integrated housing markers and a sliding table align both ends of rock samples in the scanner gantry for more accurate property measurement.

A movable object platform enables automatic 2D and 3D imaging without manual repositioning or source-detector motion, reducing cabinet complexity.