Material Analysis Using Wave/Particle Radiation TRIZ Cases

Calculates XRF detection limits with absorption/excitation and overlap corrections, improving quantification reliability and sample selection.

Measured intensities are theoretically fluctuated to display standard deviation with correction-component effects, avoiding iterative XRF analysis.

An automated pill transfer mechanism moves from an offset pickup position to aligned drop paths, reducing contamination and manual handling in fusion prep.

Uses square system matrices to find exact inverse discrete Radon solutions from limited scan angles while reducing reconstruction computation.

Angular offset correction and pixel splitting re-bin multi-channel X-ray scans into even angle bins for sharper diffraction peak resolution.

Neutron moderation and sample positioning improve formation capture gamma spectrum accuracy and alignment with downhole logging conditions.

Precomputed DOE-based signal matching improves semiconductor profile estimation accuracy while reducing training burden and ambiguity.

Variable TDS shift strobes match scan velocity to keep pixel size constant, using acceleration-phase data to cut dose waste and scan time.

Polychromatic x-ray simulation and reference-path calibration improve 3D mineral phase identification and reduce boundary misassignment.

Selective merging of crystal diffraction data uses completeness and R-factor criteria to cut processing load while improving structure reliability.

Calibration data is captured by moving a variable-thickness phantom on the existing CT filter, reducing phantom swaps and added hardware.

Distributed smart sample containers manage and adapt specimen-specific evaluation steps across external devices without a costly central controller.

Wireless transmission from an embedded radio circuit replaces slip rings in X-ray detector modules, cutting wear, contamination, and maintenance.

A trained neural network separates discrete neutron components from noisy photo-nuclear spectra, enabling light element detection with conventional photon sources.

Spectroscopic tracer materials embedded in decorative panel polymers enable material identification, layer separation, and more effective recycling.

Porous polymer claddings with tuned pore sizes let an asymmetric Mach-Zehnder sensor detect ammonia with high sensitivity and simpler fabrication.

Portable XRF and PGNAA measurements of proxy elements predict rare earth presence in feedstocks, enabling faster on-site sorting and selective mining.

A seed-layer laminate improves copper adhesion without heavy surface roughening, enabling finer wiring and lower transmission loss.

Paramagnetic beads with spacer and capture proteins enrich scarce targets on cryo-EM grids, reducing sample loss and preserving native structure.

A motorized Bonse Hart analyzer with a storage chamber enables continuous USAXS, SAXS, and WAXS measurements without manual removal.

Non-uniform FLR spacing in the junction termination spreads electric field peaks, preserves active detector area, and improves surface-charge tolerance.

Off-time synchronized to counter switching suppresses double counting in continuous radiation exposure and improves photon count accuracy.

Reference particles build a size-composition EDX curve that classifies sub-200 nm wafer contaminants with less substrate error.

A retreat buffer holds measured sample containers when the tray is mispositioned or occupied, preventing return-path damage in automated analyzers.

A light beam or curtain monitors EBSD detector clearance during active electron-beam operation, avoiding false safety and minor collisions.

Pre-imaging angle checks and user alerts keep the x-ray emitter and detector aligned, preventing misoperation and improving image quality.

A movable parallel slit narrows the X-ray beam for minute-region measurement while keeping irradiation uniform in a compact goniometer.

Physics-based WDX intensity modeling corrects collimator and background effects to estimate sample composition and layer thickness faster.