Material Analysis Using Wave/Particle Radiation TRIZ Cases

High-intensity pulsed UV-B radiation sterilizes complex enclosures in seconds, eliminating harsh chemical waste and rinse cycles.

Replacing electrical wiring with optical detection via a scintillator eliminates complex circuit immersion, enabling straightforward sample observation.

Photoresist coating fills pores and shields rock samples from focused ion beam damage, reducing curtain effect artifacts to improve image accuracy.

A shearography system detects lithium-ion battery seal integrity through optical surface deformation analysis under pressure.

Structured x-ray radiation patterns illuminate voxels multiple times during continuous relative motion to reconstruct three-dimensional molecular structures.

An integrated turntable device merges vertical guide rails with a rotatable platform, reducing structural complexity while maintaining movement precision.

A digital panoramic dental x-ray imaging system uses a high-frame-rate CdTe-CMOS detector and mechanical manipulator for continuous scanning.

A radiation imaging apparatus divides time-serially obtained photon energy to obtain energy spectra for precise material decomposition.

A carrier device secures manipulators and electrical connectors for transport into electron microscope chambers.

High bias voltage generates strong electric fields in thick semiconductor plates, resolving count rate stability issues while maintaining safety compliance.

Mixed secondary and mirror electron detection resolves resolution-speed contradictions in 100 nm foreign material inspection.

A high-temperature in-situ SEM device uses a tantalum shield and liquid nitrogen cooling to reduce thermal electron interference.

A transfer function maps X-ray spectra between scanners to align reference databases, resolving measurement precision loss from apparatus variations.

A wafer-to-design image analysis system aligns scanning electron microscope images with circuit layouts to automate critical dimension measurement.

Counter-vibration generation unit cancels operational vibrations at the source, reducing structure-borne noise without adding structural volume.

A trace detection method using X-ray fluorescence spectrometry with a standard addition technique to identify heavy metals.

Multi-energy x-ray imaging separates fat, water, and iodine signals to enable accurate liver fat quantification in contrast-enhanced studies.

Segmented inner and outer temperature devices maintain stable sample conditions without housing interference.

Flat-ring supporting base eliminates fragile rods, ensuring mechanical strength and easy assembly for small specimen CT evaluation phantoms.

A calculating device simulates secondary X-ray intensity for each optical path to determine sample composition.

A graph generation unit plots X-ray spectra on a root energy axis to correct sensitivity differences between spectrometers.

Lateral actuator mechanisms move collimators in and out of the X-ray beam path, eliminating expert reconfiguration time for different measurement applications.

A charged particle beam pattern writing apparatus calculates electric field intensities across mesh-shaped cell regions to adjust irradiation positions.

Peak-shift criteria calculate accurate lattice parameters independent of measurement errors and analyst variability.

Viscoelastic vibration-absorbing portion suppresses mechanical vibrations in electron microscopes to enhance spatial resolution.

Pulsed X-ray lasers isolate target signals from container interference, enabling three-dimensional profiling without complex tomography.

A lithographic apparatus control system applies temporal adjustments to pattern images along a scan path.

External infrared light stimulates de-trapping of trapped space charges in photon-counting detectors, reducing recovery time and polarization effects.

Simultaneous kV cone-beam imaging provides real-time feedback to reduce healthy tissue irradiation.

Protrusions on the goniometer head engage recesses in the sample holder to resolve attachment reliability issues with fragile crystalline sponges.

Correlating x-ray imaging geometric data with EDXRF elemental concentration measurements resolves detection reliability limits for sub-micron features.

Segmenting detection modes resolves the trade-off between imaging depth and resolution while minimizing patient exposure through scatter event utilization.

Segmenting breast imaging into low-resolution screening and targeted high-resolution scans resolves the trade-off between spatial resolution and radiation dose.

An inorganic tracer solves detection difficulties by allowing precise quantification of water-repellent additives in cured cement.

Deep learning integration of feldspar content and composition data resolves low accuracy issues in traditional quartz-based weathering resistance evaluations.

Pattern-based pre-charging stabilizes secondary electron emission, reducing brightness fluctuations that degrade measurement precision.

A continuous phosphor screen overlies a photodiode array, eliminating precision alignment fixtures and reducing manufacturing complexity.

A defect inspection device displays a two-dimensional distribution diagram of defect candidates to facilitate threshold setting.

Mirror-mode electron-beam imaging detects electrical defects using voltage contrast sensitivity in the tens of milli-volts.

A grating-based X-ray imaging system generates phase contrast and dark field information to enhance material recognition.

A distributed X-ray source eliminates the complex circular slip ring structure by generating radiation at fixed positions, enabling high-speed 3D imaging.

A nanoscale tip with low surface energy coating selectively adheres debris particles, preventing damage to high-aspect ratio structures during cleaning.

Generator feedback current normalizes CT detector output, stabilizing calibration and reducing radiation damage to reference detectors.

A pet litter box positions a germicidal ultraviolet lamp inside the container to irradiate absorbent granular material directly.

A charge guiding groove transmits positive charges to enhance reflected secondary electron generation, improving image contrast value on the NMOS area.

A nanotip microscope system reconditions probes using field evaporation and ion imaging techniques.

A transformation aligns measured and reference x-ray spectra to calibrate energy-dispersive detectors.

Broad ion beam source device segments etching stages to resolve speed and precision contradictions in nanostructure imaging.

A monochromator mounted on a two-degree-of-freedom ball joint enables precise rotation and positioning within an X-ray optics assembly.