Material Analysis Using Wave/Particle Radiation TRIZ Cases

Position sensitive detectors acquire cosmic ray track information to reconstruct particle trajectories through moving objects.

A darkroom security inspection apparatus uses a sampling assembly with conveyor and X-ray detection to position objects for analysis.

A portable X-ray fluorescence visualizer detects induced photons to image elements and biological materials within a patient.

A mineral classification system combines rules-based and similarity metric approaches to automate identification.

A wafer orientation measurement system detects tilt at the scatterometry spot using single-point optical sensing.

A movable shielding belt directs ion beams to etch thin-film specimens, preventing crystal distortion and surface flatness loss during preparation.

Low attenuation spacer pads maintain body part separation during dual energy x-ray absorptiometry scans.

L-shaped detector arrays enable multi-angle data acquisition without increasing the overall apparatus size, reducing floor space for safety inspections.

Computational correction replaces physical collimators, reducing space occupation and non-scattered X-ray loss while improving image quality.

Fourier filtering removes absorption contrast artifacts from Zernike phase contrast images, enabling accurate 3D computed tomography reconstruction.

An X-ray imaging device processes patient images to extract medical instrument information and adapts emission parameters in real-time.

Dynamic collimator positioning minimizes unnecessary X-ray exposure while maintaining required reconstruction range coverage.

A monochromator uses two offset cylindrical lenses to deflect and correct a charged particle beam path.

Segmented arcuate X-ray sources in a stationary CT system acquire mathematically complete projection data, eliminating missing view artifacts.

Robotic arms dynamically track moving joints to capture in vivo images under natural load conditions, resolving the limitation of stationary fluoroscopy.

A charged particle beam magnetic lens deflects ion beams into component beams for precise impurity identification.

A multi-motion inspection head positions a millimeter waveguide probe along X, Y, and Z axes to scan fasteners.

Polymer sample receptacles enable reliable heat sealing for beam analysis.

A hydro-mechanical coupling experimental device integrates a CT scanning room with a transparent pressure box to observe internal structural changes.

A hybrid metrology system communicates measurement results between optical and electron beam tools to enhance estimation of geometric parameters.

Backscattered electron imaging detects subsurface voids in microscopic metal features, enabling early yield loss identification before final fabrication.

Per-pixel capacitor accumulation converts analog signals to digital values, eliminating noise interference and reducing power consumption in X-ray CT systems.

Segmenting the sealing interface from sample containment allows evacuation of irregular, non-rigid specimens without leaks.

Collimators block shallow radiation to resolve depth-specific defects in fuel rods, overcoming transmission limits.

A differential inspection method calculates pattern profile changes using Bayesian analysis of scattered radiation signals from reference and perturbed targets.

Dual-detector X-ray diffraction contrast tomography captures diffracted beams alongside direct transmission to reconstruct three-dimensional grain structures.

Adjusting X-ray tube current modulation patterns compensates for positional displacement between the subject and compensation filter.

A tabletop x-ray spectrometer employs a laser-driven plasma source and cryogenic microcalorimeter array detector to collect photons.

A combined XPS and Raman spectroscopy system achieves precise beam alignment within a shared vacuum environment.

Pivotable stops adjust aperture size and distance from the focal spot to minimize scattered radiation while maintaining homogeneous detector illumination.

A transparent tubular member surrounded by ultraviolet light sources directs radiation inward to sterilize air and outward to disinfect surfaces.

Software-based processing system identifies and fills enlarged pores in scanned rock images to generate accurate digital representations.

Tilted beam geometry reduces physical interference between object and source, improving throughput for laterally extended objects.

A pattern-measuring device calculates scores for circuit edges using benchmark distances to quantify deformations.

Segmented light curtains and rim sensors detect approaching objects to prevent mechanical damage to sensitive X-ray area detectors.

A control apparatus varies separation distances between an X-ray source and a rotation center to acquire projection images at different magnification ratios.

Light-absorbing composite particles use thermophoresis to drive propulsive motion, resolving insufficient cross-linking in latex agglutination methods.

Parallel X-ray tube and detector motion maintains constant projection angles, resolving resolution loss at oblique views to extend longitudinal field of view.

Anti-aliasing filters in imaging detector readout electronics provide electrical isolation for individual pixel channels.

Segmented phantom design captures half-shadow and scattered ray patterns at edges, enabling precise artifact suppression in photon counting detectors.

A switching circuitry connects detector elements to multiple data acquisition system elements.

Fluorescence quenching microscopy resolves calibration drift by converting optical contrast into stable fluorescent signals for accurate layer counting.

Scanning electron microscope electron beams undergo quality verification through power spectral density curve analysis of line pattern edges.

Integrated positioning and support elements in the housing eliminate measurement inaccuracies from unstable hand-held operation.

An optical detection system interprets hand gestures to adjust medical equipment parameters without traditional input devices.

Continuous spectral acquisition captures X-ray energies during irradiation, enabling post-measurement composition analysis without sample degradation.

A carbon nanotube film covers a metallic grid to create a microporous structure.

Oblique focused ion beam cutting eliminates brightness differences and focus issues in polymer filler dispersion evaluation.

Automatic image comparison detects tissue property changes during radiation treatment to adjust system parameters.