Material Analysis Using Wave/Particle Radiation TRIZ Cases

Computational alignment of display regions through image editing reduces sample damage from continuous charged-particle beam irradiation during observation.

An electron microscope positions an X-ray detector in a low magnetic field region using an optical transmission system to prevent SQUID circuit saturation.

Immersion cooling of the x-ray tube and power supply reduces system weight, enabling faster setup for inspections in confined spaces.

Dual-energy backscatter X-ray shoe scanning differentiates materials via atomic number imaging to eliminate false alarms from metallic footwear components.

A two-dimensional X-ray detector captures diffraction patterns while the sample maintains a fixed tilt angle during rotation.

Segmenting particle therapy command values by gantry dependency reduces search latency, increasing patient throughput.

A magnetic body positioned between the objective lens and sample controls electron beam trajectory.

A processing system merges energy dispersive X-ray spectra with secondary electron images to determine material composition.

A GISAXS shape measurement apparatus irradiates substrates with electromagnetic waves at varied incident azimuth angles to calculate precise pattern features.

Rotating cylindrical step-wedge enables half-value layer measurement without stopping the x-ray tube, eliminating service engineer intervention.

A temperature control system adjusts sample heating at the load port to match the vacuum chuck.

Pre-scan imaging defines an expanded region around the target area to detect high pixel values, ensuring accurate main scan initiation despite patient movement.

Continuous sample positioning during electron beam irradiation accelerates tilt series acquisition while reducing the missing wedge effect.

A 4D ultrafast electron microscopy system segments electron beams into single-electron packets for high spatial and temporal resolution imaging.

Adaptive electron backscatter diffraction scanning accumulates patterns from multiple short exposures, reducing total acquisition time and radiation damage.

Engaging reference portions align the sample holder to prevent measurement errors from misplacement in X-ray diffraction analysis.

Visual alert system calculates scatter dose to identify hazardous radiation zones for medical personnel.

An elastic specimen holder secures samples without adhesives, preventing distortion and contamination during SEM analysis.

Partitioned slits in the collimator restrict lateral divergence, enabling simultaneous spatial detection and reducing measurement time.

An inner reflecting layer on a tapered through-hole redirects photons generated by secondary electrons, preventing leakage through the aperture.

Onsite X-ray fluorescence analysis replaces offsite lab testing, resolving the contradiction between measurement precision and operational delays.

Dynamic wavelength and energy dispersive detector selection reduces total measurement time while maintaining precision for multi-component samples.

Defocused beam irradiation enables parallel spatial and mass detection, resolving the trade-off between micron-level resolution and high-throughput speed.

Automated calibration rods enable continuous XRF analyzer verification without manual intervention.

Infrared spectroscopy identifies polymer swelling and component imbalance stages without core drilling, resolving low accuracy from scattering effects.

Backscattered electron images extract circuit contours to resolve electrification artifacts and improve measurement precision during semiconductor inspection.

A controlled chamber applies ozone gas and ultraviolet radiation to sterilize organic products.

A polymeric film protection device secures the lower chamber of X-ray spectroscopic instrumentation.

Movable x-ray source and detector acquire projections through a slot filter assembly to generate long views.

A silicon radiation detector uses a conversion layer and light barrier to measure photon energy.

A cradle driving unit applies distinct torque values during acceleration stages to maintain motor synchronization.

A controller manages charge carriers shared between pixels in an X-ray absorption layer to ensure accurate photon counting.

Polyacetal cutting jig with orientation guide base and removable holder standardizes clay mineral slide dimensions, reducing preparation time by 87%.

Multi-window furnace cells enable simultaneous X-ray diffraction and absorption fine structure measurements at ultra-high temperatures.

Sliding friction sliders between ball screws and cross roller guides reduce backlash and torsional deformation for stable table movement.

An aperture system crops partial X-ray beams from a primary source to generate stereoscopic image signals without mechanical tilting.

A gantry-mounted camera captures external patient images during rotation to generate three-dimensional surface views.

Delta metrics from pre and post process data improve sensitivity for subtle structural changes.

NMR freeze-thaw and permeability tests reveal closed pores lost during sample crushing, resolving measurement precision versus information loss.

An X-ray analyzer gate valve uses a transmission window to maintain vacuum separation while allowing low-energy X-ray acquisition.

Phase restoration calculates wavefront aberrations from intensity distributions to control X-ray mirrors, resolving measurement time and precision trade-offs.

A front-loading sample holder uses a concave dished bottom to distribute material evenly under pressing forces.

Synchronizing digitally reconstructed radiographs with fluoroscopic images stabilizes external surrogate signal correlation to internal tumor positions.

Replacing polypropylene with a hollow-core composite reduces beam attenuation and weight for accurate image quality assessment.

Dual-sided light guides on the scintillator array reduce optical channel count while maintaining detection precision and lowering manufacturing costs.

Extends iterated coordinate descent optimization to perform material decomposition in energy discriminating computed tomography acquisitions.

Microbeam X-ray fluorescence spectrometry maps elemental content to determine primary dendrite spacing in single crystal superalloys.

A correlation matrix extracts primary diffuse radiation from total spectra using iterative subtraction.