Material Analysis Using Wave/Particle Radiation TRIZ Cases

Mixed-resolution detector arrays reduce system costs and eliminate truncation artifacts by applying high precision only within the region of interest.

Segmented thermal shield protects X-ray head from 300°C substrate heat using copper ports and active cooling to maintain measurement precision.

A liquid crystal X-ray detector applies variable bias voltages to calibrate pixel transmittance and ensure accurate image reconstruction.

An analyzer combines mass concentration and element analysis to output source-related signals for floating particulate matter.

Convolutional neural network processes ion beam spot images to automate column adjustments, resolving time-consuming manual alignment bottlenecks.

X-ray diffraction measures thin film stress variation through rocking curve analysis at constant temperature.

A handheld XRF analyzer quantifies silicon and titanium atoms in antimicrobial coatings using fluorescence spectroscopy.

Vacuum deposition creates invisible subsurface markers on diamonds detectable by XRF analysis.

Laser interferometry measures stage position to compensate for guide distortions, enabling high-throughput defect detection on sub-micron patterns.

Heuristic prioritization scheme optimizes configurable inspection tool parameters, eliminating manual calibration bottlenecks and improving detection accuracy.

A rotary X-ray tube modulates its electron beam focal spot position during continuous rotation to maintain a stationary emission point relative to the detector.

Dynamic transfer adjustment resolves radiation exposure versus image quality trade-offs by preventing discontinuities in imaging region boundaries.

Radiation backscattered from a hidden workpiece enables non-destructive evaluation without disassembly.

A non-contact voltage contrast method detects through-silicon via joint integrity using charged particle beams.

Analyze surface composition via XPS to prevent pattern peeling during etching.

An artificial intelligence system computes physical properties of rocky formations using surface logging data and drilling parameters.

Hydrotalcite additives with internal fluorine stabilize charges, reducing fog while improving productivity.

Combining multiple charge integrating signals creates a virtual channel that resolves saturation and noise trade-offs in CT imaging.

Energy integrating detector patches missing projection data from energy discriminating detectors to resolve photon saturation artifacts.

A lesion positioner system moves a top board to align a target with an imaging isocenter.

A torque motor couples directly to an X-ray radiation detector rotor to enable precise rotational movement without mechanical transmission elements.

Optimized field of view selection minimizes overlapping scan regions and wafer charging in semiconductor manufacturing.

Grazing incidence geometry allows thick beams to maintain micrometre resolution, reducing measurement time and apparatus complexity.

Segmented suction grooves reduce vacuum performance requirements while preventing microporous surface clogging during wafer handling.

A relative emission factor corrects X-ray fluorescence signals for background contributions during small feature measurement.

A light transmitting plate with a scattering portion illuminates samples uniformly, reducing shadows caused by uneven surfaces.

An X-ray CT system calculates radiation doses based on measured patient attributes to ensure appropriate imaging conditions.

Dynamic multi-leaf collimators adjust beam shapes during continuous delivery to resolve precision versus treatment time trade-offs.

A multi-source backscatter x-ray source uses multiple electron beam emitters to generate sufficient radiation for imaging.

A method calculates integrated intensities from powder X-ray diffraction data to distinguish graphene precursors.

A control evaluation unit records photomultiplier voltage changes to calculate remaining operating time.

Segmented excitation and electron beam scanning overcome optical diffraction limits for molecular-scale marker localization.

A reconfigurable backscatter detector uses a flexible scintillating panel to capture radiation signals across varying angles.

An epitaxial semiconductor layer bonded directly to an electronics substrate enables efficient charge collection for X-ray detection.

A handheld XRF analyzer uses a motorized filter assembly to suppress intense X-ray intensities from predominant elements.

Mass analysis and liquid chromatography isolate decomposition products in organic semiconductors, resolving purity issues caused by compound degradation.

Dynamic tube current modulation adapts x-ray exposure to patient size, maintaining consistent image quality while minimizing radiation dose.

Laser ablation clears insulating films from alignment marks, resolving detection conflicts that hinder accurate semiconductor wafer processing.

A primary collimator element placement method positions components at beam intersections to manage scattered radiation detection.

A microanalyzer aligns X-ray image data using secondary electron references to ensure precise spatial correlation across multiple measurement sequences.

Replace mechanical translation with beam deflection to reduce drift-induced settling times during helical scanning.

Merges respiratory mechanics data with spatially resolved alveolar images to pinpoint localized lung dysfunction and improve diagnostic accuracy.

A micro-computed tomography system images rock samples to determine pore structure characteristics and permeability changes.

Imaging-compatible shipping container maintains impression orientation to prevent distortion during transit and enable non-invasive scanning.

Periodic modulation of the electron beam angle isolates defect signals from background noise, reducing measurement time for wafer-scale analysis.

Annular calibration phantom attached to CT scan table gathers geometric data during object imaging.

Scanning electron microscope image profile matching determines pattern dimensions using prestored model profiles.

Dynamic count time allocation resolves the contradiction between measurement precision and total acquisition duration for intense peaks.

An x-ray attenuating material blocks radiation toward charge sharing regions, reducing spatial blurring and electronic noise in high-flux photon counting.