Material Analysis Using Wave/Particle Radiation TRIZ Cases

Dynamic imbalance system measures vibrational loads at the air bearing to position balance masses on the rotating gantry.

Virtual markers replace physical alignment references to resolve the contradiction between measurement precision and marker placement flexibility.

Physical shield plate adjusts TDI sensor integration stages, resolving depth of field reduction in thick sample transmission X-ray analysis.

Aligned plates with transmission holes press batteries to suppress gas-induced swelling and maintain measurement accuracy across varying cell sizes.

Pixelated radiation detector arrays merge spatially correlated gamma ray events to reconstruct accurate photon energies.

A backscatter imaging system uses x-ray radiation to visualize corrosion effects on workpieces without disassembly.

Periodic kVp switching during gantry rotation eliminates patient motion mis-registration while maintaining continuous photon counting.

Focused ion beam mills a Gaussian spot to expose buried layers for scanning electron microscopy analysis.

An impedance microscope forms images by scanning a physical beam to locally lower thin film insulation and guide AC potential signals through samples.

Segmented detector captures scattered electrons to generate interpolated dark field signals for electron beam microscopy.

Retarding lenses remove low-energy ions from gas field ion beams, reducing energy width from 4 eV to 0.7 eV while maintaining beam intensity.

Moveable filter regions adapt to subject size and orientation, resolving inadequate photon flux at edges caused by static bowtie filters.

Light sensors detect object boundaries within the scanning volume, eliminating unnecessary processing during gaps between objects.

Terminal-modified polyphenylene ether resin minimizes dielectric losses and chromium contamination to boost signal transmission speed.

Segmented reflectors redirect ultraviolet radiation to equalize peak intensity on side surfaces, resolving uneven curing on contoured cabinet doors.

A chromium-free coating thickness detection method uses weak characteristic elements to enable on-line monitoring via X-ray fluorescence.

Annular detectors capture back-scatter electrons and X-rays simultaneously within a composite objective lens assembly.

Integrating an X-ray detector behind the sample enables high-resolution nanotomography without requiring separate setups.

Distinct markers differentiate user-placed and automatically determined locations, resolving time-consuming manual review of patient movement artifacts.

Pulse modulation of electron beam loads creates distinct X-ray spectra, enabling accurate material discrimination in large objects despite high attenuation.

A gamma radiation apparatus detects scattered photons through a metal vessel wall to determine refractory lining thickness.

Adaptive collimator reduces radiation dosage by up to 80% while maintaining image quality through variable sampling and kernel decomposition.

Varying the light guide cross-section allows standard photodiodes to replace custom silicon, reducing manufacturing costs while maintaining detection precision.

A system analyzes hair surface properties using digital image processing of reflected light patterns.

Variable-sized mask openings enable energy planarization in peripheral patterns, resolving precision and throughput trade-offs.

Liquid nitrogen traps and plasma generators suppress surface contamination during electron beam irradiation for precise carbon quantification.

Computer adjusts X-ray imaging parameters based on real-time physiological characteristics to capture projection images.

A flexible barrier material provides thermal conduction while mechanically isolating the x-ray engine from vibrations and moisture.

Positioning three-dimensional detectors at distinct focal points separates backscattered electron signals by energy, reducing cross-talk between beamlets.

Tagging compounds replace electron microscopy to quantify disease-associated calcium crystals without time-consuming imaging.

A diffraction analysis method simulates Kikuchi bands using crystallographic data to calculate fitted orientation and quality of fit.

Instrument calculates lead areal concentration using L-alpha and L-beta x-ray intensity ratios for accurate multi-layer coating analysis.

A calculation unit combines spectral and non-spectral image data weighted by spatial frequencies to enhance resolution.

Extracting calibration functions from the scanning table simplifies manufacturing complexity while maintaining measurement precision.

Bayesian filtering processes coded aperture data directly to determine target location and velocity without forming an image.

A cylindrical electron transport means positions a backscattered electron detector inside the acceleration tube to enable selective detection.

An electrode-less plasma chamber generates broadband light for semiconductor defect inspection.

A light irradiation mechanism projects a shadow image of the imaging target onto an X-ray detector to enable visual confirmation of positioning.

Embedded carrier density pattern enables computed tomography identification without external sensors, resolving assignment accuracy trade-offs.

Portable XRF device dynamically adjusts excitation voltage and time to quantify alloy elements without predefined settings.

A non-destructive X-ray scattering method calculates simulated images to isolate and measure structural irregularities in semiconductor repeat structures.

Micro-beam X-ray fluorescence spectrometry determines dendrite spacing and segregation ratios in high-temperature alloy ingots without chemical corrosion.

A charged particle radiation apparatus switches between observation and pre-dose beams to charge semiconductor samples.

Decomposing complex semiconductor structures into sub-areas enables independent simulation of scattering responses for precise metrology.

Adjustable volume resistivity in urethane acrylate adhesives reduces voltage drop and cross-talk while maintaining strong bonding strength.

Adjusting pulse shaping time dynamically balances energy resolution and count rate to resolve spectral trade-offs during x-ray fluorescence analysis.

Segmenting sensor regions isolates adjacent electron beams, resolving crosstalk noise that degrades measurement precision.

Segmented cross-section imaging applies EDS detection only to non-typical regions identified by reflected electron screening, reducing elemental analysis time.