Material Analysis Using Wave/Particle Radiation TRIZ Cases

A device holder supporting extension thermally expands to maintain alignment between the X-ray generation position and the radiation area controller.

Segmented lattice collimator module resolves assembly complexity and positional accuracy trade-offs in X-ray CT scattered radiation removal.

Replacing homogeneous phantoms with patient-specific anatomical models to calculate primary and scattered radiation doses for accurate dosimetry.

Rotate partial image data along crystal growth directions to create accurate analysis models, avoiding costly full EBSD measurements.

A structured scintillator layer aligns with optical detector sub-pixels to convert incident X-ray fringe patterns into optical signals for direct detection.

Automated serial electron diffraction protocol identifies nanocrystals and collects patterns via scanning transmission electron microscopy.

Photon-induced near-field electron microscopy uses femtosecond laser pulses to generate energy-gained electron packets for nanometer-scale imaging.

Arced support structures align multi-slice X-ray CT anti-scatter plates, reducing signal interference from long cables.

Variable C-arm rotation speeds generate high-quality 3D blood vessel and soft tissue images while reducing contrast medium usage.

Electrolytic process creates discrete corrosion defects on substrates to establish precise calibration benchmarks for nondestructive testing systems.

Protective device with openings shields fragile radiation windows from mechanical damage while allowing X-ray transmission.

An edge plate adjusts bias voltage to planarize potential distribution near the substrate boundary during charged particle beam imaging.

A wavelength dispersive X-ray fluorescence spectrometer uses a segmented receiving slit to measure peak and background intensities with equal sensitivity.

An X-ray CT scanner sets image creation time zones using pre-scan contrast agent concentration data.

FIB milling extracts and thins samples within the vacuum chamber, eliminating vacuum breaks and repositioning delays during STEM analysis.

An X-ray scatterometry system directs incident beams through a sample to determine surface profiles using diffraction analysis.

Muons penetrate shielding to reveal hidden nuclear threats via scattering angles, overcoming gamma detector limitations.

Spray drying coats metal salt cores with high HMTBA content to form stable powders, avoiding viscous media that complicates batch processing.

Independent rotors for gamma cameras and X-ray sources resolve rotation speed limits in hybrid systems, reducing scanning time.

Motorized UV-C enclosure uses infrared detection to activate sanitization cycles, preventing cross-contamination during manual cleaning.

A neutron inspection device detects scattered neutrons at local irradiation positions to identify small defects in inspection targets.

A semiconductor testing method uses a charged particle beam to display cells on a monitor while moving the stage for accurate identification.

A semiconductor chip controlled by light pulses generates high-voltage electrical signals for tomographic atom probe analysis.

A process monitoring system automatically generates and associates measurement targets using design information.

Multiple x-ray emission sources on a rotating gantry provide enhanced angular coverage and temporal resolution.

Electromagnetic coils adjust gripping force on magnetizable sample holders to enable reliable automated transfer in cold environments.

A micro beam generation unit reshapes X-rays into parallel beams using a slit and channel-cut monochromator crystals.

Predicts arterial enhancement using test injection data to generate customized clinical injection profiles.

Hybrid metrology merges X-ray penetration with optical imaging to resolve buried layers beyond the diffraction limit.

Infrared radiation neutralizes trapped charges to restore measurement precision in medical imaging detectors.

Automated parameter selection determines optimal X-ray tube voltage and current from scout image attenuation, reducing scan times without manual operator input.

Adjustable pressing elements align varying thickness samples to eliminate focus depth changes during multi-plate SEM analysis.

A charged particle beam measures potential at a saddle point to determine surface charge distribution.

Glancing angle incidence relaxes fabrication constraints for high-energy gratings, enabling efficient phase contrast imaging across broad energy ranges.

Adjusting energy filter voltage during electron beam scanning enables high-accuracy electrostatic charge measurement in scanning electron microscopes.

An integrated semiconductor detector captures electrons and X-rays via signal intensity analysis, resolving spatial conflicts between separate detectors.

A charged particle beam deflector measures field of view displacement to calibrate magnification across varying observation scales.

A C-arm x-ray method uses a sliding window to record projection images across a large rotation angle for 3D reconstruction.

Segmenting the spectrum into violet, UVB, UVA, and blue wavelengths inhibits hyphae growth while protecting UV-sensitive components.

Crosslinked rubber tread composition restricts molecular motion through controlled density regions to enhance abrasion resistance.

Blending resin feedstocks to optimize radiation absorption and transmission properties in plastic packaging materials.

A rotating polishing plate grinds analytical semiconductor samples to create large viewing surfaces using deionized water.

A rotating carrier positions test objects within an X-ray laminography system to enable multi-angle imaging from a fixed source and detector path.

Spatially shift measurement slices to align image data, eliminating chemical shift artifacts in high-field MRI systems.

A dual-mode x-ray beam system produces one-dimensional and two-dimensional beams using a configurable selection device.

Integrating circuitry resets before each interval to eliminate residual charge contamination, ensuring precise measurement accuracy.

A portable x-ray system scans joining features using backscatter detection to inspect welds.

Simultaneous XRF and SAXS measurements resolve opaque buried structures by reducing parameter correlations and improving accuracy.

Replacing metal mesh nets with a suspended carbon nanotube film eliminates oxide impurities that interfere with sample analysis accuracy.