Material Analysis Using Wave/Particle Radiation TRIZ Cases

Multiple antennas enable wireless data transmission in portable digital X-ray detectors, reducing interference and improving positioning flexibility.

Energy-resolved detection isolates substance k-edge components from object-related effects, enhancing flow value determination quality.

A tomosynthesis imaging method applies non-uniform X-ray dose distribution across angular projections to optimize depth-of-focus for radiology signs.

An energy-resolving detector eliminates chromatic aberration by processing polychromatic X-rays directly, removing complex refractive optics.

A Peltier element locally cools the X-ray detector in an X-ray fluorescence analyzer.

Pre-calculated slice plane parameters based on dental arch models eliminate manual setting time while maintaining spatial accuracy.

A movable radiation source on a guide element calibrates detectors in situ, eliminating manual handling and personnel gamma exposure.

Segmenting a grating part into regions with different cyclic directions enables multi-directional phase-contrast imaging without complex component positioning.

Segmented radiopharmaceuticals target MC2R receptors to eliminate tumors while sparing healthy tissue from radiation damage.

A multichannel detector analysis data processing method identifies high-contribution channels using partial differentiation of non-linear regression functions.

Digital pore growing operations modify rock voxels to estimate porosity and permeability, resolving dead oil indistinguishability in shale samples.

A computed tomography system reconstructs myocardial perfusion from time-registered helical image data sets.

Adjusts flying focal spot positions and helical pitch to resolve sampling pitch reduction, enabling high-density data acquisition without overlap.

Controller analyzes intensity change periods to adjust scanning grating movement, reducing moire artifacts caused by thermal shifts and misalignment.

A computer system correlates experimental and computational spectra to identify candidate crystal structures.

The X-ray CT apparatus calculates dynamic trigger angles using rotational speed and preparation time, reducing returning time between scans and improving temporal resolution of images.

Principal component analysis transforms elemental map data into scatter diagrams for automated phase classification.

A stage driving range limiting unit constrains movement based on sample holder identification data.

Pulsed electron beam detection timing isolates secondary electron signals within specific time domains to enhance image quality.

A piezoelectric sample manipulator system uses fluid bearings and flexure plates for precise rotational and axial motion.

Segmented ion beam operation uses high current for fast tuning and low current for inspection to minimize sample damage and electrostatic charging.

A scanning electron microscope adjusts focal points to estimate surface curvature for precise imaging.

Injector nozzle extrudes viscous sample stream through synchrotron beam for serial diffraction measurements.

Virtual mask representations guide dynamic x-ray beam modulation to reduce radiation dose to sensitive organs while maintaining image quality.

Segmented detector arrays reduce manufacturing complexity and noise while expanding coverage area for cardiac imaging.

Capacitive sensors detect sample position errors during rotation, allowing software-based projection shifts that eliminate mechanical spindle wobble artifacts.

Detection assembly measures imaged spot positions to generate feedback signals for alignment adjustment.

Optimized annealing increases c-axis crystals to resolve performance drops from low orientation ratios in piezoelectric films.

A computational model estimates internal target position by interpolating periodic x-ray imaging data with continuous respiratory signals.

A fluorescent X-ray analysis apparatus uses a collimator and secondary reduction layer to direct primary signals.

Variable irradiation paths and adjustable X-ray energy improve element detectability across wide atomic numbers, reducing reliance on laboratory confirmation.

Hooks secure interior articles in UV chamber, solving sanitization gaps for bags and equipment.

Interleaved SPECT and CT detectors on a single gantry reduce system footprint while enabling near-simultaneous 4D acquisitions with a common field of view.

Multi-sensor systems characterize contaminants in recycled thermoplastics by comparing real-time parameter outputs against stored pattern signatures.

Dual-frequency coil generates magnetic fields to induce eddy currents, enabling processing circuits to calculate position-independent error values.

A medical image processing apparatus adjusts reconstruction conditions based on body part positional relations to generate high-resolution data.

Autocorrelation analysis of X-ray detection data identifies respiratory cycles, allowing the system to correct motion artifacts without external sensors.

A calculation method determines inhomogeneous sample structure using iterative x-ray intensity matching without physical standards.

Anisotropic erosion operators define object perimeters to calculate computed tomography numbers, reducing false alarms caused by partial volume effects.

A neutral atom imaging system directs a beam of neutral atoms to ionize scattered particles from sample surfaces.

Incorporating SHG-active compounds into protein crystals enhances second harmonic generation signals for structure determination.

Introducing a redox pair allows real-time pH and concentration tracking, resolving precision limits in transmission electron microscopy.

Segmented shielding reduces X-ray leakage and mechanical complexity while enabling uniform scanning coverage.

Millimeter-wave radar sensors embedded in composite structures transmit and receive RF signals to detect internal property changes.

Integrating onboard processing into an X-ray detector generates immediate visual feedback, reducing troubleshooting time by bypassing centralized controllers.

Human stem cell models calculate ornithine-to-cystine ratios to predict developmental toxicity, replacing slow animal testing with accurate in vitro screening.

Segmented fiber bundles enable precise angular control, eliminating electron scattering averaging effects.

A real-time controllable 3D X-ray attenuator modulates radiation intensity using thin film electric coils and ferromagnetic materials.

High-power X-ray tubes and pyrolytic graphite crystals separate specific wavelength ranges to detect small element concentrations in continuous slurry flows.