Material Analysis By Transmitting Radiation TRIZ Cases

A radiographic inspection system captures 360-degree wall loss information using a single image from a rotating radiation source and detector array.

Detect crystalline materials via Bragg scattering energy bands.

Segmented narrow-band photon spectra reduce background noise and false positives during non-intrusive container scanning.

Movable X-ray source and detector switch between sample and standard positions, enabling continuous belt inspection without interruption.

Fuses independent detection data via Bayesian likelihood functions to resolve throughput and accuracy trade-offs in security screening.

Lau condition dark-field x-ray inspection resolves throughput and sensitivity trade-offs for semiconductor packaging.

A compact gamma-ray flow meter uses a conical source housing recessed into the pipe wall to minimize material attenuation.

A radiation detector incorporates an elastic layer with high restoring force to suppress substrate bending during manufacturing separation.

Determining preferred X-ray absorption directions via gradient profiles resolves low contrast issues to identify layer structure.

Electromagnetic fringe scanning replaces mechanical phase stepping to eliminate grating instability and reduce acquisition time.

Allocating X-ray pixels to a 3D tire model recovers lost depth information, enabling accurate distance measurements outside the calibration plane.

Introducing a foam-particulate mixture into dense turbine components resolves low visibility issues by providing sufficient x-ray attenuation differences.

A radiographic image detection device judges analog signal level fluctuations to control digital conversion operations.

A cabinet X-ray system uses photon counting to generate colorized density images of specimens.

Stacked detectors with differing pixel widths allow synchronized detection and image correction to prevent pseudo edges in subtraction images.

A radiation image acquisition device uses dual-sided scintillation detection to capture light from both entrance and opposite surfaces of a wavelength converter.

Stationary multi-source x-ray arrays capture unabsorbed radiation across multiple planes to resolve detection precision limits inherent in single-view systems.

Segmented X-ray detectors on a flexible carrier enable non-invasive imaging of cast resin transformers, eliminating disassembly risks.

A radiation detection device uses a filter holder to position an attenuation filter over a slit, allowing a second line sensor to detect attenuated X-rays.

Broadband cone x-ray beam illuminates rotating polycrystalline samples for three-dimensional grain orientation mapping.

Stepping source gratings enable phase-contrast imaging while lowering mechanical precision requirements and system construction costs.

A printed circuit board inspection machine uses a detection unit to measure electronic component heights for precise imaging positioning.

Charged particle tomography determines momentum estimates from scattering angle distributions to resolve measurement precision and device complexity trade-offs.

Absorption masks replace analyzer crystals, enabling phase contrast imaging with conventional polychromatic sources.

Radiation imaging apparatus estimates scattered ray amounts using evaluation information from material characteristic images.

Plastic scintillation fibers eliminate dead space in proton computed tomography detectors, enabling high-quality 3D imaging within ten minutes.

A multispectral radiological investigation system calculates compound proton numbers from segmented energy bands to identify material composition.

Rotation monitoring provides angle signals enabling accurate position determination during non-uniform scanning to reduce image deformation.

A flat panel X-ray detector anticipates trigger signals to reset integration periods and synchronize with tube pulses.

A reference transmission curve averages baseline noise to enable continuous X-ray strand measurement.

A handheld x-ray imaging apparatus switches between scanning pencil beam and stationary wide-area beam modes using a detachable collimator module.

Alternating radiation sources and aligned detectors enable high-quality two-dimensional imaging with excellent signal-to-noise ratio and contrast.

Multi-layer glass body absorbs X-rays while transmitting visible light, reducing measuring time and maintaining image resolution.

A neutron source and scintillator sensors housed within articulating sections detect surrounding material composition while moving through the pipeline.

A test apparatus combines X-ray imaging with thermal reaction analysis to pinpoint defects within semiconductor packages.

A scattered detector configuration aligns units with the ray source to reduce frame size and improve imaging quality.

Vertically arranged radiographic sources eliminate cone angle artifacts in security inspection by providing complete data coverage.

A charged particle beam device measures localized static charges using a mirror reflection state to estimate voltage without direct sample contact.

Dual line sensor X-ray inspection device detects positional displacement between sensors to generate corrected images.

Radiation detection device applies pixel change processing to equalize detector images.

A scanning X-ray inspection system uses dynamic switching between photon counting and integration modes to generate high-resolution images.

A nonaqueous radiopaque fluid enhances radiographic imaging contrast using a glycol carrier and metal-halide solute.

Dual-energy linear array detector scans protective clothing to calculate lead equivalent thickness and highlight damaged areas.

Planar base plate mounts angled detector modules, eliminating curved supports to reduce manufacturing complexity and cost.

Replacing water with a buoyant spacer reduces attenuation, enabling precise measurements on smaller pipelines.

A movable portal frame inspection system uses a wheeled travelling device to reposition the assembly across different sites.

A dual-energy radiation detector uses a thin low-energy scintillator and small pixels alongside a thick high-energy layer to increase contrast differences.

A conical beam-shaping apparatus collimates thermal neutrons from a fusion generator to create a focused irradiation field.

An imaging control device transmits identification information to a radiation generation unit and collates returned data to determine automatic brightness control execution.