Material Analysis By Transmitting Radiation TRIZ Cases

A dual-line X-ray camera adjusts amplification factors per line to generate clear transmission images.

A movable detection device uses a gantry to shift radiation sources and detectors for vertical imaging.

An X-ray inspection apparatus discriminates photon energy using dynamic threshold levels to generate high-contrast transmission images.

Automated iterative reference value adjustment reduces ghost images and improves material identification accuracy in multi-energy X-ray decomposition.

Replacing manual monitoring with automated interlocks, this system maintains radiation safety thresholds while increasing railway inspection operational speed.

A computed tomography inspection system reconstructs 3D image data to highlight organic contraband parts within scanned objects.

A cylindrical casing houses phantoms and instruments while a base rotates the assembly to arbitrary angles.

An image processor corrects scanned images using displacement offsets detected by an arm swing sensor on the detector boom.

Digital extraction of innermost diffraction image portions replaces physical pinhole apertures in confocal scanning transmission electron microscopy.

Dual energy radiation scanning determines material composition using transmission ratios across different peak energies.

Mode storage portion retains photography modes to enable selective offset image updates, reducing acquisition time while maintaining measurement precision.

An X-ray imaging apparatus uses an automatic exposure request signal generator to detect radiated X-rays and control gate driver timing.

Radiation-based density measurement replaces mechanical sensors to maintain precision under high pressure and contamination.

An object detection device with adjustable vertical support arms and multi-position ray sources enables flexible deployment.

A replaceable scintillator and AI monitoring system optimize replacement schedules to maintain image quality despite radiation-induced degradation.

Gas gun compression waves and monochromatic x-rays verify bond strength without damaging aerospace composites.

Wireless signal transmission eliminates mechanical swivel joints, avoiding costly re-certification during digital conversion.

Overlapping powered sections eliminate unpowered gaps that cause vehicles to stall, stabilizing the scanning process.

A light detection device captures image data with and without a light source to determine operational status.

Segmenting poly-energetic x-ray beams into discrete energy bins resolves the contradiction between scanning speed and material identification accuracy.

A two-stage scanning protocol separates moving and static phases to identify material composition without electromagnetic interference.

A self-propelled inspection device uses a balanced suspension to maintain rack geometry.

A vessel inspection system uses penetrating radiation generators and detector matrices to capture radiographic images from multiple perspectives.

A road-mounted radiation source emits focused beams to penetrate vehicle tires and undercarriages for rapid security imaging.

Localized shielding in the support base reduces weight while maintaining image quality by suppressing scattered radiation.

A security screening device generates X-ray and neutron radiation to detect hazardous materials.

Aligning radiation emission parallel to corrugations eliminates blind spots and artifacts caused by pipe geometry during infrastructure inspection.

An acousto-optic tunable filter selects X-ray wavelengths via acoustic waves to enable rapid spectral analysis.

Position information guides a robot to remove defective articles from random positions on a conveyor, reducing good product rejection rates.

A transmission electron microscope captures bright-field and dark-field images simultaneously using a parallel electron beam at a predetermined incident angle.

Matrix detectors resolve spatial distribution by separating pair production and Compton photons, overcoming path integration limits.

An adjustable shielding member on a counter arm blocks scattered X-rays, reducing background noise without occupying detector front space.

Electromagnetic wave detection identifies suspicious items in baggage to trigger dynamic secondary inspection routing.

Pliable sample supports clamp specimens for rotational x-ray imaging, resolving laborious manual securing and inaccurate reconstruction issues.

Remote alignment plates adjust arcuate detector modules via ion chamber feedback, eliminating manual errors and enhancing imaging resolution.

Replacing fixed tracks with mobile vehicles eliminates high construction costs while the rotatable boom adjusts scanning angles for space-constrained sites.

A flexible radiation detecting panel supported by a bending support unit adapts to curved inspection subjects.

Segmented object stages with clamping interfaces eliminate bending-induced misalignment in X-ray inspection systems.

A dual-energy X-ray inspection method determines cargo materials using mass equivalence data at distinct radiation energy levels.

An X-ray inspection device uses multiple determination thresholds to differentiate foreign objects from components during real-time detection.

A semiconductor defect inspection apparatus merges transmission and fluorescent X-ray detection units for concurrent imaging and spectral analysis.

Disposable polymer inlays on security trays block pathogen transfer without slowing throughput.

A tube weld X-ray inspection device uses a movable image plate fixing part to capture radiographic images of heat exchanger joints.

A motor-driven X-ray inspection apparatus calculates relative positions using time-stamped detection values for accurate imaging.

Multi-band photon counting generates difference images to resolve foreign material detection accuracy across varying article thicknesses.

Vacuum-fixed tracks guide an X-ray system along aircraft surfaces, eliminating manual repositioning to reduce inspection time.

Dual pulsed X-ray sources eliminate heavy collimators, reducing power consumption and shielding weight while maintaining dual-energy detection.

Dual-energy X-ray tomography discriminates gas, oil, and water phases via copper filters, resolving low sampling rates in multiphase pipeline flows.