Material Analysis Using Wave/Particle Radiation TRIZ Cases

Talbot imaging apparatus generates small-angle scattering images to quantify defect depth.

Positioning a focusing element to prevent primary beam interference resolves detection efficiency losses caused by stray electron collisions.

Integrating a V-groove into the microscope stage eliminates secondary supports, reducing instrument time and vibration during high-magnification processing.

Graded multilayer mirrors replace geometric slits to collimate X-rays, expanding the irradiation region and reducing measurement time.

Segmented detector regions dynamically reject scatter radiation without physical grids, reducing patient exposure while maintaining signal-to-noise ratio.

Tilting the sample surface relative to the incident beam expands the observable angular range without rotating heavy objects.

Feedback control compensates for positional deviations in multiple primary electron beams, reducing image distortion and gray scale variations.

A collimated beam and pixelated detector acquire scattered radiation energy spectra for material identification.

A stationary grating micro-CT architecture uses electronic multiplexing to achieve tri-contrast imaging with micron-level resolution.

Removable backscatter detector attaches to handheld x-ray imager, enabling extended standoff distance imaging without compromising portability.

Liquid aqueous silicone elastomer coatings form continuous membranes that eliminate seam leaks while resisting UV degradation and physical damage.

A cone-beam CT collimator obscures radiation source portions to limit direct ray coverage below 85 percent of the pixel array.

Integrates a voice-controlled gamma probe into a cabinet x-ray system for simultaneous radiographic imaging and radioactive source detection.

A compact tubular X-ray source uses a mica monochromator to focus radiation onto a sample within a vacuum chamber.

A rotating reaction cup turntable with mutually light-isolated processing stations enables simultaneous handling of multiple samples.

Segmented nanowells isolate analytes to reduce interference from non-specific binding while enabling rapid detection of low-concentration markers.

Shields deflect the ion beam from the arm to stop material sputtering and contamination.

An integrated inspection feature replicates void density to distinguish actual defects from noise, resolving ambiguity in adhesive bond line quality assessment.

A movable object receptacle and cutting device enable precise layer removal in particle beam apparatuses.

Unitary graphite ionizer tube with conical aperture eliminates diffuse ghost images while enabling cost-effective reusability.

A specimen tip holder assembly adjusts Z-axis height to enable precise electron tomography.

Modulating X-ray tube current during full-scan rotation to lower patient exposure.

A magnet deflects stray electrons in a handheld X-ray fluorescence analyzer, reducing background noise and improving detection limits for elemental analysis.

A radiography apparatus uses slit and broad X-ray beams to capture sectional images of specific areas.

A silicon standard member enables precise magnification calibration in electron microscopes through adhesive-free substrate bonding.

Apparatus mimics valve operation using rock samples to assess acid invasion and scale dissolution without damaging the formation matrix.

Lateral blade offset eliminates debris interference with the electron beam, enabling precise serial block-face imaging without signal degradation.

A sealable mesoporous silica nanoreactor traps probing molecules to detect X-ray doses via fluorescence.

A composite focused ion beam device combines a liquid metal source for processing with a gas field ion source for high-resolution observation.

Multi-directional scanning differentiates plug-to-plug short defects from leakage defects by enhancing voltage contrast patterns.

Adjusting electron beam landing energy creates material contrast that weakens background patterns, enabling precise detection of sub-50 nm foreign materials.

Segmenting chip surfaces into non-overlapping fields of view reduces inspection time while preventing cumulative damage from repeated exposure.

Test pulses enable rapid baseline shift measurement and threshold calibration, reducing time required for energy discrimination scans.

A peak two-dimensional detection data extracting unit identifies maximum X-ray intensity positions from diffracted signals at multiple scan angles.

Laser-excited electrodeless lamp generates plasma light for specimen illumination.

An X-ray fluorescence analyzer measures L-alpha and L-beta line ratios to distinguish solid gold from plated items without damaging the object.

Perpendicular beam axis configuration reduces working distance, resolving the contradiction between sample disposition freedom and observation resolution.

A measurement line evaluation unit calculates theoretical intensities for thin film composition and thickness analysis.

Sequential milling combined with a decorating etch exposes cross-sections, enabling precise imaging of small defects while minimizing redeposition artifacts.

A digital to analog converter with resolution exceeding pixel counts guides charged particle beam deflection for precise sample positioning.

Dividing the pre-dosing area into sub-zones with tailored beam conditions suppresses electrification non-uniformity and prevents electron trajectory deflection.

A dual plasma and ultraviolet sterilization unit designed for airport baggage handling systems.

Adjusting electron beam intensity distributions to match standard profiles across varying magnifications.

Electromagnetic signals probe composite materials to measure dielectric permittivity variations across frequencies.

A beam shaping slit with a slender profile locates near the specimen to define a sharply defined illumination cross-section.

A collimator assembly uses movable units to switch between distinct shielding thicknesses and collimation patterns.

Laser range finders estimate object volume to automatically adjust X-ray strength for optimal imaging.

Foamed urethane polishing pad rise determination uses dummy polishing residue accumulation and fluorescent X-ray analysis.

Computing porosity associated with organic matter using machine learning models trained on scanning electron microscope images.