Material Analysis Using Wave/Particle Radiation TRIZ Cases

A specimen fabricating apparatus uses a fluorocarbon etchant to create sputter rate differences between materials.

Automated image analysis identifies inspection pattern periods to estimate average widths for semiconductor overlay shift detection.

Energy filtering isolates low loss electrons to resolve spatial resolution limits in compositional analysis without substrate correction tables.

Simulated daylight illumination eliminates triplet-triplet excitation errors while continuous spectrometer monitoring ensures accurate dye fatigue assessment.

Collimated radiation imaging detects under-shell fractures in rails, replacing mechanical contact methods to preserve component integrity.

Physical surface conditioning enables optical measurement of effective case depth, resolving the contradiction between precision and productivity.

A detector combines direct and indirect conversion layers to adapt operation based on incident flux levels.

Phase difference detection in a dual-coil setup enables continuous measurement of minute magnetic concentrations despite noise interference.

Integrating detectors normalize counting detector drift, eliminating calibration steps while maintaining spectral resolution.

A charged particle beam system acquires electromagnetic emission spectra and backscattered electron images to identify defect material elements on wafer substrates.

Segmented sidewalls allow manual bending to reduce secondary x-ray scatter and cycle time during pipeline inspection without requiring separate readers.

X-ray fluorescence analysis calculates methionine and mineral contents using sulfur as a reference element, eliminating complex sample pretreatment steps.

A charged particle beam system uses a nonmetal ion beam to process semiconductor films and expose embedded particles for accurate analysis.

A narrow aperture with a very thin portion reduces working distance to minimize electrostatic field leakage and chromatic aberration.

Coded source imaging enables high-resolution phase contrast and absorption data acquisition for biological specimens.

A helical scanner moves along a pipe track to emit x-rays and detect backscatter signals.

A laser-driven X-ray source generates intense photons via plasma interaction for high-resolution phase contrast imaging.

A contact plasmonic probe uses a spring structure to maintain uniform distance between the tip and film.

A radiation tomography apparatus identifies collimator shadow boundaries in fluoroscopic images to generate complement images.

Secondary particle detection monitors FIB milling endpoints to prevent electron beam damage on radiation-sensitive samples.

Triangulation mesh analysis indexes atomic patterns in crystal structures using iterative geometric transformations.

Beam blanking restricts electron irradiation to specific regions, preventing charge-up phenomena that distort semiconductor pattern dimensions.

Extracting top intensity peaks from noisy spectra enables rapid luggage scanning while maintaining detection accuracy.

Material decomposition generates virtual non-contrast X-ray images to enable accurate registration of spectral raw data.

A pattern inspection device generates simulated electron beam images from design data for accurate defect detection.

Secondary electron detection corrects beam current drift to maintain measurement accuracy across multiple samples.

A food assessment device integrates AI cameras, Near Infrared sensors, and LIDAR to scan items on a rotating turntable.

An X-ray fluorescence system varies incident radiation energy to detect corresponding fluorescence intensities for material composition analysis.

A floating platform with a neutron detector and moderator gas measures soil moisture, resolving spatial resolution limits of fixed sensor networks.

Angled conductive film filters electrons in charged particle radiation devices, resolving complexity trade-offs.

Multiple scanning probes with distinct geometries scan semiconductor features simultaneously to eliminate tip artifacts from measurement data.

Quantum dot coatings fluoresce under X-ray exposure, replacing expensive sensors with simple cameras.

Concentrate organic solvent samples before coating substrates to detect metal atoms via total reflection X-ray fluorescence.

Automated in-situ lift-out system extracts TEM samples inside the focused ion beam chamber, eliminating venting delays and contamination risks.

A management system inspects X-ray detector performance and sets validity periods for remote verification.

Dynamic gain adjustment reduces radiation dose and noise in tomography mode while maintaining diagnostic image quality.

Signal processing system adjusts pixel sizes to estimate charge sharing impacts.

Lookup tables transform coordinates for arbitrary direction scanning, reducing charge-up distortion and improving throughput.

A scanning system uses dual detector regions with distinct thicknesses to capture radiation profiles from high-energy X-ray beams.

Dynamic optical illumination during scanning differentiates open and short defects, improving sensitivity without separate inspections.

Ion beam analysis detects secondary ions from operational battery electrodes to resolve real-time interface information loss.

Parallel beam SAXS isolates iron core dimensions from sucrose background signals, resolving measurement instability in complex colloidal structures.

Shared X-ray optics enable simultaneous XRR and XPS measurements, resolving throughput and accuracy trade-offs in semiconductor metrology.

Stacking magnesium fluoride and aluminum fluoride layers prevents peeling during thermal cycles, maintaining reliability in semiconductor manufacturing.

Resistive pillars measure ion beam angles at low energies, replacing complex mechanical tools.

An X-ray fluorescence probe measures elemental composition in mineral slurries using a pipe-mounted housing with an integrated X-ray window.

Active gas flow deflects atomic vapor and micro-particles from reflective optics, maintaining system performance without complex magnetic coils.

A nanocapillary dispenses liquid to generate local vapor pressure near fluorescent markers in a vacuum chamber.

A spectrometer selects circumvent angles to avoid diffracted X-rays interference during sample rotation.

Graphene thin films replace silicon nitride in liquid chips to prevent bulging under vacuum pressure while preserving spatial resolution.