Material Analysis Using Wave/Particle Radiation TRIZ Cases

Pattern-matched alignment of repeated charged-particle spectra boosts signal-to-noise ratio while preserving fast reaction kinetics and cutting acquisition time.

Low-energy electrostatic photon analysis builds 3D molecular maps with high precision while reducing target damage and energy use.

Tunable amplification in a multi-beam electron-optical system boosts defect image detail while balancing sensitivity, noise, and throughput.

A detachable adapter links flat plate and cylindrical sample holders, enabling sample replacement in vacuum under low temperature and high magnetic fields.

Fusion-bonded wafer packaging integrates emitter, filter, waveguide, detector, and a sealed reference cavity to cut gas sensor cost and improve accuracy.

A translating mirror and fiber-optic conduit capture angular and spectral CL data with fewer aberrations and less filter complexity.

Dynamic focal length adjustment keeps tilted sample regions in focus during ion beam scanning, improving spatially resolved mass tag imaging.

A benchtop reel-to-reel coater forms graphene-coated tapes that prevent electron microscopy charging artifacts while staying optically transparent.

XRD tracking of d-spacing during cycling separates carbon and non-carbon anode capacity contributions and helps pinpoint battery degradation causes.

Kikuchi-line intersections are used to calculate crystal zone axis and auto-tilt the sample stage for sharper imaging with less aperture contamination.

Continuous sample rotation with stroboscopic beam pulses expands angle coverage, cuts tilt-stop delays, and limits blur in tomography.

Beam spot imaging from a second electron detector enables real-time alignment correction, reducing cross-talk and improving wafer inspection precision.

Secondary electron spin polarization between adjacent pixels enables submicron strain mapping with higher accuracy than conventional methods.

Electromagnetic sensing identifies battery chemistry from reflected or backscattered radiation, enabling more accurate sorting for direct recycling.

By comparing estimated netlist-based results with detected signals, this case corrects optical conditions to reduce cross-apparatus measurement errors.

Criterion-image matching locates target structures in SEM cross-sections, enabling automated processing with less operator skill and time.

Selective SEM charging of target regions improves quantitative electrical failure detection while avoiding the time cost of charging every site.

Real-time strain sensing adjusts turbine component blending to remove residual stress more precisely and reduce technician-dependent errors.

Real-time strain sensing and X-ray diffraction adjust turbine component blending to remove residual stress before hidden damage grows.

Frontside x-ray backscatter imaging inspects one-sided fasteners without borescope insertion or physical entry into the structure.

A contrast agent in solder flux makes PCB residue visible in x-ray or CT scans, helping verify cleaning and protect assembly reliability.

Electrolytic etching reveals hard nitride deterioration layers on gas turbine blades, enabling complete removal without wasting base material.

Rapid tracer screening uses controlled inert gas, fluid injection, pressure sensing, and filtration to simulate fractured gas well conditions.

Acoustic and electric sensing with AI separates valuable seabed minerals from mud and rock, cutting energy use and seabed disturbance.

Pulse-laser guide lines enable fast semiconductor sample cleaving for vertical defect inspection while minimizing thermal deformation and device damage.

X-ray diffraction and Rietveld refinement quantify furnace tube material degradation, enabling more accurate life prediction and maintenance timing.

Multiple adjustment screws deform the bearing outer race to correct rotation-path errors and improve X-ray image reconstruction accuracy.

High-energy CT scanning inspects self-piercing rivet joints without cutting, revealing cracks, interlock, and minimum thickness while reducing scrap.

Embedded hover and ground-contact control let a UAV-mounted XRF analyzer capture near-ground soil data quickly and accurately.

A motor-generator and locking mechanism let a pipeline pig move independently of flow, stop without wear, and hold position for inspection.

Filtered lubricant particles are probed by excitation energy to detect coking, improving aircraft engine condition diagnosis and maintenance timing.

Reliability scoring tied to lighting, shadows, and capture time helps image-based deterioration diagnosis stay trustworthy across varying conditions.

Pulsed laser scribing with assist gas enables deep, uniform splitting of thin ceramic substrates while limiting heat buildup and oxidation.

Thermal infrared imaging tracks PCB temperature gradients and self-corrects heating, flux, and conveyor settings to reduce solder defects.

A fluid-filled hollow seal lets a pipeline pig switch between low-drag movement and high-pressure sealing, with segmented control for maintenance.

Multiple circumferential adjustment members deform and fix the bearing outer race to maintain a near-circular rotation locus for sharper reconstructed images.

Multiple arithmetic expressions are selected by build step to process backscattered electron signals and improve powder spreading and melting assessment.

Multiple arithmetic expressions process backscattered electron signals by build step, improving powder spreading and melting assessment in 3D PBF.

Electrolytic etching exposes hard deterioration layers in gas turbine blades, enabling precise removal before thermal barrier recoating to prevent cracking.

Arc-sprayed iron-alloy and oxide coatings with 3-20% chromium help piercer plugs resist wear while preserving lubrication during piercing.

High-energy CT imaging reveals cracks, interlock, and minimum thickness in self-piercing rivet joints without cutting or polishing.