Material Analysis Using Wave/Particle Radiation TRIZ Cases

Radial magnetic circuit gaps in a multi-axis immersion lens preserve local field symmetry, eliminating transverse aberrations that degrade spatial resolution.

An imaging method attaches agents to objects and expands portions in three dimensions for X-ray interaction.

Offsetting objects from the rotation axis distributes x-ray path lengths to reduce beam hardening and concave wall effects.

A photo-detecting circuit uses a dynamic reset voltage to accelerate charge discharge at the integration node.

A charged particle beam device uses a thin film to partition vacuum and air atmospheres for specimen observation.

Differential incremental gas venting prevents particle contamination on sample surfaces during rapid pressure transitions.

Segmented calcium phosphate liposomes shield dyes from chemical effects to isolate and quantify Type 2 physical enhancement.

A ship bottom coating evaluation method measures roughness parameters within a specific wavelength range to calculate frictional resistance increase rates.

A back-scattering inspection system distinguishes body images from background images to identify radioactive substances.

Segmented steel and carbon fiber frames reduce radiation attenuation while guide frames prevent line entanglement during 360-degree rotation.

Reconstructs three-dimensional digital representations of porous materials to compute relative permeabilities, eliminating expensive laboratory tests.

A monitoring system calculates emitter resistance trends to predict X-ray tube failures before they occur.

Directed ozone gas flow neutralizes specimen charge and removes carbon deposits to prevent imaging degradation from charging effects.

A defect observation apparatus synthesizes non-defective product images from design data and defect coordinates for comparative inspection.

A focused ion beam creates a tilted surface to expose the observation field.

A digital workflow scans artificial foam to create customized porous titanium implants via 3D printing.

Controlling top and bottom surface Na2O concentration differences equalizes ion exchange stress to suppress float glass warpage during chemical strengthening.

A sensing element with rectangular slots amplifies terahertz waves to detect photoreceptor protein dynamics.

Silicon auxiliary stage prevents chamber pollution from clay solvents while maintaining high resolution.

Pivoting the X-ray generation unit around a fixed sample eliminates heavy stage movement, reducing scanning time.

Segmenting outer plies isolates hydrolyzed regions for precise cross-sectional analysis of cyanate ester matrix resin materials.

Iterative correction terms resolve erroneous composition calculations caused by partial electron beam transmission through finite object thickness.

Hardened polymer layers on cryo-EM grids overcome electrostatic attraction, enabling dissected specimen transfer to collection vessels.

Alternating plasma treatments with CF4 and H2 gases remove copper oxide contamination while real-time optical monitoring prevents excessive wall accumulation.

Focused ion beam cutting combined with variable pressure neutralization eliminates charging artifacts and mechanical deformation in serial block face imaging.

Merges perpendicular raster scans using weight factors based on temporal coherence to correct mechanical vibration artifacts.

XPS spectroscopy measures GaN/dielectric interface oxidation states and energy positions for quality assessment.

A synchronization device derives triggering instants from periodic physiological signals to align image capture with pre-operative data sets.

A computed tomography baffle adjusts its rotation center to focus X-rays on specific partial areas.

Periodic field reversal cancels positive and negative charging patterns on insulating substrates, maintaining imaging resolution without distortion.

A terahertz wave imaging apparatus uses a Michelson interferometer to acquire surface and depth images simultaneously.

Focused ion beam bombardment generates detectable secondary ions, enabling clear and repeatable subcellular metal ion imaging without radioactive isotopes.

Sequential grid modulation activates discrete X-ray sources to acquire complete cardiac data in a single rotation, resolving incomplete data artifacts.

A pulsed neutron generator and CT scanner analyze core samples inside a sealed containment system.

Segmented focal spots on a rotating anode disk provide wide axial coverage without increasing device complexity or image artifacts.

Gas cluster ion beams mill tissue layers uniformly at steeper angles, correcting z-position errors from traditional focused ion beam milling.

A line-frequency rotary transformer transmits AC power to a rotating CT gantry using magnetic coupling through an air gap.

Soft x-ray diffraction enables precise measurement of high aspect ratio structures using polychromatic radiation and grazing incidence angles.

A TEM sample preparation method uses a segmented grabbing portion to handle the specimen with microtweezers.

Electroless nickel plating embeds iron-based alloy powders into a conductive matrix, while electrical polishing removes residual stress from the surface.

Embed metal particles in composite turbine parts to create unique internal patterns for X-ray identification and deformation tracking.

X-ray image processing extracts cargo features to assess compliance, resolving the trade-off between inspection accuracy and throughput.

A photon counting CT apparatus corrects material decomposition maps using measured corrective values from the X-ray tube.

Linear receivers with active equalizers compensate for signal dispersion and jitter in high-speed rotating data links.

Dual multiple aperture devices dynamically shape x-ray beams using optimized relative motion, addressing static filter limitations and patient size variability.

A nucleonic densitometer measures return fluid density using gamma ray attenuation on the wellbore return line.

Region-of-interest setting unit disposes objects on scanograms to configure scanning parameters, reducing time for image review.

A sample source integrates a particle beam channel to conduct beams to an inner sample side.

A cathodoluminescence system directs electron beams onto semiconductor wafers to capture emitted light for defect analysis.