Material Analysis Using Wave/Particle Radiation TRIZ Cases

Correction unit estimates focus position changes using segmented thermal expansion components to maintain irradiation alignment.

Polyethylene glycol dopes epoxy resin embedding media to resist electron beam charging, preserving structural support and transparency.

Monochromatic XRF analyzer measures low-level sulfur and chlorine in viscous crude oil, bypassing mechanical sample handling limitations.

A grid-based X-ray fluorescence method corrects spectral data using a scaling factor to measure small objects.

A preprocessing method uses reference object scans to correct X-ray signal degradation from self-attenuation effects.

Scanning electron microscope adjusts beam scanning to create uniform charge potential distribution across the sample surface.

Dynamic goniometer arms adjust scanning paths to balance high resolution and speed for micro-textured region analysis.

Segmented collimators create independent focal spots to resolve paint and substrate layers, enabling accurate toxin quantification at low regulatory limits.

Unshaped cooling of molten material flow creates a vitreous structure, eliminating expensive platinum molds.

Dual x-ray sources aligned at different z-axis positions emit concurrent radiation to a common detector for composite data generation.

Radiation detector assembly assigns spectral peaks to calculate energy conversion values for automatic calibration decisions.

Collimated x-ray beams illuminate the borehole volume to capture backscattered radiation for three-dimensional reconstruction of casing and cement structures.

A detector with a discharge hole vents accumulated gas from the X-ray passage, reducing helium consumption in fluorescence analysis.

An enhancement grating amplifies scattering intensity within the longitudinal coherence length of an incident X-ray beam.

A porous sample undergoes spontaneous imbibition and drainage to determine wettability parameters through high-resolution imaging.

A method determines optimal x-ray tube voltage and current for each phase of a multiphase examination to minimize total radiation dose.

Graphical overlays align the target volume with anatomical features, resolving positioning complexity in cone-beam devices.

An ore component analysis device uses adjustable X-ray excitation to detect secondary radiation for rapid elemental identification.

Differential orifices decouple vacuum requirements between the spin detector and sample chamber, enabling versatile analysis without breaking vacuum.

Segmenting the cooling system isolates thermal energy from the stage, reducing drift during focused charged particle beam processing.

Asymmetric blocking structure and heating element stabilize high viscosity sample flow, reducing sulfur residue on the x-ray transparent barrier.

Automated electromechanical fixtures replace manual adjustments to collect dynamic data sets during continuous CT scanning.

An inspection system applies voltage to light-emitting devices at varying temperatures to measure current differences for rapid quality assessment.

Grounding wafer samples prevents electrostatic particle absorption during transfer, improving measurement accuracy and manufacturing yield.

Segmenting scan areas allows reducing radiation exposure to radiosensitive tissues like the breast without degrading image quality through physical shields.

Extended damper structure absorbs mechanical disturbances from the installation plane to stabilize the electron optical column.

A modular neutron detection platform uses converter layers and pixelated sensor arrays to transform particle reactions into readable electrical signals.

In situ hydrogen passivation prevents sample oxidation during transfer from the focused ion beam to the transmission electron microscope.

A phase-contrast imaging method using a perforated grid to independently measure the real and imaginary parts of a sample's complex optical index.

Orthogonal kV imaging acquires projection radiographs to enable real-time target region tracking during arc therapy delivery.

A crystal orientation figure creating device generates real-time visual representations of crystal coordinates during charged particle beam measurements.

A polyethylene terephthalate window enables X-ray fluorescence detection of chemical elements in circulating lubricants.

A radiation source emits electromagnetic waves through a wound separator roll for internal defect detection.

A pattern measurement apparatus calculates predicted spectral waveforms from simulated sectional shapes to match actual measurements.

Electron beam irradiation generates characteristic X-rays from the insulator layer to calculate SOI film thickness with high spatial resolution.

Sorting EBSD diffraction bands by intensity resolves bandwidth measurement difficulties for reliable phase identification.

A charged particle beam system measures overlay shift amounts between sample layers using differential image accumulation.

Replacing mechanical filters with an electron beam system increases flow rates and reduces costs while maintaining sterility.

Segmenting screening into initial 2D checks before 3D imaging reduces unnecessary patient recalls while maintaining diagnostic accuracy.

Optical timing measures structural deformation to calculate aircraft center-of-gravity location, replacing manual methods that reduce payload capacity.

Condenser lens array divides beam into sub-beams to increase inspection throughput while field curvature correctors reduce aberrations.

An integrated specimen holder enables remote ion beam screen adjustment inside a common vacuum chamber to eliminate contamination from repeated transfers.

A sterilizing device uses a receiving aperture to position a UV source for direct access port treatment.

Automated voltage calculation based on pre-scanning eliminates manual trial-and-error adjustments for accurate biochemical image density.

Segmented shield parts move with positioning members to block motor electromagnetic fields in vacuum environments.

A multi-sector computed tomography method combines projection data from multiple heartbeats to reconstruct volumetric images.

Sliding the column unit along the support frame longitudinal axis resolves overhead space constraints while ensuring operator standing positions on both sides.

A modular calibration arrangement uses segmented carriers to position reference objects along a longitudinal axis for coordinate measuring machines.