Material Analysis Using Wave/Particle Radiation TRIZ Cases

Segmented gantry design enables weight-bearing foot imaging, resolving size constraints that prevent in-office diagnostic accuracy.

Optical tracking replaces continuous x-ray exposure by correlating surface scans with four-dimensional computed tomography images.

Iterative binder concentration modeling corrects pressed powder X-ray fluorescence data affected by segregation.

A dual-mode small angle x-ray scattering camera switches between one-dimensional and two-dimensional beam configurations using a dedicated selection device.

Dynamic vacuum control prevents liquid sample vaporization while maintaining sufficient X-ray transmittance for light element detection.

A scanning electron microscope uses an electric field shielding plate above the object lens to accelerate primary electrons and enhance image contrast.

Sequential emitter activation creates absorber shadows to measure lateral scattered radiation, correcting image artifacts without rotating components.

An interactive control sphere synchronizes stage coordinates with crystallographic pole positions to automate specimen orientation.

Automated key image selection based on fixed radiography angles maintains uniform tracking intervals, eliminating motion blur from variable operator selection.

Superlattice standard component uses heavy metal marks to identify calibration positions, reducing pattern deformation from beam dosage.

Parameterizing mercury injection capillary pressure data classifies pore types independently of depositional geology.

Trajectory corrector compensates for off-axis aberrations introduced by deflector lenses, preserving image resolution while moving the visual field.

Pinhole aperture between tube and lens increases focal depth for complex topography samples.

A charged particle beam device adjusts stage distance to maintain a predetermined working distance for accurate sample inspection.

A movable collimator with an integrated light window resolves the conflict between minimizing apparatus volume and maintaining sample photography capability.

A reaction control workstation couples X-ray spectroscopy with mass spectrometry via a sampling capillary.

Charged particle optics scan regions of interest at variable rates to generate high-fidelity images from mixed electron yield areas.

A method correlates fluorescence and electron microscopy datasets using feature markers to produce a single visual image.

An x-ray polarizer blocks Bremsstrahlung radiation to improve the signal-to-noise ratio during low landing energy scanning electron microscopy.

A reference detector system stabilizes X-ray generator output using direct and fluorescent photon channels.

Real-time X-ray diffraction analysis detects defects during material deposition, enabling closed-loop process adjustments to eliminate part-to-part variation.

A scanning microscope corrects image shift quantities during continuous stage displacement to reconfigure clear target area images.

A phase variance optical coherence tomography method detects nanometer-scale motion and characterizes mobile scatterers.

External-air fans and a heater regulate the ambient temperature around the X-ray source to stabilize the polycapillary optic position.

Segmented silicon carbide sub-sources enable depth-selectable x-ray analysis by generating Si emission lines between Al and Ga K-alpha energies.

Multiple diffractors transmit and diffract x-rays to separate detectors, increasing data collection speed while maintaining energy resolution.

A method estimating effective atomic number from transmission spectra using a calculated likelihood function across multiple energy channels.

A retractable actuator mechanism housed within the door part of an X-ray fluorescence analysis device.

Composite VHH antibody linked to streptavidin lowers dissociation constant for stronger norovirus detection.

A robotic mobile x-ray scanner positions a detector arm to inspect packages at various heights.

Gold nanoparticle standards replicate mercury X-ray fluorescence signals, eliminating toxicity and handling costs during calibration.

A backscatter X-ray imaging system detects foreign object debris by capturing baseline and secondary scans after imparting structural movement.

A segmented anode reduces background noise from scattered bremsstrahlung during heavy element fluorescence analysis.

An integrated sensor uses preliminary optical imaging to verify alignment before X-ray exposure, reducing radiation dose.

A scanning electron microscope applies voltage to a backscattered electron detector while monitoring secondary electron signal intensity.

Iterative tomographic reconstruction applies mathematical filtering to accelerate convergence and sharpen image quality.

X-ray diffraction detects surface abnormalities in metallic products by analyzing scattered radiation peaks.

Spatially varying weighting functions combine helical half-scan image data to reduce cone beam artifacts in cardiac CT reconstruction.

Exciting detector multipoles warps the electron image to counteract projection system distortions, enabling bulk correction without individual pixel processing.

A charged particle beam apparatus generates a scale pattern to superimpose on memory cell images for precise location identification.

Regression analysis separates true line edge roughness from measurement noise in SEM signals, improving accuracy without increasing scan time.