Fuses adjacent mesh layers with matching electron density patterns to determine X-ray scattering intensity, reducing analysis time by 34.8 times.
Virtual sectional planes compare attenuation values across acquisition sets to detect body movement.
Movable mass bodies adjust rotational balance in X-ray CT gantries, reducing vibration and preventing mechanical resonance at high speeds.
Segmented ion thinning and electron X-ray detection resolve measurement precision constraints in semiconductor minute region analysis.
A defect review apparatus generates subtract images from multiple electron detector signals to isolate defects on semiconductor samples.
Portable integrated analysis system combining viscometer, spectrometer, particle counter, and x-ray subsystems.
A microlever excites multiple natural vibration modes to simultaneously measure oscillation amplitude and phase variations.
Segmented support members stabilize the scintillator, reducing distortion artifacts without increasing base weight.
A radiation detector uses pixel electrode sizing to collect electric charges from a converting layer.
Switchable variable layers in the scintillator separate photon signals to resolve pileup and maintain linear counting accuracy at high radiation doses.
A composite pre-patient collimator uses a tungsten insert molded to an aluminum base to block radiation while reducing moving mass.
A spectrally sensitive X-ray detector divides incident photon energy into discrete intervals to enable precise absorption measurements.
Shared scintillator layers resolve cost and registration trade-offs between separate SPECT, PET, and CT imaging spaces.
Batch processing via a nested sample basket reduces manual handling time in x-ray crystallography workflows.
Probabilistic spectral decomposition resolves signal-to-noise trade-offs by adapting to x-ray count statistics, ensuring accurate mineral classification.
Neutron pulse generator activates nitrogen in liquid crack penetrant to produce prompt gamma rays for structural defect mapping.
A detection unit uses x-ray fluorescence to identify material deposits on pipe inner surfaces.
A two-stage estimation apparatus extracts crystal phase information from polycrystalline materials using iterative optimization on diffraction data.
A radiation source pulling assembly rotates the emitter to expose the detector mechanism.
Replacing curved mirrors with a flat graded multilayer enables switching between SAXS and Bragg-Brentano geometries without hardware reconfiguration.
Digital tilt CT uses dynamic pre-object collimation to selectively attenuate radiation, reducing dose exposure outside the targeted image area.
Curved readout strips follow annular paths to detect specific radial positions in small-angle x-ray diffraction systems.
Virtual rotation of tomographic slices separates overlapping structures, resolving poor tissue contrast caused by similar X-ray attenuation coefficients.
An aircraft environmental sampling system collects ambient air constituents to quantify calcium-magnesium-aluminosilicate solids before engine ingestion.
Rotational scanning of tissue samples on a retrofitted mammography unit generates high-resolution 3D images to resolve positive margin detection during surgery.
A voltage compensation assembly measures and adjusts substrate potential during testing to prevent electrostatic discharge damage.
Molybdenum-doped silica particles stabilize toner charge to prevent white spots during high-density printing.
A semiconductor fabrication calibration standard provides simultaneous morphology and chemistry verification for electron column tools.
Computational positioning compensates for heating tube asymmetries, eliminating oval shapes and eccentricities in drawn quartz glass strands.
A computed tomography scan captures high-resolution geometry data of a component aperture using an inserted gage.
Ir-Lα rays from an iridium anode excite hafnium films, suppressing Hf-Lα interference and Raman scattering to detect iron and copper impurities.
A security inspection apparatus adjusts radiation emitter orientation based on detected object size and position.
A method determines neutron scattering length density using small-angle X-ray scattering intensity curves as a reference for matching.
A dual observation system configures separate optical paths for irradiation point specification and distance measurement.
Segmented carbon nanotube x-ray arrays deliver high dose rate microbeams to eradicate tumors while sparing normal tissue from collateral damage.
A Compton scattered X-ray imager uses time-of-flight measurements to locate scattering events within matter.
Segmented flexible cables balance stretching forces on a curved sensor panel, preventing circuit board defects while maintaining compact detector size.
An X-ray diffraction measurement apparatus uses inclined linear slits to direct radiation toward two-dimensional detectors for simultaneous multi-material analysis.
A pattern forming unit generates optical patterns on sample surfaces to enable rapid electron optical system adjustments.
Separate scanning and precession deflectors control electron beam shift and tilt independently within a scanning transmission electron microscope.
Energy-window photon selection replaces mechanical collimation, resolving the trade-off between measurement precision and device complexity.
Vertical aid attachment via thinned CT tabletop edges eliminates gantry interference and reduces operational time.
Integrating the transport path into the drive unit frees chamber volume for additional process units while maintaining vacuum integrity.
A hollow cylinder housing a cylindrically bent crystal diffracts x-rays to achieve natural vertical focusing without complex optics.
A sample fixing apparatus uses a graphene oxide window layer to control vitreous ice thickness for cryogenic electron microscopy.
Segmented detector array acquires tracer signals with sub-600 ps timing resolution, compensating for reduced angular coverage to detect small tumors.