Projection vectors transform spectral data into a reduced dimensional space to classify materials independently of thickness variations.
AES measures ultra-thin film thickness via a mathematical model, eliminating complex sample preparation required by TEM.
Map constructing unit reads crystal orientations from electron back-scattering patterns to build a 3D orientation map.
Small angle X-ray scattering profiles of hair samples detect active tuberculosis infection through lipid content analysis.
Apply electron beam-excited Auger standard spectra to curve fit X-ray-excited Auger data, resolving small photoelectron peak shifts in transition metals.
Low-temperature chemical oxidation converts radiocarbon to gas for simultaneous radioactivity measurement alongside tritiated water vapor.
A local area cosmogenic neutron sensor uses asymmetric shielding to isolate detection from lateral and top interference.
Angling an X-ray source to a low incidence angle enables accurate stress measurement using a two-dimensional detector.
A mobile back scattering imaging apparatus uses a distributed X-ray source with multiple target points to emit pencil ray beams simultaneously.
A correction blanking control unit applies a real-time signal to cancel ringing in electron beam switching.
Position measurement and correction units adjust substrate cover alignment before and after writing to prevent scratching and reduce particle generation.
Pre-computed isotope profiles in hash tables accelerate spectral deconvolution, eliminating processing delays during real-time material identification.
A water-cooled ultraviolet irradiator design separates the colored glass filter from the cooling jacket for independent maintenance.
A lensless inspection apparatus captures diffraction patterns to reconstruct three-dimensional product structures using numerical phase retrieval algorithms.
Computes adipose distribution data from medical images to identify abnormal shadow candidates via local maximum points.
Adhesives and locking clips attach multiple sample membranes to a single support grid for rapid transmission electron microscopy.
Segmented droplet injection reduces protein sample consumption by 97% while maintaining complete data set collection.
A calibration phantom containing CT and radioisotope markers calculates a transformation to correct mechanical misalignments in PET-CT scanners.
Segmenting radiation into monochromatic and polychromatic units reduces background noise, enabling high-sensitivity detection of low-concentration elements.
Second harmonic generation microscopy identifies crystalline regions within amorphous solid dispersions to guide targeted spectroscopic analysis.
A movable shielding element varies the effective receiving area of X-ray detector elements to increase spatial resolution.
Automated X-ray fluorescence analysis replaces manual retort methods to eliminate time-consuming heating and improve drilling fluid solids measurement accuracy.
Controller generates optimized scan patterns to minimize electron beam dwell time between wafer areas of interest.
Calculates and displays the transverse movable region for an X-ray CT bed, preventing gantry collisions during patient positioning.
Co-rotating aperture shield absorbs anode heat to reduce power consumption while maintaining image quality.
An orbital X-ray diagnostic device verifies tumor position in the irradiation area, eliminating patient relocation errors.
Segmenting the primary beam via a multi-hole aperture reduces Coulomb interactions, enhancing spatial resolution without increasing landing energy.
Sequential fitting calculates background intensity from secondary spectra to resolve overlapping peaks in X-ray fluorescence analysis.
A charged particle beam device synthesizes signals from multiple detectors to enhance image quality.
A single-photon avalanche diode measures temporal averages of X-ray photon arrival times to estimate tissue attenuation coefficients.
An analysis device accumulates component analysis results and identifies similar records using spectral data.
Pulsed electromagnetic beams and range-gated detection windows generate depth profiles of backscattered energy from a volume.
Applying correction values derived from known spherical dimensions compensates for X-ray source and detector characteristics, increasing measurement precision.