Material Analysis Using Wave/Particle Radiation TRIZ Cases

A multi-modality imaging system aligns CT and PET components using positional vectors derived from shared radiopaque markers.

Polycrystalline diamond substrate dissipates heat from the target layer while allowing generated X-rays to pass through.

Magnetic and electrostatic deflection components move the e-beam to scan large wafer areas while maintaining high signal-to-noise ratio.

A pre-chill station cools wafers before implantation, eliminating in-situ icing and boosting throughput.

A photoelectron emission mapping system detects EUV mask and mirror surface contamination using a remote detector positioned outside the beam path.

A backscattering X-Ray device measures photon energy to determine material density and atomic number.

A sterilization system directs radiation based on real-time object detection to maintain safety.

Weighted combination of material basis sinograms in the projection domain reduces noise and increases contrast-to-noise ratio without additional calibration.

A linear x-ray tube with individually controlled sources enables high-resolution imaging of plant roots in native soil environments.

Sealed polymer films prevent air bubbles and sample loss, enabling accurate X-ray fluorescence analysis of small liquid volumes.

Orbiting the TEM phase plate averages its sharp edge into a gradual transition, suppressing ringing artifacts while maintaining high contrast.

Polyatomic primary ion beams sputter cesium-coated samples to generate secondary ions, reducing matrix effects in quantitative analysis.

Atomic force microscopy measures electrical conductivity and mechanical properties of kerogen-rich shale samples at micro- and nanoscales.

A grid-controlled X-ray source modulates electron beams to resolve the trade-off between transmission power and cathode durability in space communication.

A rotatable aperture in the monochromator switches between narrow and wide openings to resolve energy resolution versus beam current instability.

Segmented muon scattering and electron stopping detection identifies materials without long signal collection times.

Electrochemical acidic bath with surfactant dissolves metallic residues from sputtering targets, enabling reliable reuse in display manufacturing.

Segmenting the stage into long-stroke and micromotion units reduces settling time during multi-beam substrate scanning.

Extreme ultraviolet radiation reads and edits gene sequences simultaneously, overcoming the complexity of enzymatic Next Generation Sequencing.

Ferrocenyl copolymers lower operating potential to eliminate interference from electroactive species and atmospheric oxygen.

A scanning particle microscope merges with a deflectable probe microscope to enable rapid mode switching for sample examination.

A large bore PET imaging system uses high-speed detectors to capture annihilation events.

Ultraviolet irradiation activates oxygen to remove organic contamination, maintaining length measurement precision without etching sample surfaces.

A TEM sample preparation method uses a mixed acid solution to differentially thin lightly doped regions relative to the silicon substrate.

Cross-correlating object and probe function estimates determines the peak location, correcting drift errors to enhance image resolution.

Filter wheels with pre-filters monitor x-ray source spectra to reduce beam hardening artifacts in computed tomography.

Shielded radioisotope identifiers detect gamma decay counts from earth samples, reducing twenty-one day laboratory periods to on-site hours.

Synchronizing x-ray focal spot position with the data acquisition system prevents image artifacts caused by blurred spots during transition periods.

Multi-angle electron scattering illuminates nanometric structural elements to generate three-dimensional information from forward scattered electrons.

Angled ramp test object produces uniform waveform profiles across tomographic slices to assess spatial performance metrics.

A hybrid X-ray detector stacks photon counting and energy integrating channels on a shared ray conversion portion to process signals simultaneously.

Soft-landing electrospray ion deposition places single molecules on a transparent receiving layer for low-energy electron transmission imaging.

A scanning transmission electron microscope generates multiple STEM image types using a single detector and adjustable integration regions.

A nuclear density gauge uses a movable source mount to position a gamma radiation source relative to a detector.

Adjustable guard ring compensates dipole and quadrupole fringe fields, correcting beam position offset errors and astigmatism at the wafer edge.

Combining X-ray diffraction with B3LYP calculations resolves the ganoderic acid A structure despite equipment complexity.

NMR spectrometers measure magnetic susceptibility of drill fines to identify mineral composition in real time.

Merging x-ray luminescence and transmission detectors resolves self-absorption and contrast issues across varying diamond sizes.

Repositioning the collimator to the aperture plane eliminates shadow regions and blocks external light interference in Laue diffraction systems.

A metallo-supramolecular branched polymer protects biological particles from the air-water interface during vitrification.

Coordinate conversion of X-ray scattering intensity resolves the trade-off between measurement speed and accuracy for columnar structure tilt analysis.

Automatic selection of registration parameter sets for medical image data based on application cases.

Scanning electron microscope x-ray detection uses variable landing energy to generate high-resolution surface material images.

Pharmacophore modeling predicts ligand docking positions at the RyR1 binding site identified by cryoEM to restore channel function.