Material Analysis Using Wave/Particle Radiation TRIZ Cases

A correlative imaging system merges light and electron microscopy to detect protein distribution within intact cells.

A uniform sphere phantom generates volumetric data to quantify axial and trans-axial resolution without mechanical alignment or post-processing corrections.

Starting gantry rotation and anode spin prior to condition confirmation reduces operator wait time while allowing dynamic parameter adjustments.

Mechanical clamping prevents sample damage and eliminates aluminum interference during EDS analysis.

PID control on the pressure regulatory valve stores opening degrees during disconnect states, enabling rapid pressure convergence to set vacuum values.

An X-ray guided water jet removes contaminants from meat, eliminating manual intervention while preserving product integrity.

Movable collimator blades adjust dynamically during rotation to reduce scatter radiation and improve image contrast.

A radiation detector system collects transmitted and scattered x-ray data across multiple energy bands to resolve material composition.

Dual rotary arms move a single probe to measure leaking rays across hemispheres, eliminating multiple probes and reducing device complexity.

Focused ion beam imaging applies external bias to integrated circuits, causing coupled components to appear in high contrast for accurate tracing.

Charged particle beam device detects interaction radiation to differentiate coal from resin bedding materials.

An XRF sorting system identifies aluminum alloy scrap pieces by elemental composition for precise classification.

A diagnostic kit uses antibodies to detect complement factor B and carbohydrate antigen 19-9 proteins in blood samples.

Expectation maximization algorithms estimate pileup correction terms to resolve distorted energy responses in photon counting computed tomography systems.

Multilayer film paraboloid mirror collimates X-rays in two dimensions to produce a highly intense monochromatic beam.

Isofocal dose writing resizes design patterns based on mesh area density calculations to prevent dimension fluctuations from focal positional deviations.

A multilayer nanostructure scintillator directs spontaneous emission through alternating refractive index layers to concentrate photons toward sensors.

A CT apparatus controls X-ray irradiation timing using real-time respiratory motion data to capture volume scans across varying breath depths.

LiDAR scanners acquire angular position data to produce precise 3D anatomical models, eliminating ionizing radiation dose during patient positioning workflows.

Applying a bias voltage during focused ion beam imaging highlights connected components through high contrast, reducing manual tracing effort.

UV disinfection cabinet uses adjustable brackets to secure inside existing furniture, eliminating germs on sponges and towels.

A scanning transmission electron microscope uses two magnetic lenses to independently set the acceptance angle and object point for energy loss spectroscopy.

A T-SAXS measurement system estimates three-dimensional shapes using X-ray diffraction and photoelectric conversion.

Periodic X-ray activation synchronized with EKG signals reduces radiation dose while maintaining image quality in arrhythmic patients.

Scanning electron microscopy isolates subsurface defects by comparing voltage-contrast images from non-parallel beam scans to suppress background noise.

Angular phase gradient induction in charged particle beams using spaced conductive elements.

Arranging detector modules along a circular arc bridges dead zones, eliminating measurement gaps and reducing time loss from module movement.

Real-time waveform feedback stabilizes breathing motion and verifies cardiac index capture, reducing image artifacts in X-ray computed tomography.

A high brightness x-ray illumination system supplies tailored energy levels for simultaneous XRF and XPS measurements.

Block-diagonal matrix solving determines high-resolution 3D variability components, resolving blurred flexible motions in cryo-EM images.

A single imaging system integrates x-ray microtomography and optical tomography capabilities.

A multi-axis micro-positioning system adjusts sample tilt and rotation for precise ion beam targeting.

Stationary X-ray detectors capture 2-D projections while the patient rotates, enabling precise proton beam targeting and reduced healthy tissue damage.

A free-standing lithium borate crucible liner prevents exothermic reactions between reactive samples and platinum crucibles.

Pass-through alignment marks on the carrier surface resolve calibration conflicts by providing bidirectional visibility without increasing scratch sensitivity.

Mercury sensor tape collects mercury via amalgamation on a thin metal film, enabling precise detection through TXRF analysis.

Vehicle-mounted backscatter x-ray detectors scan railway ties for internal voids and cracks during continuous transit.

Correcting X-ray intensity distribution asymmetry via beam stopper averaging improves measurement precision.

Segmented probe tube design eliminates vacuum chamber constraints, enabling operando catalytic reaction analysis in fluid environments.

Integrated test structures enable on-line resistance monitoring of via holes, eliminating off-line detection labor and reducing manufacturing costs.

Dynamic aperture adjustment reduces diffraction blur, enabling 1 nm spot sizes for precise semiconductor metrology.

A processing system translates radiation dose distributions to protect critical anatomical structures during external beam therapy.

A multilayer mirror optical system creates a pseudo-parallel beam region to improve small angle resolution.

Merging shielding and cooling eliminates bulky chillers, reducing weight and complexity in portable x-ray inspection systems.

A multi-source X-ray analysis system generates simultaneous rays to collect fluorescence and diffraction signals from an analyzed object.

Dynamic band contrast imaging constructs images from scattering patterns acquired at multiple scanning locations using a charged particle beam.