Material Analysis Using Wave/Particle Radiation TRIZ Cases

Deflector switches beam angles via independent power supplies, eliminating mechanical stage adjustments for flexible observation.

Segmented magnetic shields with intermediary connections counteract environmental field fluctuations to maintain electron beam focus.

A computer subsystem organizes design-based sub-regions into super-regions to generate unified scatter plots for efficient defect detection.

Composite small-angle X-ray scattering detects plate misalignment via amplitude distribution, replacing optical methods for 10nm fabrication precision.

Universal sample holder merges atom probe tomography and electron microscopy to align observation areas, enabling accurate crystal grain boundary specification.

Optical imaging and contrast analysis replace complex chemical elution tests for evaluating alkali deposits on medical glass containers.

A composite charged particle beam apparatus adjusts working distance via a tiltable ion column.

Correlating low-dose and high-dose electron microscopy data sets to enhance the resolution of three-dimensional molecular structures.

Statistical distribution training enables a neural network to convert spectroscopy data, reducing acquisition time while preserving essential information.

An apparatus detects metal catalyst fluorescence to generate a thickness direction profile for electrolyte membrane analysis.

A radiographic imaging device uses a refraction-enhancing grating at radiation converging points to boost phase sensitivity.

A handheld material analyser uses a vacuum chamber and electron beam to detect elemental composition on-site.

A motor-driven syringe pushes non-homogeneous petroleum samples through a flow cell to prevent settling and ensure consistent analyte concentration.

A microscope system merges scanning electron and transmission electron columns to visualize sample and crystal structures simultaneously.

Moving the grating arrangement across discrete positions acquires reference scan data, reducing scanning motions required for large radiation-sensitive areas.

A design method for nickel-based bolts applying damage tolerance theory to ensure structural integrity during high-temperature service.

An ionic liquid mediator forms a thin film on water-containing biological samples, enabling high-resolution electron microscopy without structural deformation.

Through electrodes in semiconductor chips reduce carrier transmission path length, resolving insufficient time resolution in X-ray CT and PET systems.

Calculating optimal tube start angles using patient anatomy data reduces radiation dose to sensitive organs without compromising diagnostic image quality.

Angled x-ray source and detector mounting on a rotating arm enables wide field of view cone beam computed tomography scanning.

A semiconductor inspection method normalizes pitch deviations to detect small defects masked by walking errors.

A polynomial equation calculates X-ray tube current from patient BMI to stabilize image noise during cardiac imaging.

A charged particle beam system measures surface potentials using retarding voltage control to offset secondary electron output.

Independent fan zones control air temperature in CT detector cooling zones, reducing thermal drift and minimizing fan noise.

Tomosynthesis apparatus calculates radiation doses from a radioscopy test to optimize image quality during scanning.

A mobile camera moves along internal rails within an enclosed detector casing to capture gamma photons from multiple angles.

Orientation structures in a mold constrain absorbing plates while injecting resin, resolving geometric complexity trade-offs for better scatter absorption.

A secondary projection imaging system uses a zoom lens and anti-scanning deflection unit to maintain high collection efficiency.

Controller moves imaging components based on calculated displacements, resolving manual positioning bottlenecks and reducing patient discomfort.

Off-axis beam tilting collects image data at multiple angles to distinguish lines from trenches, resolving measurement precision issues in dense arrays.

A silicon micropatterned air gap print head enables picoliter-scale droplet printing via ultrasonic wave irradiation.

A CT gantry cooling system uses a non-uniform opening pattern to smooth pressure fluctuations and reduce noise stress during coolant transfer.

Secondary collimator constrains scatter angles to reduce angular broadening while increasing photon reception at the detector strips.

A two-stage electron biprism system adjusts specimen and filament magnification independently.

Region-of-interest determination apparatus calculates defect incidence from multiple attribute information to extract high-concentration areas.

Prioritizing radiation doses near sensitive structures for immediate delivery reduces CT scans and minimizes patient exposure.

Dynamic gantry speed adjustment synchronizes with respiratory signals to optimize sampling rates during computed tomography scans.

Comparing gray level distributions across multiple electron beams detects individual beam abnormalities without interrupting the high-speed scanning workflow.

A charged particle beam apparatus acquires multiple SEM images with varying focus to select the optimal image for dimension measurement.

Alternating first and second detectors capture transmitted and scattered X-ray beams, resolving low collection efficiency bottlenecks in conventional systems.

Platinum coating absorbs electrons to resolve poor contrast between polymer substrate and antistatic antifouling layer for accurate shape analysis.

Encoding functional data into optically sensitive materials using electromagnetic radiation.

An electron beam device uses image processing to deconvolute intensity distribution data from secondary electrons.

Segmented capture and dual-wavelength staining resolve the trade-off between detection accuracy and time by distinguishing viable from non-viable pathogens.

Segmentation via a pressure-limiting aperture isolates the sample chamber from the column vacuum, reducing impurity interference and gas evacuation time.

Reference detectors measure external noise to subtract interference, maintaining signal-to-noise ratio despite limited electromagnetic shielding.

Nested optical paths and spectral analysis enable simultaneous multi-wavelength measurement, reducing device footprint while maintaining high throughput.

A scanning electron microscope uses a spin detector to measure secondary electron spin polarization for precise magnetic material analysis.

Irradiating evaporation fumes with X-rays enables real-time composition analysis, avoiding sample modification errors and costly mass spectrometry.

Local material averaging within detected ply boundaries resolves erroneous volumetric data analysis caused by complex woven and laid fabric structures.