Handling Using Diffraction/Refraction/Reflection TRIZ Cases

Modular segmentation fills dead zones with parabolic foils to eliminate manufacturing complexity and improve focusing resolution.

A mirror uses a compound layer and protective coating to reflect electromagnetic radiation at grazing incidence angles.

Polynomial corrective shapes on nested Wolter I mirrors redirect radiation to fill far field intensity distribution dips caused by mirror thickness shadowing.

A supersonic beam of isotopically mixed gas elastically scatters from a single-crystalline surface to separate isotopes into distinct angular distributions.

An array of phase gratings diffracts a neutron beam into structured waves, overcoming the impractical size limits of refractive optics for neutron imaging.

Alternating grating subareas modulate phase and transmit radiation to capture density data.

Rotating an eccentric beam blocking element adjusts X-ray divergence angles and intensity, replacing complex micrometer screw mechanisms.

Multilayer film mirror intensifies laboratory X-rays to resolve exposure time bottlenecks, enabling high-resolution crystal defect observation.

Stacked plates with slits restrict scattered radiation angles, resolving fabrication complexity and weight issues in large X-ray diffraction systems.

A shield cover with a through-hole attenuates pressure waves, stabilizing target trajectory and ensuring consistent EUV light production.

Molding supercooled metallic glass before crystallization completes resolves viscosity and shape control contradictions.

Combining adapted phase and absorption images separates overlapping structures without increasing radiation exposure.

A segmented reflective optic assembly achieves precise alignment and superior surface finishing through modular construction.

Capacitive voltage interpolation in the mirror mediator layer eliminates steady-state current flow, reducing power loss and thermal effects.

An optical measurement system detects grating misalignment in differential phase contrast imaging setups to enable precise electronic correction signals.

A matter-wave atom interferometer gyroscope extracts phase maps from fringe images to calculate inertial parameters.

A parabolic multilayer mirror and polycapillary optics convert linear X-ray beams into focused point beams for high-intensity diffraction.

A reflective optical element incorporates a deformation reduction layer to minimize thermal distortions in EUV microlithography systems.

Segmenting spatial conditioning from spectral filtering resolves the trade-off between beam intensity and monochromaticity.

Rotation of the debris mitigation unit prevents tin contamination while maintaining measurement precision for EUV radiation energy monitoring.

Actuators displace field facets to trim illumination channels, increasing light throughput by resolving non-uniformity trade-offs.

Circulating fluid through the mirror channel prevents thermal deformation and aberrations in EUV lithography systems.

An X-ray Talbot imaging apparatus places a light absorbing object between a grating and subject to eliminate background reflections and light saturation.

Spatial light modulator encodes complex amplitude to generate arbitrary-order optical vortex arrays.

Segmentation and extraction resolve the contradiction between increasing useful power and mitigating particulate contaminants in EUV lithography.

A Wolter condenser concentrates x-rays from a microfocus source onto a sample using nested hyperbolic and ellipsoidal surfaces.

Segmented multilayer optics in a multi-beam x-ray system deliver optimized beam characteristics without requiring multiple separate optical systems.

Dual-pulse laser heating of target droplets generates extreme ultraviolet radiation, reducing collector contamination from debris deposition.

Two-photon polymerization creates polymer refractive X-ray optics with sub-100 nm roughness, replacing bulky transfocators.

An electric field redirects tin ions to exhaust ports, preventing debris deposition on the EUV collector mirror and eliminating superconducting magnets.

Multiple exhaust ports and a gas exhaust amount adjustment unit direct residual gases away from the mirror to prevent fine particle deposition.

Tiled ring lens system concentrates lower energy X-rays to achieve uniform intensity distribution across the target volume.

Dynamic laser steering and buffer gas pressure management minimize debris deposition on optical elements, extending EUV source lifetime.

Segmented peripheral heads direct gas flows along the mirror to form a composite stream, suppressing tin atom re-deposition and maintaining optical efficiency.

A component mounter corrects suction nozzle positional deviations using pre-measured data to align components accurately.

A laser produced plasma light source uses a rotating target assembly with high emissivity coatings to radiate heat from the interaction zone.

A grazing-incidence collector mirror directs extreme ultraviolet radiation to an intermediate focus within a laser-produced plasma source.

A diffractive X-ray lens achieves high-resolution imaging above 8 keV by replacing total reflection optics with diffraction-based focusing.

Segmented single-crystal tiles redirect divergent radiation to a common focal point, maintaining beam intensity while achieving uniform tumor irradiation.

Segmented beam shapers adjust radiation intensity profiles via movable tungsten elements, resolving insufficient modulation and scatter in CT scanners.

Inductively coupled plasma etches tin debris from collector mirrors using chlorine radicals, extending mirror lifespan and reducing maintenance downtime.

A Wolter Type-I reflective x-ray microscope paired with a three-dimensional detector stack captures multiple in-focus images along a single line of sight.

A shield positioned within the Debye length prevents hydrogen plasma etching, maintaining reflectivity and productivity.

Titanium top coatings constrain high-aspect ratio nanostructures, preventing electrostatic tilting while maintaining x-ray diffraction efficiency.

Hydrogen radicals chemically convert tin debris into volatile stannane gas, preventing redeposition and maintaining optical element performance.

Piezoelectric mirror elements adjust layer thickness via electric fields to maintain optical quality and superimposition accuracy.

Virtual single-layer grating synthesis decouples orthogonal blade velocities for independent sliding-window segmentation.