Handling Using Diffraction/Refraction/Reflection TRIZ Cases

Selective electroless metal deposition forms thinner EUV reticle absorbers with smooth sidewalls, reducing shadowing and mirror damage.

Micro-lithographic stress patterning reshapes thin substrates to correct wafer warpage, astigmatism, and trefoil distortion.

A reaction-mass and spring-mounted feedback stage improves crystal parallelism and nanometric stability in synchrotron beamline flyscans.

Pulsed femtosecond laser sequences treat EUV optical elements more uniformly, suppressing reflectivity while limiting multilayer compaction.

Two-photon laser writing builds micro- and nano-scale X-ray diffractive optics in one step, enabling high aspect ratios and precise 3D kinoforms.

Controlling PSD across key spatial frequencies helps a titania-doped mask blank glass substrate maintain EUV reflectance and flatness.

A high-low-medium refractive index multilayer stack cuts EUV 3D shadowing while preserving reflectance for more accurate pattern transfer.

A raise-rotate-lower sequence lets DUV mirrors clear frame struts in tight housings, enabling precise collision-free swapping.

A high-low-medium index multilayer mask blank reduces EUV 3D shadowing while preserving reflectance for precise pattern transfer.

Metasurface lenses formed on UHV cell walls replace bulk optics, shrinking ultracold matter systems while preserving beam shaping and focusing.

Variable hydrogen etching flow removes tin deposits from an EUV mirror while limiting blistering and preserving reflectance and output power.

Additive-tuned Ru/Rh-Si multilayers and a matching protective film suppress interlayer diffusion while keeping a shallow reflective surface for accurate EUV transfer.

Motorized arms reorient the crystal analyzer and detector while preserving Rowland geometry in vacuum or inert-air gloveboxes.

A separate optical component corrects capillary figure errors, enabling sub-10-micron x-ray focus while retaining high flux density.

Bulk optics add size, weight, and power demands to ultracold systems; metasurface lenses in UHV cell walls focus, collimate, or expand laser beams.

Angled reflectors and lateral shielding guide neutrons through a labyrinth path while reducing gamma and fast neutron dose contamination.

High-output X-rays and multilayer KB mirrors enlarge images of deep semiconductor structures for laboratory inspection.

Segmented molybdenum sublayers balance EUV reflectance and low inspection background.

A recessed portion with a lateral gas supply port redirects etching gas flow within an EUV chamber device.

Flexible detector positioning reduces radiation phase contrast imaging device size while maintaining self-image detection capability.

A functional layer reduces hydrogen concentration on the substrate face to protect the EUV reflective coating.

Sensors monitor plasma generation to adjust droplet and laser parameters, deflecting charged particles away from sensitive components.

Movable optics components deflect primary X-ray beams at distinct angles, resolving insufficient brilliance and intensity in conventional fixed-path devices.

Angled capillary optics direct x-ray light through grazing incidence reflection, resolving low beam reflection efficiency in conventional systems.

Shielding layers block stray electric fields from electrode leads, preventing unwanted deformation and preserving imaging quality in EUV mirrors.

A reflective optical element uses a porous outgassing layer to release adsorbed particles under EUV radiation.

A control unit positions a disc sample to radiate primary X-rays from outside the region above the sample for total reflection.

Segmenting the interior surface into distinct optical and supporter parts reduces figure error and roughness requirements for hard X-ray reflectors.

A processor adjusts pulse laser irradiation frequency to stabilize extreme ultraviolet light energy output.

A multi-capillary lens collects X-rays and directs them into a single-capillary lens for final focusing.

Adjustable aperture assembly modifies x-ray beam convergence and focal spot size, reducing background radiation from multi-wavelength sources.

A second faceted element with displaceable micromirrors groups into adjustable facets to control light intensity distribution.

A multi-layer coating on an EUV optical grating suppresses higher order diffraction to eliminate unwanted radiation components.

An x-ray optic with an asymmetric revolution axis concentrates photon flux from a circular source into a focused beam.

Angled sidewalls with reflective layers improve EUV mask absorber contrast, reducing line edge roughness without increasing exposure dose.

A tunable side-bounce monochromator system uses rotatable diffraction elements to maintain a fixed exit angle.

A spray nozzle array directs droplets to an irradiating position for laser bombardment.

Carbon nanotube optics guide x-ray beams via total external reflection, reducing photon loss from internal wall roughness.

Concentric refractive index gradients in a metamaterial sheet diverge and converge electromagnetic waves, reducing device size and energy consumption.

Aligns X-ray phase contrast masks using detector pixel response non-uniformity for precise positioning.

A rotating substrate holder in an atomic layer deposition reactor enables uniform material distribution across complex geometries.

An X-ray system uses lenses to converge treatment radiation while a shutter filters the central imaging beam for real-time tumor detection.

Compound zone plates stack multiple thinner elements to multiply pitch frequency and enhance numerical aperture.

Differential embedding in a capture matrix separates isotopes based on momentum differences, replacing large-scale centrifugation with single-pass efficiency.

Thermally deformable layer corrects EUV mirror shape deviations using temperature fields, maintaining wavefront accuracy after cooling.