Optical Elements TRIZ Cases

Combining specific organopolysiloxanes reduces surface tack and dust adhesion while maintaining shock resistance for LED lenses.

Independent rotational assemblies control mirror tilt and rotation to resolve the trade-off between large reflecting surface area and high scanning speed.

A head mounted display integrates eye, lip, and gesture tracing by using distinct light beams for simultaneous image acquisition, reducing device complexity.

Non-axisymmetric curved surfaces in a prism relay optical system reduce distortion and diopter scale for external light while maintaining compact device size.

An optical filter with direction-dependent reflectance uses layered absorption to minimize internal reflections.

Segmented optical units with tilted reflective surfaces maintain telecentricity and reduce eye strain from inconsistent focal depths.

A zoom lens uses a prism splitting unit to separate light wavelengths while maintaining large aperture sizes.

A concavo-convex optical element directs near-infrared light upward via diffuse reflection, reducing urban heat island effects from specular reflection.

Segmenting the rearmost lens group into three sub-groups isolates image stabilization, reducing decentering coma and assembly sensitivity.

Optical path conversion enlarges perceived image size in wearable displays, reducing volume and weight while improving wearing comfort.

Segmenting the lens into elements with specific convex and concave surfaces suppresses aberrations while reducing system length.

A zoom lens uses plastic aspherical lenses to achieve wide angle of view and high zoom ratio.

A molded interconnect device forms electrical connections within a head mounted display frame to integrate electrode patterns and ground surfaces.

A six-element imaging lens uses specific refractive powers and aspheric surfaces to achieve a low profile.

VCSEL-driven diffractive optical element generates structured light projection, resolving Time of Flight near-range precision limits.

Aspherical front-end elements resolve the trade-off between wide field of view and aberration compensation.

A projection zoom lens system uses an aspheric fifth lens group to correct optical aberrations during zooming operations.

A five-group zoom lens configuration with alternating refractive powers corrects aberrations while maintaining a compact optical structure.

Optimized refractive power distribution across five lenses achieves ultra-thin design and effective chromatic aberration correction.

Rotating half-transmitting mirrors and lens boards collapse into a base board, solving portability issues in bulky optical devices.

A holographic element on eyeglass lenses deflects light beams to project images directly onto the user's retina.

A near-eye display apparatus overlays an augmented reality user interface onto virtual reality imagery using a transparent optical element.

An aspherical negative lens in a four-group zoom system corrects chromatic and spherical aberrations, resolving compact design trade-offs.

A seven-lens imaging system uses aspheric surfaces and specific Abbe numbers to resolve chromatic aberration while maintaining compact size.

An eight-lens optical imaging assembly distributes refractive power across individual elements to achieve ultra-thin form factors.

Negative lens positioned before aperture stop corrects secondary spectrum through precise refractive index and partial dispersion ratio control.

Amphiphilic branched polydiorganosiloxane macromers reduce curing time and shrinkage in silicone hydrogel contact lens production.

A titanium nitride pad creates an ohmic path between the DMD mirror via and torsion hinge to lower electrical resistance.

A polycarbonate copolymer with alicyclic hydrocarbon groups enables high Abbe number lenses.

Segmented lens groups with aspheric plastic elements minimize thermal drift relative to the focal plane across wide temperature ranges.

Optical imaging lenses with optimized refractive indices decrease the F-number while maintaining high imaging quality.

Segmented soft pads on elastic parts adjust to user facial contours for a secure head-mounted display fit.

Angled mirrors create tilted optical paths to increase component density while eliminating beam blocking and thermal differentials.

Recessed passivation layers guide light-emitting element placement to resolve structural instability and light loss in integrated color conversion displays.

A five-element camera optical lens combines glass and plastic materials to achieve high-performance imaging within a compact form factor.

A seven-element camera optical lens achieves large aperture and ultra-thinness through precise refractive power distribution.

A resin lens with a power diffracting surface cancels refractive power to stabilize beam spot diameter.

A compact zoom optic system uses a negative refractive first lens group to achieve high magnification and wide viewing angles.

A lens assembly uses a reflective element to fold the optical path and adjust focal length.

High refractive index plastic lenses resolve the contradiction between miniaturization and camera resolution in mobile terminals.

A six-lens wide angle lens with alternating refractive powers corrects optical aberrations.

A triazine-based polymer hybrid composition disperses surface-treated inorganic particulates to achieve high refractive index.

A seven-element lens system uses aspheric surfaces to correct chromatic aberrations while maintaining a compact size and large aperture.

A seven-element optical imaging lens assembly achieves large aperture and telephoto characteristics through alternating refractive powers.

A four-lens optical imaging system uses specific refractive power configurations to achieve low F-number performance.