Spectales/Goggles TRIZ Cases

Particle-defined gaps enable resin injection to correct high order aberrations, avoiding complex manufacturing adjustments.

Snap-fit chassis inserts accommodate varying lens thicknesses and shapes, resolving compatibility issues with corrective optics.

A connector hook engages a primary frame recess to prevent vertical detachment of magnetic clip-on lenses.

A glider comfort system shifts eyeglass weight from the nose bridge to the ears using adjustable arcuate members.

A glasses frame uses a spring-loaded clamping piece to secure detachable lenses through elastic fit.

Elastic temple slot guides side shield insert piece to prevent separation while enabling tool-free assembly.

An asymmetric lens modifies optical strength in the inferior nasal quadrant to control myopia progression.

Data processing apparatus specifies optical element orientation on ophthalmic lenses to mitigate myopia progression.

A personalized contact lens with a customized optical zone compensates for high-order aberrations by aligning the lens surface profile with the eye's visual axis.

Segmented rigid plastic sections bond to a soft nose bridge via separate molding, resolving the trade-off between lens security and face profile adaptability.

A contact lens structure uses a back surface shaped to match the eye for rotational and translational stability.

Smartphone imaging analyzes lens coatings by capturing background objects, eliminating the need for complex professional equipment.

Adjustable liquid crystal lens changes light convergence to correct vision, eliminating glasses for head-mounted display users.

A method determines precise centration data for prismatic spectacle lenses using individual user prescription information.

Selective wavelength filtering at 480 nm and 580 nm resolves the contradiction between glare protection and color confusion.

A spring clip and magnet mechanism attaches near-eye displays to arbitrary frames, resolving compatibility constraints.

A non-coaxial ophthalmic lens creates a continuous surface with segmented treatment zones to slow myopia progression while preserving visual acuity.

Ferromagnetic temple members attach eyewear to a surface magnet, preventing loss and damage while maintaining easy accessibility.

Additive manufacturing produces microscopic struts that stabilize the air gap while minimizing visible patterns and optical aberrations.

Segmenting the frame isolates optical plates from temple deformation forces, maintaining a stable convergence angle.

A lens refracts light rays to minimize gaze-convergence angles during near-vision tasks.

A toric lens incorporates a phase-affecting, non-diffractive optical element to extend depth of focus.

A myopia control lens uses counter-rotating spirals on opposing surfaces to maintain a consistent ratio of defocus power across the pupil diameter.

Embedding rare earth magnets within eyeglass frame fronts eliminates weight penalties and scratching risks associated with external clips.

A diffractive intraocular lens with zero-step-height transitions between echelettes directs light to multiple focal lengths.

Electrochromic lenses adapt appearance using location context matching, reducing device complexity while maintaining situational awareness.

Flexible opaque eye patch with asymmetric conical shape attaches to eyeglasses via slits and elastic strap, eliminating adhesive irritation.

Segmented frame connectors with positioning members allow quick lens replacement while maintaining secure attachment.

A combined device measures ocular refraction and frame parameters using shared optical systems.

Molded wafer lenses integrate optical filters with clear resin components to enhance visual clarity and chroma perception.

An elongate member with a deformable tooth engages a socket recess to resolve aesthetic trade-offs while preventing dirt contamination.

Posterior blue-blocking and anterior color-balancing components resolve the contradiction between hazard reduction and color vision impairment.

Spatially varying refractive index coordinates with free-form surfaces to reduce residual astigmatism, widening the progression channel.

Ball joints and deep skirts eliminate gaps and light leakage while enabling compact storage.

Multi-layer coating design minimizes glare and simplifies manufacturing by suppressing interference fringes across varying refractive indexes.

Segmented optical filter increases chroma values by selectively absorbing light, resolving the trade-off between luminous transmittance and colorfulness.

Flexible iron and silicone components increase friction to prevent eyeglasses from sliding during movement.

Segmented contact lens uses asymmetric refractive indices to expand focal depth, resolving blurred intermediate vision through neural summation.

A face shield integrates eyewear attachment elements and movement mechanisms to allow lens repositioning without removing the protective barrier.

Fixed blocking means on the frame eliminate complex retraction mechanisms, reducing device bulk while maintaining precise lens centering.

Engineered spherical aberration profiles in lenses reduce ghosting while maintaining clear vision at near, intermediate, and far ranges.

Plano-concave optical layer matches prescription lenses using volumetric depth imaging.

A transversely arranged pin snaps into an elastically deformable recess to secure interchangeable spectacle temples without tools.

A 3D printed spectacle lens uses radiation-curable ink to build integrated color layers through unit-wise deposition.

Flexible polymer films absorb impact forces and reduce optical aberrations in mixed reality eyewear.

Limiting coating thickness to 3.0 μm preserves optical convergence and reduces stray light below 30%.

A laser protection eyewear lens combines an embedded wavelength filter within the substrate and a surface dielectric layer to attenuate back reflections.

A spectacle hinge uses polymeric resilient portions to pivot temples between stored and operative positions.

Virtual positioning evaluates a manufacturing prism cost function to reduce material wastage and machining complexity for large spectacle frames.

Vertical movement units align lens centers with eye levels, reducing eyestrain from frequent adjustments.