Spectales/Goggles TRIZ Cases

See how a magnetic cleaning component attaches to device cases to provide safe screen cleaning

See how a magnetic cleaning component couples to device cases for convenient screen cleaning wi

See how vacuum suction and shuttered receiver sleeves enable automated gripper cleaning to prev

See how a magnetic cleaning component couples to device cases to clean screens safely without s

See how a magnetic cleaning component couples to device cases to enable safe screen cleaning wi

See how a magnetic cleaning component attaches to device cases to clean screens without scratch

See how temple-embedded magnets and a clothing-mounted metal plate enable secure, one-handed ey

See how magnetic bearing parts with axial magnetization enable swiveling eyeglass lenses withou

See how a variable-speed motor and conical air duct eliminate turbulence and hot spots in spect

See how a surfactant-impregnated microfiber fabric resolves the contradiction between anti-fog

See how a magnetic holder attaches to metal surfaces to keep safety glasses visible and accessi

See how laser wavelength selection heats the lens surface rather than the dye, fixing color wit

Rigid porous containers cluster multiple goggles in one carrier to allow batch washing and drying while limiting lens damage from jostling.

An aqueous lens coating raises friction on water-repellent surfaces to stop chuck slippage during cutting, then washes off without haze or staining.

Scanning a laser with adjusted power and speed fixes dye on transparent resin evenly, avoiding lens yellowing and irregular coloring.

A magnetically attached cleaning pad stays with the device case, enabling safe screen wiping without bulky separate cleaners or scratch risk.

A magnetically attached cleaning component keeps screen wiping material on the device case, improving access while reducing scratch risk.

Laser heating fixes dye in high-index plastic lenses by warming only the surface layer, preserving color density and preventing yellowing.

Retractable magnetic hinges confine fields inside the frame, enabling interchangeable powered arms and safer inductive charging in wet use.

A patch antenna bonded between waveguide and protective lens layers simplifies smart glasses assembly, protects the antenna, and lowers cost.

A plug-in hinge with nested magnetic or frictional connectors enables fast temple swaps while keeping the glasses edge clean and protected.

A PMC and backup capacitor keep wearable electronics powered during battery swaps while balancing depletion to extend battery life.

Selective attenuation in key visible bands boosts color vividness and clarity while preserving useful lens transmittance.

Detachable eyepieces and a separate nose bridge let smart glasses keep working while one side charges and fold smaller for storage.

Removable temple tips, covers, and fit-overs add sensors, power, and communication to eyewear without changing frame aesthetics.

Magnetic pogo-pin and snap-fit connectors let wearable modules detach for repair, replacement, and separate testing while maintaining electrical continuity.

A foldable eyewear connector stays hidden while worn and becomes exposed when collapsed, enabling cleaner styling and easier charging.

Detachable eyepieces, a removable nose bridge, and foldable temples let smart glasses store compactly while enabling one-sided wear during charging.

A foldable eyewear connector stays hidden during wear and exposes automatically when collapsed for charging and data transfer.

Swappable sensor modules and replaceable temple batteries make electronic eyewear slimmer, easier to upgrade, and more practical for daily use.

Regular-looking light therapy glasses use modular electronics, a charging case, and remote control to improve wearability and daily use.

Regular-looking light therapy glasses use integrated LEDs, a charging case, and remote control to improve daily wearability and user engagement.

Magnetic attraction or repulsion improves eyewear contact pressure, lowering resistance for more stable charging and data transfer.

Internal temple cables and magnetic end pieces let eyeglasses extend into a neck tether without bulky external attachments.

Integrated light-emitting eyewear balances therapy effectiveness with everyday appearance using exchangeable frames, charging case, and remote control.

Elastic retention arms and magnets auto-align eyeglasses charging contacts, keeping them locked and charging through movement or impact.

Removable temple sections embed power, sensing, and communication components in eyewear without disrupting aesthetics or complicating upgrades.

Wireless power receivers on eyewear lenses replace visible traces, powering eye-tracking LEDs while reducing user distraction.

A magnetic connector and hidden strap cable let split smart glasses shift battery weight off the ears without hindering head movement or wearability.

Bone conduction whisper input and a hidden magnetic power link make split smart glasses lighter, more private, and easier to wear in noise.

Magnetic auto-connection and hidden cable routing shift battery line weight off the ears while preserving reliable power, data transfer, and appearance.

Magnetic attraction and repulsion stabilize contact pressure in eyewear charging contacts, reducing resistance variation and improving connection reliability.

Swappable temple portions and extended endpieces let eyewear add internal electronics after manufacture without compromising frame aesthetics.

A hinge-mounted charging interface stays hidden during wear and only exposes when folded, improving eyewear safety, appearance, and port lifespan.

A hinge-mounted charging interface stays hidden until the temples fold, protecting contacts from dust and water while preventing charging during wear.

A releasable temple conceals the charging connector during wear, then exposes it for battery charging without adding bulky hardware.

A detachable solar charging plate uses magnetic electrodes to recharge AR glasses from ambient light, extending battery life without added bulk.

Swappable temple portions and endpiece adapters let eyewear add sensors, audio, or wireless features without compromising frame aesthetics.

A metal support arm dissipates projector heat in XR glasses while linking key structures without adding mechanical stress to the projector.

Focused low-energy femtosecond pulses reshape refractive index in ocular tissue to correct presbyopia and aberrations without damage.

Swappable temple housings embed batteries and electronics in eyewear while preserving compact styling and enabling easier upgrades.

A gap-buffered temple charging layout reduces battery extrusion stress during charging, improving smart glasses safety and wear time.

Swappable temple and lens modules embed battery charging and wireless functions in eyewear without compromising frame aesthetics.

A foldable temple hides the eyewear connector during wear and exposes it when collapsed for magnetic charging and data access.

An adjustable corrective lens attachment mounts to visors, helmets, or goggles to improve central and peripheral vision without wearing glasses.

Magnetic attraction or repulsion creates stable contact force between eyewear and case surfaces, reducing resistance in charging and data transfer.

A rotating permanent magnet re-animates paralyzed eyelids for programmable blinking without invasive surgery or electromagnet overheating.

Retractable magnetic hinges confine field leakage while detachable powered arms extend smart glasses runtime through easy replacement and inductive charging.

A larger charging coil around the lens container improves inductive coupling despite placement and orientation changes, reducing power use.

3D surface measurement and common-coordinate laser marking place decorative patterns on spectacle lenses without disturbing optical function.

Shorter shaft connectors create a hollow path that routes external circuits inside the second body, improving reliability and appearance.

An elastic coupler and hinged arms let wearables clip securely to eyeglasses or clothing without proprietary frames.

A press-fit eyeglass hinge with polygonal support pillars removes screws, simplifies assembly, and prevents temple shaking during repeated folding.

Vacuum-gripping holders and 6-DOF motion align ophthalmic lenses for parallel surfaces and consistent adhesive thickness.

A variable-radius asymmetric cutting edge expands the machining arc, reducing wear and revolutions for precise eyeglass lens turning.

A magnetic connector with a sliding groove enables angle adjustment of wearable assistive cameras while keeping quick attachment and detachment.

An off-axis annular optic creates myopic defocus without a single on-axis image, helping slow myopia progression while minimizing halos.

A rotating latch and segmented engaging groove let eyeglass components detach quickly while maintaining secure connection and reducing damage risk.

An auxetic sacrificial film edge relieves stress during bonding on curved ophthalmic surfaces, preventing wrinkles and delamination.

Gradient-index optical elements in a reusable lens film create myopic defocus and scattering to slow myopia progression without halo side effects.

Segmented optic zones with increasing radial curvature slow myopia progression while reducing halos and preserving natural accommodation.

Interference between equal-power inner and outer annular subzones creates multifocal vision without geometric steps, cutting lens manufacturing complexity.

A stretched multilayer lens film separates color enhancement from polarization, preserving transmission while filtering glare and improving clarity.

Matched liquid densities and refractive indices counter gravity-driven membrane distortion, reducing coma across lens orientations.

Shifting the distance focus to a higher diffractive order improves chromatic correction and balances light for clearer near, intermediate, and distance vision.

3D frame and lens data determine the true fitted lens position, improving optical power distribution and personalized lens design accuracy.

Magnetic temple joints replace pins to keep eyewear securely fixed while allowing quick, low-damage removal, reattachment, and lens interchange.

Peripheral lens zones with tuned thickness create barrel or pincushion distortion to regulate retinal focus and slow myopia or hyperopia progression.

Objective eye measurement and tunable fluidic optics improve refraction correction for children, animals, and VR or AR users.

A multi-jointed hinge with springs lets eyeglasses fold into a superimposed compact shape while reducing user folding effort.

Modulated lens curvature creates contour optical elements that redirect light with defocus, prism, and scattering effects to slow myopia and presbyopia.

A filling layer and low-index transparent layer protect the diffraction grating, enabling thinner glass cover plates without imaging instability.

Sliding superposed lens elements vary optical power while aligned edges, spring positioning, and a detachable frame reduce distraction and ease cleaning.

Compound microlenses with off-axis sub-lenslets manage peripheral defocus while preserving central vision to help slow myopia progression.

Femtosecond laser pulses form zoned refractive index structures in ophthalmic lenses while reducing laser energy and material damage.

Diffractive optics manipulate longitudinal chromatic aberration to reduce chromatic blur, unwanted accommodation, and myopia progression.

A decentered toric region and varying peripheral stop signals correct refractive error while slowing myopia progression.

An elastic connecting device lets glasses legs fold while applying a returning clamping force for flexible, firm wearing.

A non-magnetic member lets secondary lenses attach to eyeglasses without precise magnet orientation, improving detachable engagement reliability.

This case uses a parametric substitute model and biometric data to customize spectacle frame elements without manual intervention.

A 2.5°–25° inclined overturning axis lets one temple shield both lens sides without a separate case.

A rotatable earphone body connects electrical contacts on smart glasses, enabling charging without removing the earphones for continued use.

Multiple dyes tune wavelength transmission in an ophthalmic lens, while polarization filtering reduces glare and improves color contrast.

This case combines friction-fit sleeves, counterweights, and magnetic temple ends to resist frame slippage during wear and storage.

A photocurable optical hard coat combines UV absorption and polymerization to retain adhesion while curing rapidly.

This case uses segmented transparent and opaque eyeglass strips to guide weaker eye muscles and reduce excess pressure.

Perpendicular hinge pins and spring-loaded sliding rings allow temples to move in multiple planes, reducing frame bulk while maintaining mechanical stability.

Image-based measurement replaces manual fitting to resolve the trade-off between manufacturing efficiency and anatomical precision in spectacle frames.

A spectacle lens uses a mesh optical region around island-shaped centers to extend focus depth and suppress refractive error progression.

Segmented coupling grooves and a movable latch prevent accidental temple detachment while enabling tool-free replacement.

Automated image capture identifies anatomical planes to determine precise geometrical parameters for corrective lenses.

Segmented opaque and transparent regions block peripheral distractions to maintain athlete focus on the primary task.

Segmenting testing into reference and peripheral phases with periodic sampling improves measurement precision without increasing process complexity.

Curved echelette transitions in diffractive profiles reduce light scatter and dysphotopsia by directing less energy to non-viewing orders.

Combining subjective refraction with wavefront measurements resolves the contradiction between prescription accuracy and human error in vision assessment.

Metal band with snap-fit connection enables untrained wearers to swap prescription lenses into frames without force or damage.

A method determines personalized progressive ophthalmic lenses by weighting frame parameters with head-eye behavior data.

Mirror reflection establishes zero gaze direction, allowing simultaneous capture that reduces measurement time and operator effort.

A soft contact lens applies a customized power profile derived from orthokeratology data to correct refractive errors.

Magnetic hatband inserts and temple attachments secure eyewear to headwear, preventing loss while maintaining easy access.

Nanocrystal lenses convert ambient light into therapeutic blue wavelengths, eliminating bulky power sources and intense light hazards.

Segmenting the frame into a flexible body and rigid retainer resolves the trade-off between comfort and lens attachment security.

A compact elastic hinge integrates a spring core assembly and double-tooth frame to enable tool-free leg attachment.

A contact lens case uses a curved adhesive protrusion to grip the posterior lens side for safe extraction.

Automated image capture replaces manual inspection to measure lens geometry and optics, reducing verification time while maintaining precision.