Spectales/Goggles TRIZ Cases

This case balances myopia suppression and visibility by tuning defocus-region area and height for stable retinal spot intensity.

Alternating refractive-index layers deliver at least 70% reflection at 850 or 940 nm without exceeding 750 nm total thickness.

A telescopic leg changes vertex distance and effective lens power, supporting near and distance vision while reducing eye strain.

This case uses prescription lenslets and MTF shaping to reduce visual stress while maintaining good visual acuity.

A perturbation sag profile creates smooth retinal imaging, helping control myopia progression and reduce visual fatigue from ghost images.

A pivoting supporter maintains a constant gap during display adjustment, improving appearance and lowering cover costs.

This case embeds rigid frame portions in flexible lens retainers to simplify assembly and maintain consistent color and surface finish.

Pivoting arms use magnetic engagement to retain lenses securely while allowing simple insertion and removal without tools.

This glasses bridge case uses segmented, elastic coupling to resist bending, preserve focal length, and simplify nose pad replacement.

Facial lipids and perspiration reduce nose friction; detachable anti-slip units spread support across the face for cycling stability.

This lens uses inner positive add power and outer distance-correction zones to address accommodation lag and myopia progression.

This case scores optical and material profiles to guide aspherical, antireflective lens selection for improved comfort and aesthetics.

A zoned surface profile uses aberration and phase adjustments to smooth focal transitions and support continuous vision.

A radial resistance layer shapes liquid-crystal fields, enabling near and intermediate focus with low distortion and a wide power area.

Actuated lens surfaces and refractive-index particles enable clear viewing across user vision needs and image distances.

A peripheral add-power zone uses spatial optical modulation to suppress myopia while limiting glare and halos.

Defect-position analysis against edging zones helps reuse lens blanks that would otherwise be rejected, reducing material waste.

This soft lens transmits UV radiation for myopia control while gradually releasing vitamins E and B2 to protect ocular tissues.

Interlaced optical zones spaced beyond light coherence length extend depth of focus without interference patterns.

Asymmetric GRIN films distribute light off-axis to reduce halos while combining distance correction and myopia control.

This lens uses localized long-wavelength attenuation and optical regions to suppress myopia progression without impairing color recognition.

A rotatable arm support keeps spectacle decorations visible above scarves or veils while retaining fabric folds in place.

Calibrated interference and glue distribution address rotation and cracking issues during rimless eyeglass lens assembly.

Segmented lens members create aligned cavities for liquid crystal switching, reducing optical defects and short-circuit risk.

A circular conveyor integrates cleaning, rinsing, drying, and inspection to improve lens handling and enable real-time quality assessment.

A composite dye approach selectively attenuates blue light in ophthalmic lenses while maintaining color balance and visual performance.

An integrated handling unit moves lenses through movable cleaning chambers for consistent cleaning, rinsing, and inspection in less space.

A tenon-and-slot eyeglass hinge uses elastic clamping to hold temples securely and limit deformation without screws.

This case uses peripheral stabilization and localized reinforcement to maintain lens position while preserving adaptive optical deformation.

Selective dye layers tune light transmission to improve color contrast and reduce glare.

A rotational, damped optical assembly lets AR glasses align images with the user's sight line while keeping adjustment smooth.

A composite spectacle lens integrates photoreactive HOE polymer layers with structural protection for optical correction and resilience.

Prism glasses refract light in one direction to influence visual processing, posture, and healthy eye movement.

A 3D fitting-frame pose from captured images helps configure display and prescription-lens fit for self-directed wearable use.

This ophthalmic lens uses wavelength-selective dyes and polarization to improve color perception while limiting glare.

A layered display-optics lens separates eye-side and world-side correction to support clear real-world and AR viewing.

This case uses zoned spectacle lenses to preserve central acuity while applying peripheral distortion for refractive error control.

Moisture-driven delamination in polarized eyeglasses is addressed with polycarbonate film and light-curing resin adhesive bonding.

Removable alignment and mounting modules enable customized lens placement across eyewear while keeping the optical center aligned to pupils.

Moisture-controlled contraction, drying, molding, curing, and annealing target high transmittance with low astigmatism.

ROEs, DOEs, and micro lenslet arrays alter 510–610 nm cues to slow eye growth across different gaze directions.

A dipping coating varies thickness around lens protrusions to preserve myopia suppression and limit stray light.

A releasable coupling and arcuate base member let eyewear temples adjust in length, orientation, and fit.

Intermediate lens members simplify diffractive contact lens assembly while limiting optical defects and short circuits.

This electrochromic sheet uses low-resistance metal auxiliary electrodes to reduce ITO-driven color unevenness and switching delays.

A perimeter shoulder bonds electrochromic lens parts while blocking water and dust ingress.

This case uses mean gaze direction as an optimization target to personalize progressive lenses for improved visual comfort.

This case combines an electrical connection member, heat-conducting material, and vent channel to manage heat in narrow wearable housings.

An opening in the second lens lets the first lens overlap it, improving appearance and field of view while reducing lens variants.

This case uses aspheric base curves and tear pressure to improve epithelial reshaping and myopia control in low-power lenses.