Non-Optical Adjuncts TRIZ Cases

A rolled elastomeric temple casing adds grip, warmth, secure fit, and easy customization while reducing snagging on eyeglasses.

An adhesive-lined elastomeric sleeve holds drawstrings in place during washing to prevent twisting, retraction, fraying, and loss.

Repeater antennas in opposite eyewear arms preserve wireless charging and data transfer even when folding and placement vary.

Sealed conductive links and insulating layers protect eyewear electrical contacts from moisture-induced shorting and reliability loss.

A single parasitic feed drives slot, monopole, and floating dipole sections to cover 2.4 and 5-7 GHz while limiting SAR in near-eye wearables.

Stacked battery cells with varied geometries fit curved eyewear housings more efficiently, increasing capacity, battery life, and heat management.

A rigid battery carrier turns the smart glasses temple into a structural member, preserving strength while fitting battery power into a slim wearable form.

Wireless eye stimulation uses an implantable or contact-lens coil to lower intraocular pressure without hard-wired leads or surgical drainage.

Through holes and zoned display placement help a spherical contact lens preserve ambient light reception and air permeability for longer wear.

A sealed modular hinge routes power through smart eyewear while preserving compact articulation and protecting contacts from water and particles.

A detachable circuit assembly increases antenna-body separation to improve radiation performance, lower SAR, and reduce wearing discomfort.

A sealed hinge embeds the electrical conductor inside smart eyewear to maintain compact temple size while resisting wear, corrosion, and assembly issues.

A stepped-impedance ring antenna raises inductance and lowers resonance frequency, enabling wireless power and signals in smart contact lenses.

Nested ring-shaped metal directors around a contact lens antenna raise radiation gain in a compact layout for high-frequency communication.

Battery use is reduced by learning electrochromic feature habits and adjusting tint control to preserve user experience as charge drops.

A spring hinge doubles as a conductive path in electro-active eyewear, preserving frame aesthetics while powering lenses only when worn.

Integrated LEDs, a light guide, and reflective frame surfaces deliver light from above without blocking vision, enabling continuous low-energy use.

Segmented radiation elements and a tuned coupling gap shrink wearable antennas while preserving 2.4 GHz band matching and wireless function.

Wireless eye stimulation replaces hard-wired leads to chronically lower intraocular pressure while reducing infection risk.

A frame-integrated slot-ring antenna uses orthogonal E-fields to support multi-band AR wireless links while saving space and meeting safety limits.

Active PMIC switches isolate battery cells during assembly and fault conditions to prevent harmful current flow in electronic contact lenses.

Integrated temple compartments and contacts let eyeglasses store, charge, and communicate with true wireless earbuds more conveniently.

Dynamic analog control signals let temple-side regulators create local voltage rails, avoiding hinge power wiring and reducing loss.

Orthogonal E-fields in a slot-ring antenna let AR eyewear support multi-band wireless with low coupling while reusing frame volume.

Rigid curved battery shells and non-rectangular electrode layers improve fit in wearable housings while increasing space use and capacity.

A mesh-like bent conductor wiring body reduces lens pattern visibility while maintaining antenna characteristics in smart glasses.

A silicone monomer blend limits smart lens expansion during hydration, preserving module stability, optical shape, and eye adhesion.

An adjustable behind-ear port and translatable contact improve attachment comfort while maintaining secure data and power connections during use.

An annular groove around the sliding groove removes molding R-angle issues while keeping the sliding key moving smoothly to actuate the toggle switch.

A lens retention ring doubles as an antenna element in AR eyewear, saving space while supporting reliable wireless connectivity.

A dual-side conductive pattern inside a transparent lens moves the antenna out of the frame to cut interference and body signal absorption.

Photodiode wear detection and overvoltage cutoff let an electronic contact lens charge safely while preventing damage when worn.

A dual-conductor lens antenna uses the eyeball or eyelid as a coupling path to capture enough AC power for small contact lens loads.

A hybrid power circuit combines photovoltaic, MEMS, and inductive sources to keep smart contact lens sensing and communication running.

An electro-active intraocular lens uses controllable zones to restore accommodation, correct complex aberrations, and adapt after surgery.

A loop and dipole integrated into eyewear use diplexer-based band separation to widen bandwidth, extend range, and lower power use.

A shield layer and mesh transparent electrode cut tear-induced noise, improving contact lens communication sensitivity and speed.

Ideal diodes and current-limited battery branches balance parallel discharge, maintain system voltage, and prevent over-discharge.

A hybrid power component switches among solar, MEMS, and RF sources in a contact lens to keep sensors and circuitry powered across changing conditions.

A control unit switches AR content between a vehicle HUD and smart contact lens to improve recognition across distance and viewing angle limits.

A diffuser or hologram creates an extended intraocular focus that keeps eye implant power transfer stable despite eye rotation and pupil changes.

Repeater antennas across both eyewear arms preserve charging coupling despite variable gaps, reducing bulk, thermal limits, and cost.

A temple-mounted tether carries power and data around the head, avoiding bridge wiring while preserving eyewear design and assembly flexibility.

Orthogonal E-field slot-ring sections built into eyewear frames support the same band with minimal coupling, low weight, and compact AR connectivity.

A shared power bus with bidirectional controllers balances multi-battery charging and discharge while reducing resistance and overvoltage risk.

A conductive hinge replaces lossy RF cables in smart eyewear, while angle-based impedance tuning keeps the front-frame antenna matched.

A hardware lock disconnects camera power and triggers visible recording indicators to block unauthorized capture in smart glasses.

Placing transparent antennas on active or non-active waveguide substrates expands patterning freedom and improves GPS, Wi-Fi, and Bluetooth links.

An elastic protrusion locks a detachable temple battery into a narrow section, enabling external charging without accidental unfastening.

Wireless intraocular optics use an electrowetting lens and prism to maintain retinal focus after implantation while avoiding tether-related infection risk.

An elongate resistive heater and optional airflow warm the shield lens to prevent condensate buildup and preserve clear visibility.