Coupling Light Guides TRIZ Cases

Successive diffractive optical components vary the wave front between focal states, replacing bulky refractive lenses to reduce installation space and weight.

A translating cover protects the optical interface while allowing signal transmission through a sliding fit mechanism.

A passive photonic system stabilizes optical cavity resonance through thermo-mechanical feedback.

A port mapped fiber optic cable assembly connects terminals in series using distinct internal optical fiber mappings to maintain uniform connectivity across the chain.

An optical connection component separates and enlarges light beams from multi-core fibers to enable efficient coupling with single-core fibers.

A nonlinear pitch optical grating adapts to divergent laser beams, resolving inefficiencies from fixed geometry limitations.

Rotatable plugs enable reversible optical connectors to switch plug arrangements without complete disassembly.

Vertical lenses focus light through transparent layers to increase interconnection density while maintaining low optical loss.

A modular fibre optic adapter uses a rotating sub-adaptor to orient connectors and manage polarity.

Integrating a flange, elastic deformation portion, and locking protruding portion reduces part count and size while maintaining attachment reliability.

Segmenting magnetic flux paths into independent circuits reduces the electrical current required to overcome permanent magnet latching forces.

Horizontal insertion fixation reduces vertical thickness while elastic members maintain pushing force for stable optical connections.

Integrating lenses and guide pins into a single molded ferrule reduces device complexity while maintaining precise optical alignment.

Conductive spacer members align optical waveguide chips and provide electrical connections, eliminating complex three-dimensional structures.

Segmented regions with distinct refractive indices in an embedded stack resolve manufacturing precision limits and reduce optical aberrations.

Laser cutting aligns multi-fiber ferrule end faces through sequential beam direction changes.

Positioning grooves on the box body latch into adaptors, removing bulky elastic latching arms to reduce volume and increase connection density.

Unitary main body eliminates stress-induced separation in LC optical fiber adapters while reducing material costs.

Heating expands the ferrule bore for fiber insertion, then cooling contracts it to form a precise interface without epoxy adhesive variability.

An elastic guide member aligns optical fibers on waveguide end surfaces, reducing connection loss without complex manufacturing.

Segmenting the optical system into multiple lens groups achieves sufficient exit dimensions without increasing waveguide thickness, reducing device weight.

Orthogonal side-surface fiber coupling with adjustable lens barrels reduces housing width by 30% while maintaining alignment precision.

An electrically conducting layer provides a discharge path for accumulated charges in the buried oxide of semiconductor-on-insulator substrates.

A duplex clip houses two fiber optic connectors within a unified linkage structure.

A dimming apparatus adjusts light blocking rates across regions to form high contrast virtual images.

Vortical beam filaments clear atmospheric channels through clouds, boosting data rates while maintaining signal integrity.

Adjusting optical surface curvatures compensates thermal deformation in resin lens arrays, easing positional precision requirements during injection molding.

A fluorescent dust cap transmits laser light through its solid body to reveal port identity without removal.

Robotic mechanisms automate fiber optic connections to eliminate manual configuration errors and reduce provisioning time.

A barrel guide portion directs extra-length optical fiber bends along controlled paths, reducing plug size while maintaining signal reliability.

Vertical substrate etching creates a recess that reduces optical loss by enabling precise facet alignment.

Elastic plug frame biases ferrule along central axis to enable floating state, isolating external forces and reducing component complexity.

A polarizer uses an adjustable portion to change material properties and output different polarization states.

Rigid cylindrical sleeves filled with epoxy protect optical fibers from bending stress while maintaining low insertion loss.

Curved-beam bi-stable mechanism routes optical signals via electro-thermal actuation.

A delay line interferometer with a phase controller and imbalancer optimizes transfer functions to reduce signal distortion in differential encoding systems.

A circular polarizer divides optical signals to drive transceiving modules with low-power electrical currents.

Removing protruding housing portions via extraction and inversion principles allows 192 cores in a cassette by reducing center distance.

A pluggable multifiber connector module segments a single cable into multiple VSFF units via an internal breakout assembly.

A male screw notch constrains tensile strength fibers during assembly.

Segmenting the locking mechanism from the buckling structure allows dense stacking without protruding interference.

Frangible web members allow selective knockout removal to eliminate separate blank plates and reduce inventory complexity.

A fiber array uses lens-shaped light collecting portions to align with waveguides.

Front-accessible latching mechanisms on dual-ferrule connectors resolve operator access obstructions in high-density network panels.

Segmented electrode interaction regions compensate for RF loss to achieve well-matched S21 frequency responses across 10 kHz to 50 GHz.

A storage device holds splice protectors with flat and inclined inner sides.

Lateral coupling merges waveguide bus and resonator in crystalline silicon to reduce propagation losses.

A photonics chip assembly uses optical epoxy in coupling regions and conventional underfill elsewhere to balance transmission with structural support.

Elastic stretching of a tapered optical fiber portion reduces tension requirements for interferometry measurements.