Optical Waveguide Light Guide TRIZ Cases
- Optical Coupler Thermal Layout for Precise Photonic Temperature Control
A separated heater, heat transfer member, and thermal preservation layer enable uniform optical coupler heating with lower power loss.
- Layered Tapered-Rib Waveguide for Compact Low-Loss Optical Coupling
A layered tapered and rib waveguide combines mode matching and higher-order transformation to cut optical loss, reflection, and device size.
- Photonic Trimming Banks for Precise Optical Phase Calibration
Selective trimming banks calibrate tunable photonic devices to offset fabrication tolerances and keep optical phase response near target.
- Patterned Optical Modulator Waveguide for DC Drift Suppression
A larger-section DC waveguide and patterned RF/DC layout suppress direct current drift, stabilize light output, and extend modulator life.
- Monolithic Photonic Circuit Isolation for Cryogenic Photodetectors
Optical and thermal isolation structures help monolithic photonic circuits block stray light and contain heat around cryogenic photodetectors.
- Monolithic Photonic Ranging Circuit for Low-Loss Distance Sensing
Monolithic integration of photonic and electric circuits cuts laser insertion loss, preserves SNR, and improves distance measurement accuracy.
- Ring Resonator Optical Modulator With Feedback for Stable Extinction Ratio
A feedback loop and mode conversion let a ring resonator modulator counter wavelength drift and raise extinction ratio with lower loss.
- Optical Waveguide Layout for TM-Mode Non-Reciprocity Control
Selective placement of a Ce:YIG non-reciprocal member controls TM-mode isolation while limiting waveguide loss and energy leakage.
- Multi-Stage Edge Coupler Tapers for Low-Loss Mode Confinement
Non-linear multi-stage tapers improve field confinement during mode transformation, cutting insertion loss and flattening frequency response.
- Silicon-SiO2 Waveguide Connection Structure for Low-Loss Coupling
A ridge and patterned cladding align silicon and SiO2 mode fields to cut coupling loss between compact waveguides and SMF-scale optics.
- Gradient-Index Nonlinear Optical Waveguide for Better End Coupling
Dual heavy-ion irradiation forms gradient optical barriers that improve waveguide end coupling and frequency conversion while reducing light loss.
- Optical Antenna Layer Structure for Efficient Solid-State LiDAR Emission
A reflector, low-index separation layer, and grating array boost LiDAR light emission efficiency, extending range while cutting power waste.
- Curved Waveguide-End Optical Absorber for Low-Noise PICs
A curved multilayer absorber surrounds the waveguide end to attenuate stray light, cut PIC noise, and keep back reflection low.
- Multilayer Optical Coupler Structure for Broad Bandwidth Photonics
Stacked optical coupler layers with tuned refractive indices broaden wavelength coupling, supporting high-bandwidth photonics with lower process complexity.
- Holographic Waveguide Surface Planarization for Optical Uniformity
A cured planarization coating replicates a forming surface to correct waveguide topography and reduce image artifacts from light path deviations.
- Organic Photonic Circuits With Charge-Tuned Refractive Index
Charge injection lets organic solid crystals actively tune refractive index in PICs while adding flexibility for nonplanar surfaces.
- Lithium Niobate Optical Waveguide Roughness for Low-Loss Modulation
Controlled RMS roughness in a lithium niobate waveguide eases protective-layer stress, cutting light loss and suppressing micro-cracks.
- Cascaded-Mode Resonators Using Mode Coupling for Spectral Control
Mode converters couple orthogonal transverse modes into supermodes to tune resonant wavelengths, free spectral range, and quality factor.
- Photonic Transmission Structure for Low-Temperature 3D PIC Stacking
Low-temperature sputtering forms niobium oxide photonic layers with controlled refractive index while protecting existing layers in 3D PIC stacks.
- Waveguide Photodetector PN Junction Layout for Dense Optical Chips
A waveguide photodetector places photoelectric material at a PN junction to raise optical chip density while converting optical signals on-chip.
- 3D Stacked Waveguide Layout for Dense Photonic Neural Networks
Vertically stacked waveguide layers enable optical power exchange across photonic layers, boosting PNN density while cutting chip size and cost.
- Ag-Exchanged Glass Waveguide Substrate for Stable Single-Mode Propagation
Controlled Ag ion exchange shapes core thickness and refractive index gradient for homogeneous, low-loss single-mode waveguides.
- Multi-Depth Polarization Rotator for TM-to-TE Mode Conversion
Varying slab depths and tapering suppress TM mode and convert it to TE mode, improving silicon photonic signal transmission efficiency.
- Low-Temperature Photonic Transmission Structure for 3D PIC Stacking
Low-temperature sputtering forms niobium-based photonic layers with controlled refractive index, reducing layer damage and optical loss in 3D PICs.
- Monolithic EIC-PIC Chip Integration with Region-Specific SOI Thickness
Region-specific SOI thinning lets EIC and PIC structures share one chip, cutting transmission loss, signal delay, and fabrication overhead.
- Arrayed Waveguide Grating Layout for Stable Spectral Response
Waveguides with mixed-sensitivity sections equalize phase-shift drift, stabilizing AWG spectral response across temperature, stress, and thickness changes.
- Optical Waveguide Modulator With Vertically Stacked Electrodes
Vertically stacked drive electrodes strengthen the electric field in a thin-film LiNbO3 waveguide, improving modulation efficiency in a compact layout.
- Integrated Photonic Waveguide Filtering for Quantum Memory Crosstalk
On-chip filters, air gaps, and scatter mitigation cut waveguide crosstalk and stray light for more reliable quantum memory addressing.
- Integrated Photonic Notch Filter Using Asymmetric MZI Chains
Asymmetric MZI chains and pump rejection filters remove broadband and sideband noise while passing desired single photons in photonic circuits.
- Differential Optical Modulator Layout for Low-Voltage Wide Bandwidth
Differential electrode pairs around lithium niobate waveguides cut optical and electrode losses while enabling low-voltage, wide-bandwidth modulation.