Patent classifications
G02F1/065
Methods and systems for forming optical modulators using micro-contact lithography
Optical modulators, one or more components of various optical modulators, and methods of forming optical modulators and/or one or more components are disclosed. A substrate may be provided and a precursor material may be applied to the substrate with a micro-contact printing stamp. The precursor material may be cured on the substrate and the waveguide may be formed into a micro-ring resonator. The micro-contact printing stamp may be configured to create a waveguide on the substrate.
Methods and systems for forming optical modulators using micro-contact lithography
Optical modulators, one or more components of various optical modulators, and methods of forming optical modulators and/or one or more components are disclosed. A substrate may be provided and a precursor material may be applied to the substrate with a micro-contact printing stamp. The precursor material may be cured on the substrate and the waveguide may be formed into a micro-ring resonator. The micro-contact printing stamp may be configured to create a waveguide on the substrate.
Active region-less polymer modulator integrated on a common PIC platform and method
A monolithic PIC including a monolithic laser formed in/on a platform and a polymer modulator monolithically built onto the platform and optically coupled to the laser. The modulator includes a first cladding layer, a passive core region with a surface abutting a surface of the first cladding layer, the core region extending to define an input and an output for the modulator. A shaped electro-optic polymer active component has a surface abutting a surface of a central portion of the core region. The active component is polled to align dipoles and promote modulation of light and has a length that extends only within a modulation area defined by modulation electrodes. A second cladding layer encloses the active component and is designed to produce adiabatic transition of light waves traveling in the core region into the active component to travel the length thereof and return to the core region.
Active region-less polymer modulator integrated on a common PIC platform and method
A monolithic PIC including a monolithic laser formed in/on a platform and a polymer modulator monolithically built onto the platform and optically coupled to the laser. The modulator includes a first cladding layer, a passive core region with a surface abutting a surface of the first cladding layer, the core region extending to define an input and an output for the modulator. A shaped electro-optic polymer active component has a surface abutting a surface of a central portion of the core region. The active component is polled to align dipoles and promote modulation of light and has a length that extends only within a modulation area defined by modulation electrodes. A second cladding layer encloses the active component and is designed to produce adiabatic transition of light waves traveling in the core region into the active component to travel the length thereof and return to the core region.
X(2) Modulators and Related Devices with Barium Titanate Photonic Crystal Waveguides
Barium titanate thin film waveguides and related modulator and devices with photonic crystal structures to promote wide bandwidths, low operating voltages and small footprint.
X(2) Modulators and Related Devices with Barium Titanate Photonic Crystal Waveguides
Barium titanate thin film waveguides and related modulator and devices with photonic crystal structures to promote wide bandwidths, low operating voltages and small footprint.
Method of poling and calibration of electro-optic fibers
A method of poling and calibrating electro-optic fibers is disclosed. Metal electrodes are used to utilize the electro-optic effect to impart phase delays to the optical signal. Moreover, one or more electrodes may be used for heating of the device to reach softening temperatures of the electro-optic material, which allows easy, effective and efficient poling of the electro-optic material. A method based on continuous or periodic optical feedback is used to automatically calibrate the electro-optic device when its performance degrades with time to relaxation of molecular orientations.
Method of poling and calibration of electro-optic fibers
A method of poling and calibrating electro-optic fibers is disclosed. Metal electrodes are used to utilize the electro-optic effect to impart phase delays to the optical signal. Moreover, one or more electrodes may be used for heating of the device to reach softening temperatures of the electro-optic material, which allows easy, effective and efficient poling of the electro-optic material. A method based on continuous or periodic optical feedback is used to automatically calibrate the electro-optic device when its performance degrades with time to relaxation of molecular orientations.
OPTICAL DEVICE
An optical device is provided, which includes: an optical waveguide provided in a substrate having an electro-optic effect; a signal electrode provided on the substrate and above the optical waveguide; and a peeling prevention film which is provided on at least a part of an outer peripheral portion of the substrate and at a position spaced apart from the signal electrode, and also serves as a ground electrode.
OPTICAL DEVICE
An optical device is provided, which includes: an optical waveguide provided in a substrate having an electro-optic effect; a signal electrode provided on the substrate and above the optical waveguide; and a peeling prevention film which is provided on at least a part of an outer peripheral portion of the substrate and at a position spaced apart from the signal electrode, and also serves as a ground electrode.