Abstract: Patients with substance abuse problems may be prescribed regular medication that dulls the positive effects of the substance. However, one of the largest challenges for substance abuse patients is that many do not regularly take their medication as they want to experience the high of the substance. Accordingly, systems and methods have been developed for medication sessions that distract the patient from taking the medicine by incorporating the reminder and other med actions in close temporal proximity.

Abstract: Patients with substance abuse problems may be prescribed regular medication that dulls the positive effects of the substance. However, one of the largest challenges for substance abuse patients is that many do not regularly take their medication as they want to experience the high of the substance. Accordingly, systems and methods have been developed for medication sessions that distract the patient from taking the medicine by incorporating the reminder and other med actions in close temporal proximity.

Abstract: Patients with substance abuse problems may be prescribed regular medication that dulls the positive effects of the substance. However, one of the largest challenges for substance abuse patients is that many do not regularly take their medication as they want to experience the high of the substance. Accordingly, systems and methods have been developed for medication sessions that distract the patient from taking the medicine by incorporating the reminder and other med actions in close temporal proximity.

Abstract: Patients with substance abuse problems may be prescribed regular medication that dulls the positive effects of the substance. However, one of the largest challenges for substance abuse patients is that many do not regularly take their medication as they want to experience the high of the substance. Accordingly, systems and methods have been developed for medication sessions that distract the patient from taking the medicine by incorporating the reminder and other med actions in close temporal proximity.

Abstract: A well may be formed for access to an optical waveguide core by a process that results in an L-shaped well. The L-shaped well may then be filled with a polymer. By controlling the size of each portion of well, the occurrence of bubbles within the well and cuts to the core may be reduced.

Abstract: A set of three gratings may be operated in a vernier loop fashion to select a particular wavelength from a wavelength division multiplexed system. As a result, an optical add/drop multiplexer may be provided that can be tuned to select a desired wavelength. In one embodiment, the tuning may be done thermo-optically.

Abstract: A well may be formed for access to an optical waveguide core by a process that results in an L-shaped well. The L-shaped well may then be filled with a polymer. By controlling the size of each portion of well, the occurrence of bubbles within the well and cuts to the core may be reduced.

Abstract: A set of three gratings may be operated in a vernier loop fashion to select a particular wavelength from a wavelength division multiplexed system. As a result, an optical add/drop multiplexer may be provided that can be tuned to select a desired wavelength. In one embodiment, the tuning may be done thermo-optically.

Abstract: Embodiments of a wavelength tunable optical coupler, integrated optical components, and lasers are disclosed. The tunable optical coupler, the integrated optical components, and the lasers include thermo-optic organic material that has an index of refraction which can quickly vary in response to changes in temperature. By controlling the temperature in the thermo-optic organic material through the use of heaters or coolers, the optical coupler, the integrated optical components, and the lasers can be quickly and selectively tuned over a broad range of wavelengths with high spectral selectivity.

Abstract: A method of making permanent adjustments to the resonant cavity of a laser device in order to match its free spectral range to a specified frequency interval involves monitoring the optical output produced during laser operation or cavity illumination with diagnostic light, determining the free spectral range from the monitored output, and then permanently modifying the effective refractive index of an intracavity waveguide segment of the laser device according to the determined free spectral range obtained from the monitoring step until the desired match is achieved. The permanent index changes can be done in several ways, including illumination of the intracavity segment with an energetic beam (e.g. UV light) to induce a chemical alteration in the waveguide material, such as polymer cross-linking in the waveguide cladding. Evaporative deposition or ablative removal of intracavity waveguide material would also produce the desired permanent modifications.

Abstract: Embodiments of wavelength tunable lasers are disclosed. The wavelength tunable lasers include thermo-optic organic material that has an index of refraction that can quickly vary in response to changes in temperature. By controlling the temperature in the thermo-optic organic material through the use of heaters or coolers, the wavelength tunable lasers and the integrated optical components can be quickly and selectively tuned over a broad range of wavelengths with high spectral selectivity.

Abstract: Optoelectronic and photonic devices are formed by employing polymer materials that have a lower glass transition temperature (Tg) than the nominal operating temperature. By using such materials, the local or segmental mobility is increased so that local stress is eliminated or minimized on the polymer material, making performance more robust. The current invention involves use of a polymer in an optical device in an operating temperature range in the region above Tg, where the polymer segments between crosslinks are allowed local freedom of movement; however, large-scale movement of the material may be restricted by the crosslinked structure of the polymer material.

Abstract: A semiconductor laser diode mounted to a heat sink body has a thermally resistive layer located between the two in order to provide a specified thermal impedance that balances the contrary responses to laser aging and changes in drive current. The required thermal impedance is determined by experimental trial on a plurality of identically mounted test structures differing only in their thermally resistive layer impedances, which are then operated to cause laser aging. The optical mode frequency output from the laser diodes in the test devices are measured under normal operating conditions at least before and after the laser aging, and the thermal impedance value that would result in a substantially zero change in laser output is calculated from these measurements. The resistive layer's thickness and/or doping level may be used to select the desired thermal impedance.

Abstract: A thermally wavelength tunable laser includes a core, the core including more than one diffraction grating, and thermo-optical material adjacent to each diffraction grating. By selectively changing the temperature and hence the refractive index in the thermo-optical material adjacent to a chosen diffraction grating, the chosen diffraction grating can be tuned over a selected wavelength range. By selecting different diffraction gratings, different, non-overlapping wavelength ranges can be selected and the laser can be tuned over a broad range of wavelengths.

Abstract: Embodiments of wavelength tunable lasers are disclosed. The wavelength tunable lasers include thermo-optic organic material that has an index of refraction that can quickly vary in response to changes in temperature. By controlling the temperature in the thermo-optic organic material through the use of heaters or coolers, the wavelength tunable lasers and the integrated optical components can be quickly and selectively tuned over a broad range of wavelengths with high spectral selectivity.

Abstract: A thermally wavelength tunable laser having selectively activated gratings includes a core, more than one periodic arrangement adjacent to the core, and thermo-optical material adjacent to each periodic arrangement. At an off temperature, the refractive index of the periodic arrangement and the adjacent thermo-optical material is the same. By selectively changing the temperature and hence the refractive index in the thermo-optical material adjacent to a selected periodic arrangement, the selected periodic arrangement forms a diffraction grating which can be tuned over a selected wavelength range. By selecting different periodic arrangements, different, non-overlapping wavelength ranges can be selected and the laser can be tuned over a broad range of wavelengths.

Abstract: An optical device includes at least a first and second electrical conductors. At least one optical layer overlies at least a portion of the first and second electrical conductors. An applicator is positioned proximate to said at least one optical layer to selectively redirect light from the optical layer. An electrical coupling path between said at least one applicator and one of said first or second electrical conductors, at least a portion of the coupling path traversing said at least one optical layer. At least one optical waveguide may be formed in an optical layer above said electrical conductors. A feature is located to receive light redirected by the applicator and at least one electrical coupling path, which may be included in said feature, couples the applicator and at least one of said plurality of conductors. In a further aspect, a method for manufacturing an optical device is disclosed.

Abstract: A flat panel display is based on a new switching technology for routing laser light among a set of optical waveguides and coupling that light toward the viewer. The switching technology is based on poled electro-optical structures. The display technology is versatile enough to cover application areas spanning the range from miniature high resolution computer displays to large screen displays for high definition television formats. The invention combines the high brightness and power efficiency inherent in visible semiconductor diode laser sources with a new waveguide electro-optical switching technology to form a dense two-dimensional addressable array of high brightness light emissive pixels.

Abstract: An asymmetric waveguide pair (1440) with a differential thermal response has an optical coupling frequency that may be thermo-optically tuned. Tuning may also be accomplished by applying an electric field (1445) across a liquid crystal portion (1442) of the waveguide structure. The waveguide pair may include a grating and be used as a frequency selective coupler for an optical resonator. The differential waveguide pair may also be used as a temperature or electric field sensor, or it may be used in a waveguide array to adjust a phase relationship, e.g. in an arrayed waveguide grating.

Abstract: One or more lasers are combined with optical energy transfer devices and energy guiding devices which use an electric field for control. The optical energy transfer devices may form gratings, mirrors, lenses and the like using a class of poled structures in solid material. The poled structures may be combined with waveguide structures. Electric fields applied to the poled structures control routing, reflection and refraction of optical energy. Adjustable tunability is obtained by a poled structure which produces a spatial gradient in a variable index of refraction along an axis in the presence of a variable electric field.