| Class / Patent application number | Description | Number of patent applications / Date published |
|---|
| 359346000 | Particular resonator cavity (e.g., scanning, confocal or folded mirrors, etc.) | 20 |
| 20090067039 | Optical micro resonator - The present invention relates to a micro resonator assembly ( | 03-12-2009 |
| 20090153952 | OPTICAL RESONATOR - An optical resonator includes a master resonator configured to resonate an electromagnetic wave, one structure or a pair of structures adjacent to each other, each of which is arranged at a position that overlaps one of resonance modes of the master resonator, is made up of a material in which a real part of a permittivity assumes a negative value, and an absolute value of the real part is larger than an absolute value of an imaginary part of the permittivity, and has a size which makes scattering that the electromagnetic wave suffers be Rayleigh scattering, and one or a plurality of particles, each of which is laid out near the structure by a distance smaller than the size of the structure. | 06-18-2009 |
| 20090303580 | Lens System with Position Adjustment - In a lens system, such as for use in optical rotary joints, obliquely tilted cavities are inserted in a light path between light-waveguides and lenses to be coupled thereto in order to compensate lateral displacements between the light waveguides and the lenses. The cavities are filled with an optical medium having a predetermined refractive index in order to achieve a parallel displacement of a light-ray path, so that the ray path passes centrally through the lenses. | 12-10-2009 |
| 20100097691 | SPIN-COATED POLYMER MICROCAVITY FOR LIGHT EMITTERS AND LASERS - A spin-coated polymer microcavity for light emitters and lasers producing enhancement of spontaneous emission rate from colloidal CdSe/ZnS core/shell quantum dots embedded in a one dimensional polymer microcavity structure at room temperature. The polymer microcavity structures are fabricated using spin coating. Alternating layers of polymers of two different refractive indices were stacked to form the Distributed Bragg reflectors (DBRs). To achieve high reflectivity, the polymers for the DBR structures were chosen so that they have a relatively high refractive index ratio. The high and low refractive index polymers chosen were poly-N(vinylcarbazole) (PVK) and poly acrylic acid (PAA), with refractive indices of 1.683 and 1.420 at 600 nm, respectively. Thin films of quarter wavelength thickness of the two polymers are alternately spin coated on a glass substrate to make the DBR structures. Greater than 90% reflectivity is obtained using ten periods of the structure. A PVK cavity layer of λ thickness embedded with CdSe/ZnS core/shell quantum dots is sandwiched between two of these DBRs to form the entire microcavity structure. The bottom and top DBRs comprise ten and five periods, respectively. | 04-22-2010 |
| 20100118390 | SUB-WAVELENGTH METALLIC APERTURES AS LIGHT ENHANCEMENT DEVICES - Light enhancement devices, applications for the light enhancement devices, and methods for making the light enhancement devices are provided. The light enhancement devices include a substrate and a film of metal disposed over the substrate, the film of metal including at least one cavity. The cavity may be of various shapes depending on the desired application. | 05-13-2010 |
| 20100177378 | INTENSE OPTICAL HIGH FIELD GENERATOR IN OPTICAL OSCILLATOR UTILIZING CHIRPED PULSE AMPLIFICATION - To provide an intensive optical high field generator capable of generating an intensive optical high field with excellent stability, a high quality, and an intensity greatly higher than that of a known example. An intensive optical high field, which is disposed in an optical oscillator using chirped pulse amplification, includes: an optical amplification medium | 07-15-2010 |
| 20110181946 | Chip-Scale Slow-Light Buffers Fashioned with Leaky-Mode Resonant Elements and Methods of Using Leaky-Mode Resonant Elements for Delaying Light - A method for delaying transmitted light. The method may include illuminating a leaky-mode resonant element with light pulses of short duration and sequences of such pulses. The leaky-mode resonant element may include a spatially modulated periodic layer and may be configured so that at least some of the light is transmitted in a delayed manner. | 07-28-2011 |
| 20120113502 | 3-DIMENSIONAL STANDING TYPE METAMATERIAL STRUCTURE AND METHOD OF FABRICATING THE SAME - Provided are 3-dimensional standing type metamaterial structures and methods of fabricating the same. The 3-dimensional metamaterial structure includes a substrate; and a resonator, which includes a fixing unit fixed to the substrate; and a plurality of arms, which extend from the fixing unit and are curved upward on the substrate, wherein permittivity, permeability, and refractive index of the metamaterial structure in a predetermined frequency band differ from permittivity, permeability, and refractive index of the substrate. The resonator may be easily fabricated in MEMS/NEMS (micro-electro-mechanical system/nano-electro-mechanical system) processes. | 05-10-2012 |
| 20120182604 | LASER OSCILLATOR AND LASER AMPLIFIER - A laser oscillator includes: a optical resonator having an orthogonal mirror and a partial reflection mirror; a laser gas acting as a laser medium; and a 90-degree folding mirror acting as a polarization selecting element. The orthogonal mirror has two reflecting surfaces orthogonal to each other. The 90-degree folding mirror is arranged such that the polarization direction of the laser oscillated light is parallel to the reference axis set in a plane perpendicular to an optical axis of the optical resonator. The orthogonal mirror is arranged such that the polarization direction of the laser oscillated light is parallel to the valley line of the orthogonal mirror. This configuration can compensate anisotropy of optical characteristics in a laser medium, and stably generate linearly polarized laser light having excellent isotropy in a simple manner. | 07-19-2012 |
| 20120188633 | DEVICE AND METHOD FOR LUMINESCENCE ENHANCEMENT BY RESONANT ENERGY TRANSFER FROM AN ABSORPTIVE THIN FILM - Disclosed are a device and a method for the design and fabrication of the device for enhancing the brightness of luminescent molecules, nanostructures, and thin films. The device includes a mirror, a dielectric medium or spacer, an absorptive layer, and a luminescent layer. The absorptive layer is a continuous thin film of a strongly absorbing organic or inorganic material. The luminescent layer may be a continuous luminescent thin film or an arrangement of isolated luminescent species, e.g., organic or metal-organic dye molecules, semiconductor quantum dots, or other semiconductor nanostructures, supported on top of the absorptive layer. | 07-26-2012 |
| 20120224255 | PLASMON RESONANT CAVITIES IN VERTICAL NANOWIRE ARRAYS - Tunable plasmon resonant cavity arrays in paired parallel nanowire waveguides are presented. Resonances can be observed when the waveguide length is an odd multiple of quarter plasmon wavelengths, consistent with boundary conditions of node and antinode at the ends. Two nanowire waveguides can satisfy the dispersion relation of a planar metal-dielectric-metal waveguide of equivalent width equal to the square field average weighted gap. Confinement factors of over 10 | 09-06-2012 |
| 20130107352 | QUANTUM OPTICAL DEVICE | 05-02-2013 |
| 20130182315 | SUB-WAVELENGTH METALLIC APERTURES AS LIGHT ENHANCEMENT DEVICES - Light enhancement devices, applications for the light enhancement devices, and methods for making the light enhancement devices are provided. The light enhancement devices include a substrate and a film of metal disposed over the substrate, the film of metal including at least one cavity. The cavity may be of various shapes depending on the desired application. | 07-18-2013 |
| 20130258454 | VERTICAL MICROCAVITY WITH CURVED SURFACE DEFECTS - A vertical microcavity having a layer structure perpendicular to a vertical axis z, includes a first reflector and a second reflector, each comprising one or more material layers; a confinement layer between the reflectors, wherein an electromagnetic wave can be substantially confined, the confinement layer having a body and a defect delimited by first and second surfaces, perpendicular to the vertical axis z; wherein one of the two surfaces is contiguous with the body, the other one contiguous with a layer of the first or second reflector, and wherein one of the two surfaces has a curved profile in at least a plane section perpendicular to the layer structure, the curved profile having a vertex, which defines a maximal thickness h | 10-03-2013 |
| 20130278998 | IN-PLANE RESONATOR STRUCTURES FOR EVANESCENT-MODE ELECTROMAGNETIC-WAVE CAVITY RESONATORS - This disclosure provides implementations of electromechanical systems (EMS) resonator structures, devices, apparatus, systems, and related processes. In one aspect, a device includes an evanescent-mode electromagnetic-wave cavity resonator. In some implementations, the cavity resonator includes a lower cavity portion and an upper cavity portion that together form a volume. The cavity resonator also includes an in-plane lithographically-defined resonator structure having a portion that is located at least partially within the volume to support one or more evanescent electromagnetic wave modes. In some implementations, an upper surface of the resonator structure is connected with the upper cavity portion while a lower mating surface is connected with the lower cavity portion. A distal surface of the resonator structure is separated or electrically insulated from the closest surface to it by a gap distance, a resonant electromagnetic wave mode of the cavity resonator being dependent at least partially upon the gap distance. | 10-24-2013 |
| 20140029085 | Resonant Optical Transducers for In-Situ Gas Detection - Configurations for in-situ gas detection are provided, and include miniaturized photonic devices, low-optical-loss, guided-wave structures and state-selective adsorption coatings. High quality factor semiconductor resonators have been demonstrated in different configurations, such as micro-disks, micro-rings, micro-toroids, and photonic crystals with the properties of very narrow NIR transmission bands and sensitivity up to 10 | 01-30-2014 |
| 20140036352 | SPATIALLY RELAYING RADIATION COMPONENTS - A method of spatially relaying a first radiation component ( | 02-06-2014 |
| 20150109662 | UNSTABLE IMAGING RESONATOR - In one aspect a power amplifier comprises a first plurality of laser disks disposed in a first vertical plane and a second plurality of laser disks disposed in a second vertical plane, opposite the first vertical plane, wherein the plurality of laser disks are disposed in a central horizontal plane, and a first plurality of reflecting mirrors disposed in the first vertical plane and a second plurality of reflecting mirrors disposed in the second vertical plane, wherein a first set of reflecting are disposed in a lower horizontal plane and a second set of reflecting mirrors are disposed in an upper horizontal plane, wherein respective laser disks and reflecting mirrors adjacent along an optical axis are positioned to provide a 1:1 imaging system therebetween. Other aspects may be described. | 04-23-2015 |
| 20160064889 | FULL POLYMER MICRORESONATORS - The present invention relates to a microresonator, in particular a full polymer microresonator, a method for producing the microresonator, and the use of the microresonator as a microlaser and/or molecular sensor. | 03-03-2016 |
| 20160064892 | SYSTEM AND METHOD FOR GENERATING A BURST OF ULTRA-SHORT, HIGH-POWER LASER PULSES - A system and method for generating a burst of ultra-short, high-power laser pulses, the system includes elements for generating laser pulses having a repetition period τ1, amplification elements including an optical amplifier medium, a regenerative optical cavity, elements for injecting the laser pulses into the regenerative optical cavity, and elements for extracting the laser pulses from the regenerative optical cavity. The regenerative optical cavity has a total length such that the duration of a round trip of each pulse is between N−1 and N times the period τ1, wherein N is an integer higher than or equal to 2, the injection elements are adapted for trapping a burst of N laser pulses in the regenerative optical cavity, the extraction elements are suitable to extract the burst of N laser pulses from the regenerative optical cavity, and the optical amplifier medium is suitable for forming a burst of amplified laser pulses. | 03-03-2016 |
