15 results about "Optical recording" patented technology

An optical recording medium capable of suppressing a decrease in reproduction durability is provided. [Solution] In an optical recording medium, a first disc (10) includes at least one information signal layer (L0-Ln). The information signal layer includes a first dielectric layer (14), a recording layer (13), and a second dielectric layer (15), in that order, with the first dielectric layer being located deeper than the recording layer when viewed from a first light irradiation surface (C1). The recording layer includes Mn and O. The first dielectric layer includes Zn, Sn, Al, and O or Zn, Sn, Ti, and O, with the Al content relative to the total amount of Zn, Sn, and Al being 10 atomic % or more, and the Ti content relative to the total amount of Zn, Sn, and Ti being 10 atomic % or more.

The utility model relates to embedded photoelectric sighting telescope equipment with infrared thermal imaging, intelligent ballistic calculation and optical video recording functions, which comprises a main body, a white light objective lens is arranged on the left side of the main body, and an infrared objective lens is arranged in the white light objective lens. According to the embedded photoelectric sighting telescope equipment with the infrared thermal imaging, intelligent ballistic calculation and optical video recording functions, through the integrated design, the infrared objective lens is embedded into the white light objective lens, the size and weight of a main body are reduced, the equipment is more attractive, then through the arrangement of the infrared objective lens, the equipment can have the infrared thermal imaging function, and the equipment is more convenient to use. And meanwhile, the laser ranging module, the main control board group, the white light trajectory adjusting group and the white light windage yaw adjusting group are matched with the field lens group to adjust the trajectory, and then the micro camera plays an optical photographing function, so that the purposes of high integration, infrared thermal imaging, trajectory calculation and optical photographing functions are achieved.

Devices having at least one nanostructured layer derived from a binary sequence written onto an optical medium and methods of preparing the nanostructured layers.

Device for direct optical recording of safety-relevant objects, such as at least skin impressions, comprising a layer sequence: - a top layer (401) with a bearing surface (102) for a safety-relevant object (101, 105), - an aperture layer with non-transparent and transparent areas (304) to limit the angles of incidence of light that is remitted from the object (101, 105) through the contact surface (102) into the layer sequence, - a sensor layer (406) with pixels (307) arranged in a two-dimensional grid, each of which has a light-sensitive element (303) and a transparent transmission area (304), wherein the light-sensitive elements (303) can only detect light coming from the direction of the contact surface (102) and each light-sensitive element (303) of the sensor layer (406) is assigned exactly one aperture of the aperture layer, - a substrate (407) as the carrier of the layer sequence and - an illumination layer (409) for emitting illumination light (201) which illuminates the object (101, 105) through the support surface (102), characterized by the fact that - the aperture layer is designed as a contrast aperture layer (403) with contrast apertures (301) for a predominant transmission of light that is remitted from parts of the object (101, 105) resting on the support surface (102) without an air gap (106), wherein ◯ each contrast aperture (301) is designed as a non-transparent area of ​​the contrast aperture layer (403) and has a distance to the associated light-sensitive element (303) that is defined by means of a spacer layer (404) of selectable thickness between sensor layer (406) and contrast aperture layer (403), and ◯ the contrast diaphragm (301) located at a distance from the light-sensitive element (303) has a non-transparent area above the light-sensitive element (303) that is at least as large as an active area (305) of the light-sensitive element (303) and is arranged such that reflected light (204) falling on the light-sensitive element (303) at small angles of incidence from both object parts (103) resting without an air gap (106) and object parts (104) resting with an air gap (106) is largely blocked for the light-sensitive element (303) by means of the non-transparent contrast diaphragm (301), and only an excess of reflected scattered light (204) from parts (103) of the object (101) resting without an air gap (106) in a differential angle range (207) with large angles of incidence is detected in the light-sensitive element. (303) is permitted and - the illumination layer (409) contains a large number of point light sources (306), which emit in the direction of the contact surface (102) in such a limited angular range in order to suppress total internal reflection at the contact surface (102) of the top layer (401).

A class of metal halide-based metal-organic frameworks (MOFs) materials with multicolor tunable long-lasting emission and white light properties were synthesized by self-assembly of 15-crown ether-5 (CE) ligands and metal halide salts (CdX2), resulting in three complexes (15-5-CdCl2, 15-5-CdBr2, and 15-5-CdI2). In the solid state, the complexes (15-5-CdCl2, 15-5-CdBr2, and 15-5-CdI2) all exhibited near-standard white light emission under 340 nm ultraviolet radiation at room temperature, with CIE coordinates of (0.28, 0.32), (0.31, 0.39), and (0.30, 0.34), respectively. Simultaneously, they exhibit excitation-dependent room-temperature phosphorescence (RTP) ranging from blue / cyan to green / yellow, with 15-5-CdCl2 and 15-5-CdBr2 exhibiting multicolor tunable and visible light luminescence (LPL) with time-resolved luminescence lifetimes as high as 1-2 seconds. Single-crystal X-ray diffraction analysis and theoretical calculations indicate that the bright LPL of 15-5-CdCl2 and 15-5-CdBr2 originates from the aggregation state induced by the 15-crown ether-5 ligand and halogen bonds. The LPL obtained in this way can be widely used in lighting and display devices, optical recording devices, biological imaging, security systems, and other fields.

The application provides a silver alloy composite film and a preparation method thereof, and belongs to the technical field of OLEDs. The silver alloy composite film is prepared by alternately depositing CrMoNbTaW film layers and Ag film layers on a substrate by double-target sputtering of a magnetron sputtering coater. The composite film has the CrMoNbTaW film layer as the top layer, and the CrMoNbTaW film layer is one layer more than the Ag film layer. The silver alloy composite film prepared by the application has stable performance and composition, high conductivity and high reflectivity, the preparation process is simple, and the silver alloy composite film is suitable for the fields of reflective electrode films, liquid crystal displays, optical recording media, organic light emitting diodes and the like, can resist electromigration, and can improve the anti-sulfuration corrosion resistance and service life.

The utility model relates to the technical field of printed circuit board line detection, in particular to a rapid printed circuit board line detection device which comprises a supporting mechanism used for supporting the whole device, and the supporting mechanism comprises two supporting frames and a conveying belt installed between the two supporting frames. The supporting mechanism is provided with a detection mechanism which is used for carrying out optical detection on two sides of the circuit simultaneously. According to the utility model, through the arrangement of the detection mechanism, the device can record and detect lines on the two sides of the circuit board at the same time, the circuit board fixed by the plurality of semicircular clamping rods is driven to move through the conveyor belt, and the center line position of the circuit board is compared through the center line plate; the circuit board is located at the center position when moving to the position between the two optical recorders, the recording effect of the circuit board is guaranteed, the optical detectors conduct comparative analysis on obtained images and pre-stored standard images through the connecting lines, and the detection efficiency of the device is greatly improved.

Systems and methods for fabricating waveguide cells are disclosed. Systems for fabrication of waveguide cells according to various embodiments can be configured and implemented in many different ways. In many embodiments, various deposition mechanisms are used to deposit layer(s) of optical recording material onto a transparent substrate. A second transparent substrate can be provided, and the three layers can be laminated to form a waveguide cell. Suitable optical recording materials can vary widely depending on the given application. In some embodiments, the deposited optical recording material has a similar composition throughout the layer. In many embodiments, the optical recording material varies spatially in composition, allowing for the formation of optical elements with varying properties. Regardless of the composition of the optical recording material, any method of placing or depositing the optical recording material onto the substrate can be utilized.

By at least using a model panel (140) and a first calibration view for calibrating (216) an optical recording device (150) associated with a field of view and an image plane, the model panel (140) comprising a set of calibration marks (40-49), wherein the first calibration view comprises a first set of calibration positions (20-29) of the field of view, wherein the method comprises at least the steps of: constructing (204, 207) at least a plurality of scenes such that for each position of the first set of calibration positions (20-29) a calibration mark of the set of marks is located in a respective scene of the plurality of scenes at said each position, and wherein each scene of the plurality of scenes is constructed by translating the model panel (140) to a respective position relative to the optical recording device (150); acquiring (205, 208) at least a plurality of images (920, 930) such that each scene of the plurality of scenes is displayed in a respective image of the plurality of images (920, 930); locating (206, 209) at least a plurality of calibration sites (60-69) such that for each position of the first set of calibration positions (20-29) a respective site of the plurality of calibration sites (60-69) is comprised in a respective image of the plurality of images (920, 930) displaying a respective calibration mark and located at said each position and displayed on said respective site; and calibrating (216) the optical recording device (150) by at least using sites of the plurality of calibration sites (60-69) as positions in the image plane to a projection on the image plane of the first calibration view.

Systems for the manufacturing of waveguide cells in accordance with various embodiments can be configured and implemented in many different ways. In many embodiments, various deposition mechanisms are used to deposit layer(s) of optical recording material onto a transparent substrate. A second transparent substrate can be provided, and the three layers can be laminated to form a waveguide cell. Suitable optical recording material can vary widely depending on the given application. In some embodiments, the optical recording material deposited has a similar composition throughout the layer. In a number of embodiments, the optical recording material spatially varies in composition, allowing for the formation of optical elements with varying characteristics. Regardless of the composition of the optical recording material, any method of placing or depositing the optical recording material onto a substrate can be utilized.

Method for detecting the geometry of a workpiece (2) when forging, in particular free forging, wherein the method comprises: - transporting the workpiece (2) into a measuring region (31) of a measuring system (30) by means of a handling device (20); - measuring at least one distance (d) between the workpiece (2) and an optical measuring device (34) of the measuring system (30) by means of at least one distance measuring device (32) and deriving at least one distance value therefrom; - optically recording the workpiece (2) by means of the optical measuring device (34) and deriving the geometry of the workpiece (2) completely or partially therefrom; and - correcting the geometry of the workpiece (2) by applying the at least one distance value.

Modular surgical visualization system comprising an optical recording module with at least one camera, a lighting module, an optical magnification module, a projection module, a gaze tracking module for capturing the gaze direction of a surgeon, an active cooling system and a central control unit for aligning the optical modules according to the captured gaze direction, wherein the system can optionally be attached to a surgical cap, a shoulder mount, a tripod, a ceiling mount or a robotic support.

An optical recording medium manufacturing method is provided that suppresses generation of a swelling along the outer periphery of the surface of an optical recording medium.The optical recording medium manufacturing method includes coating an ultraviolet-curing resin on a recording layer of a substrate, placing the substrate coated with the ultraviolet-curing resin onto an elastic sheet of a vacuum press apparatus, and pressing a stamper onto the ultraviolet-curing resin to transfer unevenness thereto. A press pressure at the time of the transfer is 11,875 N or less, and a press time at the time of the transfer is 0.8 s or less.

The intelligent early warning system comprises a raw material database, a to-be-processed material optical recording module, a processing module, a finished product warehouse, a finished product optical analysis module and a processing analysis module. Wherein the raw material database and the finished product database are color databases in food material processing and non-processing states, the processing module obtains color original points in the databases to fit the safety processing process, the processing analysis module calls the data, and the data are collected through the to-be-processed material optical recording module and the finished product optical analysis module; whether the actual machining process is within the safety range or not is obtained. According to the characteristic that food material changes are continuous in a safety range, overall inference is carried out according to color expression and processing safety of dish products and color expression of raw material safety, and whether the food material processing process is in a food material safety state or not is judged.

The invention relates to a classifying device (10) for classifying grown natural products (O), said classifying device being suitable for reliably automatically classifying a natural product (O). In order to solve the problem, the classifying device (10) has the following features: - at least one means for generating an optical recording (12) of a natural product (O) to be classified from two or more different perspectives, - an evaluation unit (14) which is designed to compare the optical recordings with stored reference information items (36) and to assign the natural product (O) to be classified to one of a plurality of virtual classes on the basis of the comparison, and - an output unit (16) which is designed to output the natural product (O) assigned to the virtual class in a physically classified manner in accordance with the evaluation.