mhurhangee/ep-ind-claims huggingface dataset:
Multibeam reflection light grating, having a transceiver unit which has a plurality of light transmitters (4 - 9) for transmitting light into a monitoring zone and at least one receiver for detecting light coming from the monitoring zone, a reflector to delimit the monitoring zone and radiate back the light of the light transmitters (4 - 9) in the direction of the receiver or the receivers (11 - 16) and a control and evaluation unit for emitting an object detection signal based on the light intensities detected by the receiver or the receivers (11 - 16), characterised in that the control and evaluation unit is designed to automatically provide a predetermined output reference signal of the receiver and / or a predetermined sum of the output signals of all receivers (11 - 16), to emit an object detection signal if the output signal of a receiver and / or the sum of all output signals of all receivers (11 - 16) is / are smaller than a predetermined proportion of the output reference signal, to continuously monitor the output reference signal, to automatically set the transmission power of the light transmitters (4 - 9) and / or the amplification of the receiver or the receivers (11 - 16) when there is a free light path between the transceiver unit and the reflector such that the receiver (11 - 16) supplies the predetermined output reference signal or the receivers (11 - 16) supply the predetermined sum of the output reference signals, and to continuously adjust the amplification of the receiver or the receivers (11 - 16) and / or the transmission power of the light transmitters (4 - 9) in order to maintain as far as possible the predetermined output reference signal when there is a free light path.
Use of polymer materials imparting proton conductivity that are prepared from monomer units using acid and/or basic functional groups and have an irregular shape with corners and edges due to the comminution process, as an additive for PBI-based membranes doped with phosphoric acid, and/or as an additive for electrodes and/or as an additive for gas-diffusion electrodes in the manufacture of phosphoric acid fuel cells.
A method of enriching, comprising a) providing i) an emulsion comprising one or more aqueous compartments in oil, at least some of said compartments comprising PCR reagents, a first PCR primer immobilized on an emulsion bead, a second PCR primer in solution, wherein said second PCR primer comprises a ligand and a nucleotide sequence template; and ii) enrichment beads, wherein said enrichment beads are larger than said emulsion beads in said compartments; b) exposing said emulsion to conditions so as to amplify at least some of said template to produce amplified template on at least some of said emulsion beads in at least some of said compartments, wherein one strand of said amplified template terminates with said ligand; c) enriching for emulsion beads comprising said amplified template by contacting said emulsion beads with said enrichment beads, wherein said emulsion beads comprising said amplified template bind to said enrichment beads via said ligand, so as to make a population of emulsion bead-enrichment bead complexes; and d) capturing at least some of said population of complexes on single layer nylon mesh such that a majority of said emulsion beads not comprising amplified template are not captured and pass through said single layer nylon mesh. a) providing i) an emulsion comprising one or more aqueous compartments in oil, at least some of said compartments comprising PCR reagents, a first PCR primer immobilized on an emulsion bead, a second PCR primer in solution, wherein said second PCR primer comprises a ligand and a nucleotide sequence template; and ii) enrichment beads, wherein said enrichment beads are larger than said emulsion beads in said compartments; i) an emulsion comprising one or more aqueous compartments in oil, at least some of said compartments comprising PCR reagents, a first PCR primer immobilized on an emulsion bead, a second PCR primer in solution, wherein said second PCR primer comprises a ligand and a nucleotide sequence template; and ii) enrichment beads, wherein said enrichment beads are larger than said emulsion beads in said compartments; b) exposing said emulsion to conditions so as to amplify at least some of said template to produce amplified template on at least some of said emulsion beads in at least some of said compartments, wherein one strand of said amplified template terminates with said ligand; c) enriching for emulsion beads comprising said amplified template by contacting said emulsion beads with said enrichment beads, wherein said emulsion beads comprising said amplified template bind to said enrichment beads via said ligand, so as to make a population of emulsion bead-enrichment bead complexes; and d) capturing at least some of said population of complexes on single layer nylon mesh such that a majority of said emulsion beads not comprising amplified template are not captured and pass through said single layer nylon mesh.
A label printing device configured to execute a printing process on a mountless label, comprising: a conveying unit configured to convey the mountless label in its conveying direction; a shaft portion configured to change a conveying direction of the mountless label and configured such that a non-adhesive side of the mountless label to be conveyed is wound thereon; a cutting unit configured to cut the mountless label of which the conveying direction is changed by the shaft portion and to issue a label; and a controller configured to control the conveying unit and the cutting unit, characterized in that the controller is further configured to execute a preparatory operation mode when a label is not issued for more than a predetermined time such that: the conveying unit conveys, in the preparatory operation mode, the mountless label by a predetermined distance longer than a length of a portion extending from the shaft portion to the cutting unit in the mountless label, and the cutting unit cuts the mountless label in the preparatory operation mode. a conveying unit configured to convey the mountless label in its conveying direction; a shaft portion configured to change a conveying direction of the mountless label and configured such that a non-adhesive side of the mountless label to be conveyed is wound thereon; a cutting unit configured to cut the mountless label of which the conveying direction is changed by the shaft portion and to issue a label; and a controller configured to control the conveying unit and the cutting unit, characterized in that the controller is further configured to execute a preparatory operation mode when a label is not issued for more than a predetermined time such that: the conveying unit conveys, in the preparatory operation mode, the mountless label by a predetermined distance longer than a length of a portion extending from the shaft portion to the cutting unit in the mountless label, and the cutting unit cuts the mountless label in the preparatory operation mode. the conveying unit conveys, in the preparatory operation mode, the mountless label by a predetermined distance longer than a length of a portion extending from the shaft portion to the cutting unit in the mountless label, and the cutting unit cuts the mountless label in the preparatory operation mode.
A sticker with IC tag (400, 400') for installation on a cover of a covered container, the sticker (400, 400') comprising: an antenna portion; an IC chip coupled to the antenna portion and having the function of communicating through the antenna portion, characterized in that the sticker (400, 400') comprises a single-stroke line portion constituted of a single-stroke conductor line in the form of a meander, wherein the single-stroke line portion is coupled to the IC chip, and the IC chip is configured to detect a disconnection of the single-stroke lined portion. an antenna portion; an IC chip coupled to the antenna portion and having the function of communicating through the antenna portion, characterized in that the sticker (400, 400') comprises a single-stroke line portion constituted of a single-stroke conductor line in the form of a meander, wherein the single-stroke line portion is coupled to the IC chip, and the IC chip is configured to detect a disconnection of the single-stroke lined portion.
A compound of Formula I, or a pharmaceutically acceptable salt thereof: wherein: n is 2-6; R is -C -, -OC -, or -CH -, and preferably -C -; A is when B is H; B is when A is H; where: Y is O, S, NH, or CH 2; and p is 1-7, and preferably 3-7. n is 2-6; R is -C -, -OC -, or -CH -, and preferably -C -; A is when B is H; B is when A is H; Y is O, S, NH, or CH 2; and p is 1-7, and preferably 3-7.
A water activated tape comprising: a paper backing having a top surface and a bottom surface; a water activated adhesive applied to the bottom surface of the paper backing; and a film reinforcement structure applied to the top surface of the paper backing, wherein the film reinforcement structure comprises: an outermost oriented film comprising one or more of a biaxially oriented polypropylene film and a biaxially oriented polyethylene terephthalate film; and a lamination layer comprising one or more of an enhanced polyethylene resin, a polyolefin plastomer, a very low density polyethylene, a nylon, a polyester, and a co-polyester laminating the outermost oriented film to the paper backing. a paper backing having a top surface and a bottom surface; a water activated adhesive applied to the bottom surface of the paper backing; and a film reinforcement structure applied to the top surface of the paper backing, wherein the film reinforcement structure comprises: an outermost oriented film comprising one or more of a biaxially oriented polypropylene film and a biaxially oriented polyethylene terephthalate film; and a lamination layer comprising one or more of an enhanced polyethylene resin, a polyolefin plastomer, a very low density polyethylene, a nylon, a polyester, and a co-polyester laminating the outermost oriented film to the paper backing. an outermost oriented film comprising one or more of a biaxially oriented polypropylene film and a biaxially oriented polyethylene terephthalate film; and a lamination layer comprising one or more of an enhanced polyethylene resin, a polyolefin plastomer, a very low density polyethylene, a nylon, a polyester, and a co-polyester laminating the outermost oriented film to the paper backing.
Fuel tank, in particular, a tank for storing aggressive liquids for the operation of spacecraft, with a propellant gas serving as conveying medium as well as at least one fuel withdrawal device, the or each fuel withdrawal device consisting of at least one collecting tank and a tank outlet, in which by utilizing the surface tension a separation of the fuel from the propellant gas is achieved, wherein the withdrawal device is arranged in the form of a refillable reservoir on the floor of the fuel tank and is connected via conveying lines to the interior of the fuel tank, wherein the tank outlet is provided with bore holes, which connect an outlet pipe to the collecting tank, characterized in that the area opposite to the bore holes is provided with grooves.
A multi-piece insert device for an ophthalmic lens comprising: a first insert back curve piece; a first insert front curve piece proximate to the first insert back curve piece forming a cavity therebetween; a pattern of conductive material upon one or both of the first insert front curve piece and the first insert back curve piece; an electronic component attached to one or both of the first insert front curve piece and the first insert back curve piece, wherein an attachment is made at least in part to the conductive material; and a first colorant pattern upon a surface of the first insert front curve piece, wherein within the first colorant pattern is a first region (620, 630) where the patterning allows visible light to pass through the insert surface; wherein a light detector is located in the cavity between the insert front curve piece and the insert back curve piece and behind the first region where the patterning allows visible light to pass; wherein within the first colorant pattern is a second region that comprises a colorant that is opaque to visible light; and between the insert front curve piece and the insert back curve piece and behind the second region in the first colorant pattern is at least a portion of an integrated circuit device; wherein the multi-piece insert device is sealed. a first insert back curve piece; a first insert front curve piece proximate to the first insert back curve piece forming a cavity therebetween; a pattern of conductive material upon one or both of the first insert front curve piece and the first insert back curve piece; an electronic component attached to one or both of the first insert front curve piece and the first insert back curve piece, wherein an attachment is made at least in part to the conductive material; and a first colorant pattern upon a surface of the first insert front curve piece, wherein within the first colorant pattern is a first region (620, 630) where the patterning allows visible light to pass through the insert surface; wherein a light detector is located in the cavity between the insert front curve piece and the insert back curve piece and behind the first region where the patterning allows visible light to pass; wherein within the first colorant pattern is a second region that comprises a colorant that is opaque to visible light; and between the insert front curve piece and the insert back curve piece and behind the second region in the first colorant pattern is at least a portion of an integrated circuit device; wherein the multi-piece insert device is sealed.
A method of video coding comprising: encoding video blocks in a first encoding pass, wherein the first encoding pass selects video coding modes for the video blocks that define motion information for the video blocks; wherein the video coding modes include a direct mode and a skipped mode, wherein the motion information associated with any direct or skipped mode video blocks comprises motion vectors associated with one or more neighboring video blocks; and encoding the video blocks in a second encoding pass, wherein the second encoding pass adjusts one or more quantization parameters associated with the video blocks, and changes at least some of the video coding modes associated with the video blocks based on the adjusted quantization parameters, wherein the changed video coding modes do not change the motion information; characterized in that at least some of the video coding modes change from skipped macroblock modes to 16 by 16 inter macroblock modes; and the second coding pass changes a given video block from a skipped macroblock mode video block to a 16 by 16 inter macroblock mode video block, assigns a motion vector to the 16 by 16 inter macroblock mode video block based on a motion vector calculation for the skipped macroblock mode video block, and generates residual information for the given video block in the 16 by 16 inter macroblock mode, wherein said assigned motion vector is calculated as the motion vector that would have been defined by the skipped mode of the first coding pass. encoding video blocks in a first encoding pass, wherein the first encoding pass selects video coding modes for the video blocks that define motion information for the video blocks; wherein the video coding modes include a direct mode and a skipped mode, wherein the motion information associated with any direct or skipped mode video blocks comprises motion vectors associated with one or more neighboring video blocks; and encoding the video blocks in a second encoding pass, wherein the second encoding pass adjusts one or more quantization parameters associated with the video blocks, and changes at least some of the video coding modes associated with the video blocks based on the adjusted quantization parameters, wherein the changed video coding modes do not change the motion information; characterized in that at least some of the video coding modes change from skipped macroblock modes to 16 by 16 inter macroblock modes; and the second coding pass changes a given video block from a skipped macroblock mode video block to a 16 by 16 inter macroblock mode video block, assigns a motion vector to the 16 by 16 inter macroblock mode video block based on a motion vector calculation for the skipped macroblock mode video block, and generates residual information for the given video block in the 16 by 16 inter macroblock mode, wherein said assigned motion vector is calculated as the motion vector that would have been defined by the skipped mode of the first coding pass.
A method, implemented by a processor, for performing auto-contouring in a medical image, the method comprising: receiving an image containing a region of interest; determining (422, 424), by the processor, a first contour of the region of interest using a boundary detector; refining, by the processor, the first contour based on a shape dictionary to generate a second contour of the region of interest; and updating the boundary detector based on the second contour. receiving an image containing a region of interest; determining (422, 424), by the processor, a first contour of the region of interest using a boundary detector; refining, by the processor, the first contour based on a shape dictionary to generate a second contour of the region of interest; and updating the boundary detector based on the second contour.
A cursor position controlling apparatus for controlling a position at which a cursor for selecting, from within a screen image in which a plurality of choices are disposed in a matrix, one of the plurality of choices is to be displayed, the plurality of choices being disposed in a juxtaposed relationship in a first disposition direction associated with a first operation direction and a second disposition direction associated with a second operation direction, a disposition distance between the choices along the second disposition direction being shorter than a disposition distance between the choices along the first disposition direction; the apparatus comprising: a cursor position changing unit configured to change a position at which the cursor is to be displayed in response to a direction and a magnitude of an operation; and an operation amount data acquisition unit configured to acquire operation amount data associated with an operation amount vector representative of a direction and a magnitude of an operation; and in which: an operation for moving the cursor to a target position is carried out by using a controller which outputs operation amount data associated with an operation amount vector representative of a direction and a magnitude of an operation thereof; and characterised in that the apparatus is configured to result in an amount of movement of the position at which the cursor is to be displayed and which moves in the second disposition direction when an operation of a given operation amount is carried out in the second operation direction, which is smaller than an amount of movement of the position at which the cursor is to be displayed and which moves in the first disposition direction when an operation of the given operation amount is carried out by a user in the first operation direction. a cursor position changing unit configured to change a position at which the cursor is to be displayed in response to a direction and a magnitude of an operation; and an operation amount data acquisition unit configured to acquire operation amount data associated with an operation amount vector representative of a direction and a magnitude of an operation; and in which: an operation for moving the cursor to a target position is carried out by using a controller which outputs operation amount data associated with an operation amount vector representative of a direction and a magnitude of an operation thereof; and characterised in that the apparatus is configured to result in an amount of movement of the position at which the cursor is to be displayed and which moves in the second disposition direction when an operation of a given operation amount is carried out in the second operation direction, which is smaller than an amount of movement of the position at which the cursor is to be displayed and which moves in the first disposition direction when an operation of the given operation amount is carried out by a user in the first operation direction.
An optical filter for anti-reflection comprising: a polarizer having an absorption axis formed in one direction; a first retardation film having reverse wavelength dispersion characteristics and quarter-wave phase retardation characteristics; a second retardation film satisfying Equation 1 below sequentially; and an optical compensation layer between the polarizer and the first retardation film, wherein the optical compensation layer comprises a third retardation film having an Nz value of 1.2 or less in Equation 8 below: nx = ny < nz Nz = nx − nz / nx − ny wherein, nx, ny, and nz are refractive indexes in the x-axis, y-axis and z-axis directions of the retardation film, the x-axis is a direction parallel to the in-plane slow axis of the retardation film, the y-axis is a direction parallel to the in-plane fast axis of the retardation film, and the z-axis is the thickness direction of the retardation film, characterized in that the in-plane slow axis of the third retardation film is parallel or orthogonal to the absorption axis of the polarizer. a polarizer having an absorption axis formed in one direction; a first retardation film having reverse wavelength dispersion characteristics and quarter-wave phase retardation characteristics; a second retardation film satisfying Equation 1 below sequentially; and an optical compensation layer between the polarizer and the first retardation film, wherein the optical compensation layer comprises a third retardation film having an Nz value of 1.2 or less in Equation 8 below: nx = ny < nz Nz = nx − nz / nx − ny wherein, nx, ny, and nz are refractive indexes in the x-axis, y-axis and z-axis directions of the retardation film, the x-axis is a direction parallel to the in-plane slow axis of the retardation film, the y-axis is a direction parallel to the in-plane fast axis of the retardation film, and the z-axis is the thickness direction of the retardation film, characterized in that the in-plane slow axis of the third retardation film is parallel or orthogonal to the absorption axis of the polarizer.
Cartridge for folding an ophthalmic implant comprising a clamp formed by two articulated arms (34, 36), the two arms (34, 36) having substantially coaxial channels (46, 48), each of which is bordered by two longitudinal edges (46A, 46B, 48A, 48B), the channels (46, 48) opening opposite one another and, when the two arms (34, 36) are closed together, defining a conduit for containing the partially folded implant, characterised in that when two said arms (34, 36) are closed together, at least two of the edges (46B, 48B) facing the two channels (46, 48) are transversely displaced relative to the conduit in the joining plane of said two arms (34, 36) in such a way that one arm defines a shoulder which supports the implant and projects opposite the channel arranged in the other arm.