mhurhangee/patent-ind-claim-en huggingface dataset:
A low tension application spooler for spooling or coiling elongated materials comprising: a frame ; and a motorized spindle having a spool adapted to receive said elongated material for wrapping; characterised in that the low tension application spooler further comprises: a motorized traverse system adapted to move horizontally on said frame for wrapping said elongated material on said spool; a motorized roller system attached to said traverse adapted to push said elongated material to said spool for wrapping around said spool and wherein said motorized spindle is slaved to said motorized roller system ; and a computer attached to said frame and in communication with said motorized spindle for controlling said motorized spindle , with said motorized traverse system for controlling said motorized traverse system , and with said motorized roller system for controlling said motorized roller system . a frame ; and a motorized spindle having a spool adapted to receive said elongated material for wrapping; characterised in that the low tension application spooler further comprises: a motorized traverse system adapted to move horizontally on said frame for wrapping said elongated material on said spool; a motorized roller system attached to said traverse adapted to push said elongated material to said spool for wrapping around said spool and wherein said motorized spindle is slaved to said motorized roller system ; and a computer attached to said frame and in communication with said motorized spindle for controlling said motorized spindle , with said motorized traverse system for controlling said motorized traverse system , and with said motorized roller system for controlling said motorized roller system . a motorized traverse system adapted to move horizontally on said frame for wrapping said elongated material on said spool; a motorized roller system attached to said traverse adapted to push said elongated material to said spool for wrapping around said spool and wherein said motorized spindle is slaved to said motorized roller system ; and a computer attached to said frame and in communication with said motorized spindle for controlling said motorized spindle , with said motorized traverse system for controlling said motorized traverse system , and with said motorized roller system for controlling said motorized roller system .
Method for correcting a reflective optical element for the wavelength range from 5 nm to 20 nm, having a multilayer system on a substrate, wherein the multilayer system has layers made from at least two different materials having a different real part of the refractive index at a wavelength in the extreme ultraviolet wavelength range, which are arranged alternately, and wherein the reflective optical element has one or more partial faces that has or have a measured reflectivity that lies above a target reflectivity of a target distribution of the reflectivity over the face of the multilayer system, wherein the multilayer system is irradiated with electrons on this or these partial face(s), such that the structure of the multilayer system is locally modified and the reflectivity becomes lower.
A method for depth image generation, comprising: receiving an input image comprising a color image or an infrared image; generating a first low-resolution image having a resolution lower than a resolution of the input image ; acquiring a first depth residual image , corresponding to the input image , the depth residual image including depth information of a high-frequency component of the input image , by using a first generation model based on a first neural network that uses the input image as an input; generating a first low-resolution depth image corresponding to the first low-resolution image by using a second generation model based on a second neural network that uses the first low-resolution image as an input; and generating a target depth image corresponding to the input image , based on the first depth residual image and the first low-resolution depth image . receiving an input image comprising a color image or an infrared image; generating a first low-resolution image having a resolution lower than a resolution of the input image ; acquiring a first depth residual image , corresponding to the input image , the depth residual image including depth information of a high-frequency component of the input image , by using a first generation model based on a first neural network that uses the input image as an input; generating a first low-resolution depth image corresponding to the first low-resolution image by using a second generation model based on a second neural network that uses the first low-resolution image as an input; and generating a target depth image corresponding to the input image , based on the first depth residual image and the first low-resolution depth image .
A method for securing an optical fiber to a ferrule, wherein the ferrule is part of ferrule adhesion system that also includes an adhesive composition disposed within the ferrule as a solid material, the method comprising: heating the adhesive composition to a temperature sufficient to melt the adhesive composition; inserting the optical fiber into a fiber-receiving passage defining an inner surface of the ferrule and into contact with the melted adhesive composition; and cooling the melted adhesive composition; wherein the adhesive composition comprises a partially cross-linked resin and a coupling agent that covalently bonds the partially cross-linked resin to respective inorganic surfaces of the optical fiber and the ferrule following the cooling step. heating the adhesive composition to a temperature sufficient to melt the adhesive composition; inserting the optical fiber into a fiber-receiving passage defining an inner surface of the ferrule and into contact with the melted adhesive composition; and cooling the melted adhesive composition; wherein the adhesive composition comprises a partially cross-linked resin and a coupling agent that covalently bonds the partially cross-linked resin to respective inorganic surfaces of the optical fiber and the ferrule following the cooling step.
An apparatus for determining a depth map for an image of a scene, the apparatus comprising: an active depth sensor , including an infrared light emitter, for determining a first depth map for the image, the first depth map comprising depth values for pixels of the image determined by the active depth sensor ; a passive depth sensor for determining a second depth map for the image, the second depth map comprising depth values for pixels of the image determined by the passive depth sensor ; a light determiner for determining a light indication for the scene, the light indication comprising a first infrared light indication being indicative of an infrared light level for the scene; a depth map processor for determining an output depth map for the image by combining the first depth map and the second depth map, the depth map processor being arranged to determine a depth value for the output depth map as a combination of depth values of the first depth map and of the second depth map, the combining being dependent on the first infrared light indication; and wherein the light determiner is arranged to determine a visible light indication indicative of a light level in a frequency band of the visible light spectrum and to estimate the first infrared light indication from the visible light indication. an active depth sensor , including an infrared light emitter, for determining a first depth map for the image, the first depth map comprising depth values for pixels of the image determined by the active depth sensor ; a passive depth sensor for determining a second depth map for the image, the second depth map comprising depth values for pixels of the image determined by the passive depth sensor ; a light determiner for determining a light indication for the scene, the light indication comprising a first infrared light indication being indicative of an infrared light level for the scene; a depth map processor for determining an output depth map for the image by combining the first depth map and the second depth map, the depth map processor being arranged to determine a depth value for the output depth map as a combination of depth values of the first depth map and of the second depth map, the combining being dependent on the first infrared light indication; and wherein the light determiner is arranged to determine a visible light indication indicative of a light level in a frequency band of the visible light spectrum and to estimate the first infrared light indication from the visible light indication.
A training method of an acoustic model, comprising: constructing window-level input speech data based on a speech sequence; inputting the window-level input speech data to an acoustic model implemented by a recurrent deep neural network, RDNN, or a bidirectional RDNN; calculating a sequence level-error based on an output of the acoustic model, wherein the output of the acoustic model comprises window-level acoustic scores, wherein the calculating of the sequence-level error comprises acquiring a sequence-level acoustic score by merging the window-level acoustic scores, and calculating the sequence-level error based on the sequence-level acoustic score and a reference sentence associated with the speech sequence; acquiring window-level errors corresponding to the window-level input speech data by dividing the sequence level-error into the window-level errors; and updating the acoustic model based on the window-level errors. constructing window-level input speech data based on a speech sequence; inputting the window-level input speech data to an acoustic model implemented by a recurrent deep neural network, RDNN, or a bidirectional RDNN; calculating a sequence level-error based on an output of the acoustic model, wherein the output of the acoustic model comprises window-level acoustic scores, wherein the calculating of the sequence-level error comprises acquiring a sequence-level acoustic score by merging the window-level acoustic scores, and calculating the sequence-level error based on the sequence-level acoustic score and a reference sentence associated with the speech sequence; acquiring window-level errors corresponding to the window-level input speech data by dividing the sequence level-error into the window-level errors; and updating the acoustic model based on the window-level errors.
A variable electrical generator for converting mechanical motion to electrical power, wherein the generator includes at least a stator element and a rotor element including coils and magnets , characterized in that the generator includes a configuration of modules including the coils for generating wavelets in response to the coils interacting magnetically with the magnets , wherein the modules are operable to generate wavelets whose duration (d) is shorter than a duration of cycle (D) of an alternating waveform supplied in operation to the output , and a control arrangement for selectively combining the wavelets for generating a composite synthesized power output from the generator .
A fluid reservoir for an aerosol generator , the fluid reservoir comprising - a fluid chamber for receiving a fluid , - a filling opening for filling the fluid into the fluid chamber , - another opening for guiding the fluid received in the fluid chamber outside the fluid chamber , and - a collar portion surrounding the opening and extending into the fluid chamber , wherein - a first portion of the fluid chamber extends along the length of the collar portion in a height direction (H) of the fluid chamber , - a second portion of the fluid chamber is arranged adjacent to the first portion in the height direction (H) of the fluid chamber , - a lateral extension of the first portion in the directions perpendicular to the height direction (H) of the fluid chamber is smaller than a lateral extension of the second portion in the directions perpendicular to the height direction (H) of the fluid chamber , - the fluid reservoir further comprises a cover member which releasably or permanently seals a region of the first portion of the fluid chamber which is formed between the collar portion and an inner wall of the fluid chamber , - the cover member has an upper portion and a lower portion , and - the lower portion is configured to releasably or permanently seal the region of the first portion of the fluid chamber formed between the collar portion and the inner wall of the fluid chamber . - a fluid chamber for receiving a fluid , - a filling opening for filling the fluid into the fluid chamber , - another opening for guiding the fluid received in the fluid chamber outside the fluid chamber , and - a collar portion surrounding the opening and extending into the fluid chamber , wherein - a first portion of the fluid chamber extends along the length of the collar portion in a height direction (H) of the fluid chamber , - a second portion of the fluid chamber is arranged adjacent to the first portion in the height direction (H) of the fluid chamber , - a lateral extension of the first portion in the directions perpendicular to the height direction (H) of the fluid chamber is smaller than a lateral extension of the second portion in the directions perpendicular to the height direction (H) of the fluid chamber , - the fluid reservoir further comprises a cover member which releasably or permanently seals a region of the first portion of the fluid chamber which is formed between the collar portion and an inner wall of the fluid chamber , - the cover member has an upper portion and a lower portion , and - the lower portion is configured to releasably or permanently seal the region of the first portion of the fluid chamber formed between the collar portion and the inner wall of the fluid chamber .
Encoder for angle determination with at least one rotatable material measure and with at least one magnetic sensor equipment for scanning the material measure , the magnetic sensor equipment being designed to determine the magnetic flow density (B) in at least two spatial directions independent from each other, with a device to calculate correction values for angular measuring values of the encoder , the device being designed • to receive an instantaneous value (Bt) of the magnetic flow density (B) measured by the magnetic sensor equipment of the encoder in at least two spatial directions, • to calculate - at a point in time (t) at an angular measuring value - at least a distance (29, C) of the magnetic sensor equipment to the material measure of the encoder from the received instantaneous value (Bt) of the magnetic flow density (B), and • to calculate from the calculated distance (29, C) at least one correction value for the angular measuring values . • to receive an instantaneous value (Bt) of the magnetic flow density (B) measured by the magnetic sensor equipment of the encoder in at least two spatial directions, • to calculate - at a point in time (t) at an angular measuring value - at least a distance (29, C) of the magnetic sensor equipment to the material measure of the encoder from the received instantaneous value (Bt) of the magnetic flow density (B), and • to calculate from the calculated distance (29, C) at least one correction value for the angular measuring values .
A light emitting structure comprising: a sheet-shaped structure which absorbs excitation light and emits light with wavelength conversion and which has a maximum emission wavelength of 400 nm or more; and an antireflection material provided on a side surface of the sheet-shaped structure , wherein the sheet-shaped structure comprises: a substrate that is any one of an inorganic glass and a resin plate; and a sheet-shaped member provided on at least one surface side of the substrate , wherein the sheet-shaped member absorbs excitation light and emits light with wavelength conversion, and a maximum emission wavelength thereof is 400 nm or more, wherein the sheet-shaped member (10 A) is a light emitting layer comprising a resin and the wavelength conversion material is dispersed in the resin, wherein the sheet-shaped structure comprises two substrates , wherein the sheet-shaped member is disposed between the two substrates , and wherein the light emitting layer (10 A) is recessed inwardly to form a recess or expands outwardly to form a projection (10 D) on the side surface of the sheet-shaped structure . a sheet-shaped structure which absorbs excitation light and emits light with wavelength conversion and which has a maximum emission wavelength of 400 nm or more; and an antireflection material provided on a side surface of the sheet-shaped structure , wherein the sheet-shaped structure comprises: a substrate that is any one of an inorganic glass and a resin plate; and a sheet-shaped member provided on at least one surface side of the substrate , wherein the sheet-shaped member absorbs excitation light and emits light with wavelength conversion, and a maximum emission wavelength thereof is 400 nm or more, a substrate that is any one of an inorganic glass and a resin plate; and a sheet-shaped member provided on at least one surface side of the substrate , wherein the sheet-shaped member absorbs excitation light and emits light with wavelength conversion, and a maximum emission wavelength thereof is 400 nm or more, wherein the sheet-shaped member (10 A) is a light emitting layer comprising a resin and the wavelength conversion material is dispersed in the resin, wherein the sheet-shaped structure comprises two substrates , wherein the sheet-shaped member is disposed between the two substrates , and wherein the light emitting layer (10 A) is recessed inwardly to form a recess or expands outwardly to form a projection (10 D) on the side surface of the sheet-shaped structure .
A method for preparing a carrier-nanoparticle complex in which core-shell nanoparticles are supported on a carrier, the method comprising: forming a first solution comprising an aqueous solvent, a precursor of a first metal, a precursor of a second metal, and the carrier; forming a core portion comprising the first metal and the second metal by adding a first reducing agent to the first solution; adjusting a pH of the first solution to 8 or more between the forming of the first solution and the forming of the core portion; forming a second solution by adding a Pt precursor to the first solution after the forming of the core portion; forming a shell portion comprising Pt on at least a portion of a surface of the core portion by adding a second reducing agent to the second solution; and adjusting a pH of the second solution to 8 or more between the forming of the second solution and the forming of the shell portion, wherein at least a portion of a surface of the carrier is coated with a polymer electrolyte which comprises one or more functional groups comprising nitrogen. forming a first solution comprising an aqueous solvent, a precursor of a first metal, a precursor of a second metal, and the carrier; forming a core portion comprising the first metal and the second metal by adding a first reducing agent to the first solution; adjusting a pH of the first solution to 8 or more between the forming of the first solution and the forming of the core portion; forming a second solution by adding a Pt precursor to the first solution after the forming of the core portion; forming a shell portion comprising Pt on at least a portion of a surface of the core portion by adding a second reducing agent to the second solution; and adjusting a pH of the second solution to 8 or more between the forming of the second solution and the forming of the shell portion, wherein at least a portion of a surface of the carrier is coated with a polymer electrolyte which comprises one or more functional groups comprising nitrogen.
A method comprising: commanding , by a system management unit, a first power device having output terminals to change an output electrical parameter, receiving operating points reported by a plurality of power devices, each comprising output terminals, wherein the output terminals of at least one power device of the plurality of power devices are serially coupled to the output terminals of the first power device, wherein the operating points each comprise at least one of an operating voltage and an operating current of the respective one of the plurality of power devices; and determining , based on the received operating points, power devices of the plurality of power devices that are serially coupled to the first power device by detecting a change in an operating point of the power devices, wherein the change is responsive to the changed output electrical parameter. commanding , by a system management unit, a first power device having output terminals to change an output electrical parameter, receiving operating points reported by a plurality of power devices, each comprising output terminals, wherein the output terminals of at least one power device of the plurality of power devices are serially coupled to the output terminals of the first power device, wherein the operating points each comprise at least one of an operating voltage and an operating current of the respective one of the plurality of power devices; and determining , based on the received operating points, power devices of the plurality of power devices that are serially coupled to the first power device by detecting a change in an operating point of the power devices, wherein the change is responsive to the changed output electrical parameter.
An air spring fastening, in particular for commercial vehicles, comprising a positioning element , a radius arm unit , and an air spring unit , wherein the radius arm unit and the air spring unit each have a fastening section , wherein the positioning element has a first engagement section that can be brought into engagement with a first fastening section in order to secure the positioning element against displacement in a positioning plane (E) relative to the first fastening section , wherein the positioning element has at least one second engagement section that runs or extends transversely to the positioning plane (E) and is arranged eccentrically in relation to the positioning plane (E) on the positioning element , wherein a second fastening section can be fixed transversely to the positioning plane (E) in alignment with the second engagement section by means of at least one fastening means in order to fix the second fastening section in a certain installation position in relation to the first fastening section by fixing the positioning element in a certain rotation position relative to the first fastening section , characterized in that the first fastening section comprises a retention collar , against which the positioning element may be pushed or pressed or urged via the fastening means so as to force-fittingly or frictionally fix the air spring unit to the radius arm unit .