mhurhangee/ep-ind-claims huggingface dataset:
A method carried out by a wireless device, said device supporting a first transmission bandwidth, for enabling access to a radio network node, said node operating a carrier with a second transmission bandwidth, the method comprising: obtaining information about the carrier operated by the radio network node on said second transmission bandwidth, wherein a set of enumerable elements is associated with the second transmission bandwidth; determining, when the first transmission bandwidth is narrower than the second transmission bandwidth, a mapping scheme for mapping the set of enumerable elements to frequency ranges of the first transmission bandwidth based on the information about the carrier, characterized in that: an element with a least element number associated with the set of enumerable elements is mapped to a particular frequency range from among the frequency ranges, wherein the particular frequency range is located at a center frequency of a center of the first transmission bandwidth, and elements associated with the set of enumerable elements and increasing from a least element number are mapped towards higher and lower frequencies relative to the center frequency, alternately; and sending, to the radio network node, a request for access to the radio network node using the mapping scheme. obtaining information about the carrier operated by the radio network node on said second transmission bandwidth, wherein a set of enumerable elements is associated with the second transmission bandwidth; determining, when the first transmission bandwidth is narrower than the second transmission bandwidth, a mapping scheme for mapping the set of enumerable elements to frequency ranges of the first transmission bandwidth based on the information about the carrier, an element with a least element number associated with the set of enumerable elements is mapped to a particular frequency range from among the frequency ranges, wherein the particular frequency range is located at a center frequency of a center of the first transmission bandwidth, and elements associated with the set of enumerable elements and increasing from a least element number are mapped towards higher and lower frequencies relative to the center frequency, alternately; and sending, to the radio network node, a request for access to the radio network node using the mapping scheme.
An electrode system for a plasma arc torch, comprising: a first electrode holder configured to be received by the plasma arc torch in a first cutting arrangement, the first electrode holder being further configured to receive a first electrode assembly comprising a holder element having an emissive insert element received therein such that the plasma arc torch is adapted to cut a thinner workpiece; and a second electrode holder configured to be received by the plasma arc torch in a second cutting arrangement, the second electrode holder being interchangeable with the first electrode holder with respect to the plasma arc torch, the second electrode holder being further configured to receive a second electrode assembly comprising a pencil element such that the plasma arc torch is adapted to cut a thicker workpiece, the interchangeable first and second electrode holders thereby being configured such that a single plasma arc torch is adapted to cut both the thinner and thicker workpieces. a first electrode holder configured to be received by the plasma arc torch in a first cutting arrangement, the first electrode holder being further configured to receive a first electrode assembly comprising a holder element having an emissive insert element received therein such that the plasma arc torch is adapted to cut a thinner workpiece; and a second electrode holder configured to be received by the plasma arc torch in a second cutting arrangement, the second electrode holder being interchangeable with the first electrode holder with respect to the plasma arc torch, the second electrode holder being further configured to receive a second electrode assembly comprising a pencil element such that the plasma arc torch is adapted to cut a thicker workpiece, the interchangeable first and second electrode holders thereby being configured such that a single plasma arc torch is adapted to cut both the thinner and thicker workpieces.
A method for intensifying identification of three-dimensional objects, the method comprising: utilizing a left eye camera and a right eye camera to capture a left eye image and a right eye image (102, 602); calibrating the left eye image and the right eye image to generate a calibrated left eye image and a calibrated right eye image (104, 604); utilizing the calibrated left eye image and the calibrated right eye image to generate a disparity map (106, 610); differentiating a three-dimensional object from a background image according to the disparity map (108, 612); projecting the three-dimensional object onto a plan view (110, 614); filtering noise out of the plan view to generate a filtered three-dimensional object; determining whether the filtered three-dimensional object contains at least two three-dimensional objects (114, 618); and characterized by separating the at least two three-dimensional objects according to a watershed segmentation algorithm when the filtered three-dimensional object contains at least two three-dimensional objects (116, 620). utilizing a left eye camera and a right eye camera to capture a left eye image and a right eye image (102, 602); calibrating the left eye image and the right eye image to generate a calibrated left eye image and a calibrated right eye image (104, 604); utilizing the calibrated left eye image and the calibrated right eye image to generate a disparity map (106, 610); differentiating a three-dimensional object from a background image according to the disparity map (108, 612); projecting the three-dimensional object onto a plan view (110, 614); filtering noise out of the plan view to generate a filtered three-dimensional object; determining whether the filtered three-dimensional object contains at least two three-dimensional objects (114, 618); and characterized by separating the at least two three-dimensional objects according to a watershed segmentation algorithm when the filtered three-dimensional object contains at least two three-dimensional objects (116, 620).
A method for realising articles having a predetermined area and aesthetic appearance, which includes using frames (1A, 1B, 1C) to each of which a portion (P1, P2, P3) of material having a prevalent flat extension can be removably hooked, wherein it comprises, in order, following steps: - hooking a first portion of the material to a first frame; - carrying out, on the first portion hooked to the first frame, punching and stitching operations; characterised in that it comprises, in order, following steps: - carrying out, on the first portion hooked to the first frame, cutting operations for defining a corresponding article having predetermined area and aesthetic appearance defined by the combination of the profile of the article and by the mutual arrangement of the punching and the stitching; - releasing the article, and relative scrap,from the first frame. - hooking a first portion of the material to a first frame; - carrying out, on the first portion hooked to the first frame, punching and stitching operations; - carrying out, on the first portion hooked to the first frame, cutting operations for defining a corresponding article having predetermined area and aesthetic appearance defined by the combination of the profile of the article and by the mutual arrangement of the punching and the stitching; - releasing the article, and relative scrap,from the first frame.
A composition-of-matter comprising at least three types of microparticles each formed from an active ingredient core encapsulated by at least one coating layer incorporating at least one coating material, said at least three types of said microparticles being differentiated by said active ingredient or said at least one coating material, wherein said microparticles include one or more active ingredients selected from the group consisting of: (a) a dietary supplement affecting motor and cognitive performance; (b) a dietary supplement having anti-gastroparesis, antiemetic, analgesic and anti-inflammatory activities; and/or (c) a dietary supplement capable of increasing alcohol catabolism, wherein said microparticles comprise (a) and (b), (b) and (c) or (a) and (c), said at least three types of microparticles comprises: a microparticle facilitating rapid release of said active ingredient in the stomach, a microparticle facilitating delayed release of said active ingredient in the intestine, and a microparticle facilitating delayed release of said active ingredient in the colon. (a) a dietary supplement affecting motor and cognitive performance; (b) a dietary supplement having anti-gastroparesis, antiemetic, analgesic and anti-inflammatory activities; and/or (c) a dietary supplement capable of increasing alcohol catabolism, wherein said microparticles comprise (a) and (b), (b) and (c) or (a) and (c), said at least three types of microparticles comprises: a microparticle facilitating rapid release of said active ingredient in the stomach, a microparticle facilitating delayed release of said active ingredient in the intestine, and a microparticle facilitating delayed release of said active ingredient in the colon.
A solar battery comprising: a semiconductor substrate; a first conductivity type region formed on a back surface side located on the opposite side of an acceptance surface side of the semiconductor substrate; a second conductivity type region formed on the back surface side of the semiconductor substrate; a first conductivity type collecting electrode substantially linearly formed on the first conductivity type region; and a second conductivity type collecting electrode substantially linearly formed on the second conductivity type region, wherein the first and second conductivity type regions (502, 503) are alternately arranged, each of the first and second conductivity type collecting electrodes (504, 505) has discontinuous places, and the discontinuous places of each of the first and second conductivity type collecting electrodes (504, 505) are substantially aligned on a straight line in an arrangement direction in which the first and second conductivity type regions (502, 503) are alternately arranged, wherein a portion adjacent to each of the discontinuous places in each of the first and second conductivity type collecting electrodes (504, 505) is formed as a bus bar part wider than the other portion in each of the first and second conductivity type collecting electrodes (504, 505); and the discontinuous places of one of the first and second conductivity type collecting electrodes (504, 505) are adjacent to the bus bar parts of the other of the first and second conductivity type collecting electrodes (504, 505) in the arrangement direction. a semiconductor substrate; a first conductivity type region formed on a back surface side located on the opposite side of an acceptance surface side of the semiconductor substrate; a second conductivity type region formed on the back surface side of the semiconductor substrate; a first conductivity type collecting electrode substantially linearly formed on the first conductivity type region; and a second conductivity type collecting electrode substantially linearly formed on the second conductivity type region, wherein the first and second conductivity type regions (502, 503) are alternately arranged, each of the first and second conductivity type collecting electrodes (504, 505) has discontinuous places, and the discontinuous places of each of the first and second conductivity type collecting electrodes (504, 505) are substantially aligned on a straight line in an arrangement direction in which the first and second conductivity type regions (502, 503) are alternately arranged, wherein a portion adjacent to each of the discontinuous places in each of the first and second conductivity type collecting electrodes (504, 505) is formed as a bus bar part wider than the other portion in each of the first and second conductivity type collecting electrodes (504, 505); and the discontinuous places of one of the first and second conductivity type collecting electrodes (504, 505) are adjacent to the bus bar parts of the other of the first and second conductivity type collecting electrodes (504, 505) in the arrangement direction.
An anterior ocular segment optical coherence tomographic imaging device for taking a tomographic image of an anterior ocular segment including a crystalline lens of a subject's eye using optical coherence, the device comprising a layer boundary detection means configured to identify a crystalline lens front face and a crystalline lens back face from position information of peaks of brightness values in a depth direction (z) of the tomographic image from a cornea to a retina and trace the crystalline lens front face and the crystalline lens back face in the tomographic image, calculate brightness gradients from the brightness values, detect an edge (b1, b2, b3, b4) that is larger than a predetermined threshold, identify a boundary face between a nucleus lentis and cortex lentis (L4, L5) of the crystalline lens from position information of the edge, and trace the boundary faces between the nucleus lentis and the cortex lentis (L4, L5) located between the crystalline lens front face and the nucleus lentis and between the nucleus lentis and the cortex lentis located between the crystalline lens back face and the nucleus lentis in the tomographic image.
A system for monitoring resource flow(s) at a number of devices (D 1, D 2, D 3), which system comprises a receiving unit configured to receive data from (a) a number of sensors (S 1, S 2, S 3, S 4, S 5) configured to detect the flow rate and/or the change in the flow rate at device level, and (b) a number of meters (M 1, M 2, M 3) configured to measure the overall flow for at least a part of the devices (D 1, D 2, D 3) by a predefined high accuracy, characterised in that the system comprises a calculation module configured to receive information from the sensors (S 1, S 2, S 3, S 4, S 5) and the meters (M 1, M 2, M 3), where the calculation module comprises a mathematical statistical model configured to estimate and/or predict latent stochastic process such as flow of resources and/or performance (e.g. activity) of the devices (D 1, D 2, D 3) by using data from the sensors (S 1, S 2, S 3, S 4, S 5) and the meter (M 1), where the data from the sensors (S 1, S 2, S 3, S 4, S 5) and the meter (M 1) at time t are given as a vector (Y t), where the latent stochastic process, in particular flow of resources and/or performance such as percent ventilation efficiency, percent overconsumption of resources, resource flow or device health status, at time t is a vector (θ t), where the mathematical statistic model uses a noise vector (ε t) of the data from the sensors (S 1, S 2, S 3, S 4, S 5) and the meter (M 1) at time t and eventually a noise vector (θ t) of the latent stochastic process at time t, where the statistical distribution of the noise vectors (ε t, θ t) are estimated on the basis of the data from the sensor (S 1, S 2, S 3, S 4, S 5) and the meter (M 1). (a) a number of sensors (S 1, S 2, S 3, S 4, S 5) configured to detect the flow rate and/or the change in the flow rate at device level, and (b) a number of meters (M 1, M 2, M 3) configured to measure the overall flow for at least a part of the devices (D 1, D 2, D 3) by a predefined high accuracy,
An battery module, comprising a plurality of battery arrays, a first end plate, a second end plate and a separating plate; each battery array comprising a plurality of batteries sequentially arranged in a longitudinal direction, and the plurality of battery arrays being sequentially arranged in a transversal direction; the first end plate and the second end plate being respectively positioned at two ends of the plurality of battery arrays in the longitudinal direction; wherein the first end plate comprises a first end sub-plate and a second end sub-plate, a passage is provided between the first end sub-plate and the second end sub-plate; the separating plate is provided between two adjacent battery arrays, characterized in that at least one end of the passage in an up-down direction is opened; one end of the separating plate in the longitudinal direction is fixed with the second end plate, the other end of the separating plate in the longitudinal direction extends into the passage and is fixed with the first end plate, the first end plate and the second end plate clamping the battery arrays; an exposed portion the separating plate is exposed via the passage, and the separating plate is welded with the first end plate by laser along a boundary between the exposed portion and the first end plate; in the passage, the separating plate has a bending portion not parallel to the longitudinal direction.
A physical quantity detecting device comprising: a physical quantity detector configured to detect a physical quantity and to output a physical quantity detection signal; and a controller configured to receive the physical quantity outputted from the physical quantity detector via a transmission line and to perform a control operation on the basis of the physical quantity, characterized in that the physical quantity detector includes a signal switch configured to switch between the physical quantity detection signal and a diagnostic signal for detecting abnormality of a transmission system between the controller and the physical quantity detector and outputs the diagnostic signal at least at a time of power-up, and that the controller includes an abnormality determining unit configured to determine the abnormality of the transmission system on the basis of the diagnostic signal when receiving the diagnostic signal. a physical quantity detector configured to detect a physical quantity and to output a physical quantity detection signal; and a controller configured to receive the physical quantity outputted from the physical quantity detector via a transmission line and to perform a control operation on the basis of the physical quantity, characterized in that the physical quantity detector includes a signal switch configured to switch between the physical quantity detection signal and a diagnostic signal for detecting abnormality of a transmission system between the controller and the physical quantity detector and outputs the diagnostic signal at least at a time of power-up, and that the controller includes an abnormality determining unit configured to determine the abnormality of the transmission system on the basis of the diagnostic signal when receiving the diagnostic signal.
A regenerator material comprising a granular body made of bismuth or an alloy of bismuth and antimony, wherein a rate of the granular body having a grain size of 0.14mm to 1.6mm is 70% by weight or more with respect to the entire granular body, and a rate of the granular body in which a ratio of a major axis to a minor axis is 5 or less is 70% by weight or more with respect to the entire granular body.
A medical image visualization and interaction apparatus comprising: at least one processor and at least one memory including instructions, the instructions, when executed, to cause the at least one processor to at least: generate a virtual environment for display of image content via a virtual reality display device, the image content to include a two-dimensional image overlaid on a three-dimensional volume; enable interaction with the image content in the virtual environment via an avatar, comprising manipulation of an image slice within or outside of the threedimensional volume in the virtual environment, movement of the avatar to be correlated with an external input; wherein the two-dimensional image is the image slice; adjust the image content in the virtual environment based on the interaction; and generate an output of image content from the virtual environment. generate a virtual environment for display of image content via a virtual reality display device, the image content to include a two-dimensional image overlaid on a three-dimensional volume; enable interaction with the image content in the virtual environment via an avatar, comprising manipulation of an image slice within or outside of the threedimensional volume in the virtual environment, movement of the avatar to be correlated with an external input; wherein the two-dimensional image is the image slice; adjust the image content in the virtual environment based on the interaction; and generate an output of image content from the virtual environment.
A milling apparatus comprising: a main body comprising an internal bore defining a flow path through the body; a mill head having at least one flow port; an internal chamber which can contain a fluid, the internal bore of the main body defining at least part of the chamber; a first seal assembly disposed within the internal bore; a second seal assembly disposed within the internal bore; and a communication port located at a position which is, in use, upstream of the second seal assembly; in which the first and second seal assemblies (16, 23) are initially sealed relative to the main body, so that fluid communication along the internal bore past the first and second seal assemblies is restricted and fluid contained in the chamber isolated from fluid external to the chamber; in which at least part of the first seal assembly is translatable within the internal bore in a direction towards the second seal assembly, to transmit fluid contained in the chamber through the communication port to a fluid operated device associated with the milling apparatus, to operate the device; and in which at least part of the second seal assembly is translatable within the internal bore from a closed position in which said part of the second seal assembly is in sealing contact with the main body so that said flow port is out of communication with the chamber, to an open position in which said part of the second seal assembly is out of sealing contact with the main body so that fluid can flow along the internal bore past the second seal assembly and so out of the apparatus through said flow port. a main body comprising an internal bore defining a flow path through the body; a mill head having at least one flow port; an internal chamber which can contain a fluid, the internal bore of the main body defining at least part of the chamber; a first seal assembly disposed within the internal bore; a second seal assembly disposed within the internal bore; and a communication port located at a position which is, in use, upstream of the second seal assembly; in which the first and second seal assemblies (16, 23) are initially sealed relative to the main body, so that fluid communication along the internal bore past the first and second seal assemblies is restricted and fluid contained in the chamber isolated from fluid external to the chamber; in which at least part of the first seal assembly is translatable within the internal bore in a direction towards the second seal assembly, to transmit fluid contained in the chamber through the communication port to a fluid operated device associated with the milling apparatus, to operate the device; and in which at least part of the second seal assembly is translatable within the internal bore from a closed position in which said part of the second seal assembly is in sealing contact with the main body so that said flow port is out of communication with the chamber, to an open position in which said part of the second seal assembly is out of sealing contact with the main body so that fluid can flow along the internal bore past the second seal assembly and so out of the apparatus through said flow port.