mhurhangee/ep-ind-claims huggingface dataset:
A method for managing a plurality of network bearers of a packet data network gateway, PGW, in a wireless communication network, the method comprising: receiving a first indicator, from a policy and charging rules function, PCRF, entity, associated with an application session corresponding to a video call, wherein the first indicator indicates that video single radio voice call continuity, vSRVCC, is allowed for a flow corresponding to a video component of the video call; and transmitting a first message including a second indicator to be used during handover from a first network to a second network according to the first indicator received from the PCRF entity, to a serving gateway, SGW. receiving a first indicator, from a policy and charging rules function, PCRF, entity, associated with an application session corresponding to a video call, wherein the first indicator indicates that video single radio voice call continuity, vSRVCC, is allowed for a flow corresponding to a video component of the video call; and transmitting a first message including a second indicator to be used during handover from a first network to a second network according to the first indicator received from the PCRF entity, to a serving gateway, SGW.
A method performed by a terminal in a communication system, the method comprising: determining a reference subcarrier spacing; receiving, from a base station, physical random access channel, PRACH, configuration information including a PRACH configuration index; determining time resources of a random access preamble based on the reference subcarrier spacing and the PRACH configuration information; and transmitting, to the base station, the random access preamble based on the time resources; wherein the time resources, in which the random access preamble is to be transmitted, are determined based on the reference subcarrier spacing and the PRACH configuration index. determining a reference subcarrier spacing; receiving, from a base station, physical random access channel, PRACH, configuration information including a PRACH configuration index; determining time resources of a random access preamble based on the reference subcarrier spacing and the PRACH configuration information; and transmitting, to the base station, the random access preamble based on the time resources; wherein the time resources, in which the random access preamble is to be transmitted, are determined based on the reference subcarrier spacing and the PRACH configuration index.
A method comprising: examining a feeder current obtained via a converter current sensor of a regenerative drive during a peak power condition; and regulating a speed of an elevator based on the feeder current, the method being characterized in that it comprises the steps of comparing the feeder current to a nominal peak current threshold for a given AC line voltage; and reducing the speed of the elevator when the feeder current exceeds the threshold without increasing a motor current associated with a motor of the elevator. examining a feeder current obtained via a converter current sensor of a regenerative drive during a peak power condition; and regulating a speed of an elevator based on the feeder current, the method being characterized in that it comprises the steps of comparing the feeder current to a nominal peak current threshold for a given AC line voltage; and reducing the speed of the elevator when the feeder current exceeds the threshold without increasing a motor current associated with a motor of the elevator.
An image processing device comprising: a character recognition unit configured to obtain a plurality of character codes corresponding to a plurality of character images by executing a character recognition processing for the plurality of character images in a document image obtained from a scanner unit; and a generation unit configured to generate an electronic document, in which the document image, the plurality of character codes obtained by the character recognition unit, and a plurality of kinds of glyph data are stored, wherein each kind of glyph data specifies one simple shape which is used for highlighting a character string of a search keyword of a keyword search, and is at least any one of a rectangular shape, an underlined shape, and a shape of a wavy line, a dotted line, a triangle, a circle or a quadrangle, and wherein a search unit (102, 111) performs the keyword search with the search keyword with respect to the generated electronic document, and highlights the character string of the search keyword using one kind of glyph data selected from the plurality of kinds of glyph data stored in the electronic document, wherein one simple shape of the selected kind of glyph data is utilized in common with respect to all of the plurality of different character codes in the character string of the search keyword, when drawing characters corresponding to the plurality of different character codes, which are coincident with the character string of the search keyword. a character recognition unit configured to obtain a plurality of character codes corresponding to a plurality of character images by executing a character recognition processing for the plurality of character images in a document image obtained from a scanner unit; and a generation unit configured to generate an electronic document, in which the document image, the plurality of character codes obtained by the character recognition unit, and a plurality of kinds of glyph data are stored, wherein each kind of glyph data specifies one simple shape which is used for highlighting a character string of a search keyword of a keyword search, and is at least any one of a rectangular shape, an underlined shape, and a shape of a wavy line, a dotted line, a triangle, a circle or a quadrangle, and wherein a search unit (102, 111) performs the keyword search with the search keyword with respect to the generated electronic document, and highlights the character string of the search keyword using one kind of glyph data selected from the plurality of kinds of glyph data stored in the electronic document, wherein one simple shape of the selected kind of glyph data is utilized in common with respect to all of the plurality of different character codes in the character string of the search keyword, when drawing characters corresponding to the plurality of different character codes, which are coincident with the character string of the search keyword.
A flag actuation system for a lighting fixture, the flag actuation system defining an optical path through the flag actuation system, and the flag actuation system comprising: - an actuator, - an actuator axle connected to and drivable by the actuator, and - at least two flags (13a, 13b, 13c), each flag (13a, 13b, 13c) being movable between a first position in which the flag (13a, 13b, 13c) is arranged in the optical path, and a second position in which the flag (13a, 13b, 13c) is arranged out of the optical path, characterized in that each flag (13a, 13b, 13c) is individually and detachably connectable to the actuator axle via a magnetic actuator connection, and each flag (13a, 13b, 13c) is retainable in the first position by means of a first magnetic retaining connection and in the second position by means of a second magnetic retaining connection. - an actuator, - an actuator axle connected to and drivable by the actuator, and - at least two flags (13a, 13b, 13c), each flag (13a, 13b, 13c) being movable between a first position in which the flag (13a, 13b, 13c) is arranged in the optical path, and a second position in which the flag (13a, 13b, 13c) is arranged out of the optical path,
A shoe portion comprising: a first layer of heat resistant material; and a second layer beneath the first layer and made at least in part of a material having a low thermal conductivity and including plural channels, the channels separated from one another and creating air space therein, the plural channels being on one of a first and second surfaces of the second layer, characterized in that the first surface of the second layer is an unbroken, continuous surface; and the first and second layers form a portion of an outsole of a shoe, the outsole including an upper layer having an unbroken surface, and a lower layer having an unbroken surface spaced from the upper layer and forming a cavity therebetween, the first and second layers received in the cavity. a first layer of heat resistant material; and a second layer beneath the first layer and made at least in part of a material having a low thermal conductivity and including plural channels, the channels separated from one another and creating air space therein, the plural channels being on one of a first and second surfaces of the second layer, characterized in that the first surface of the second layer is an unbroken, continuous surface; and the first and second layers form a portion of an outsole of a shoe, the outsole including an upper layer having an unbroken surface, and a lower layer having an unbroken surface spaced from the upper layer and forming a cavity therebetween, the first and second layers received in the cavity.
A lighting device comprising: a substrate; a plurality of light emitting devices (101, 103) disposed on the substrate; a first reflective layer disposed on the substrate; a resin layer disposed on the first reflective layer; and a second reflective layer disposed on the resin layer, wherein the resin layer includes a first surface from which light emitted from the plurality of light emitting devices is emitted, and a second surface opposite to the first surface, characterized in that the first surface of the resin layer includes a first exit surface having a first curvature, and a second exit surface having a second curvature, wherein a maximum distance from the second surface to the first exit surface is greater than a maximum distance from the second surface to the second exit surface, wherein the plurality of light emitting devices includes a plurality of first light emitting devices disposed in a first row and a plurality of second light emitting devices disposed in a second row, wherein the first exit surface of the resin layer includes a first convex surface facing to the plurality of first light emitting devices, and the second exit surface includes a second convex surface facing to the plurality of second light emitting devices, wherein a size of the first curvature and a size of the second curvature are different from each other. a substrate; a plurality of light emitting devices (101, 103) disposed on the substrate; a first reflective layer disposed on the substrate; a resin layer disposed on the first reflective layer; and a second reflective layer disposed on the resin layer, wherein the resin layer includes a first surface from which light emitted from the plurality of light emitting devices is emitted, and a second surface opposite to the first surface, characterized in that the first surface of the resin layer includes a first exit surface having a first curvature, and a second exit surface having a second curvature, wherein a maximum distance from the second surface to the first exit surface is greater than a maximum distance from the second surface to the second exit surface, wherein the plurality of light emitting devices includes a plurality of first light emitting devices disposed in a first row and a plurality of second light emitting devices disposed in a second row, wherein the first exit surface of the resin layer includes a first convex surface facing to the plurality of first light emitting devices, and the second exit surface includes a second convex surface facing to the plurality of second light emitting devices, wherein a size of the first curvature and a size of the second curvature are different from each other.
An anti-icing system, comprising: a piccolo tube that includes a flow path through which heated gas can flow in a longitudinal direction from a rear end to a front end, and a plurality of ejection holes provided along the longitudinal direction to make the flow path communicate with an outside; and a supply source that is configured to supply the heated gas toward the piccolo tube, wherein the piccolo tube is formed such that an opening area (A12,A13,A14) of the flow path decreases in a stepwise manner in the longitudinal direction, and such that it has a side surface provided with the ejection holes so that distances from respective ejection holes to a surface subjected to ejection of the heated gas are equal to one another, and wherein the piccolo tube is configured of a plurality of tubes (12,13,14) that are connected with one another in the longitudinal direction while center axes (C12,C13,C14) of the respective tubes (12,13,14) are eccentric to one another, the tubes (12,13,14) having different inner diameters (d12,d13,d14) and different outer diameters (D12,D13,D14) from one another. a piccolo tube that includes a flow path through which heated gas can flow in a longitudinal direction from a rear end to a front end, and a plurality of ejection holes provided along the longitudinal direction to make the flow path communicate with an outside; and a supply source that is configured to supply the heated gas toward the piccolo tube, wherein the piccolo tube is formed such that an opening area (A12,A13,A14) of the flow path decreases in a stepwise manner in the longitudinal direction, and such that it has a side surface provided with the ejection holes so that distances from respective ejection holes to a surface subjected to ejection of the heated gas are equal to one another, and wherein the piccolo tube is configured of a plurality of tubes (12,13,14) that are connected with one another in the longitudinal direction while center axes (C12,C13,C14) of the respective tubes (12,13,14) are eccentric to one another, the tubes (12,13,14) having different inner diameters (d12,d13,d14) and different outer diameters (D12,D13,D14) from one another.
A method for determining flame blow-off conditions in a combustor, comprising: selecting a plurality of cells from a region within said combustor; obtaining a plurality of Damköhler numbers in accordance with detailed combustion chemistry and detailed flow dynamics associated with each of said plurality of cells; providing an output representation associated with said Damköhler numbers; and determining flame blow-off conditions in accordance with said output representation, wherein each of said Damköhler numbers is obtained by dividing a chemical time by a residence time associated with each cell, characterized in that, said residence time is selected in accordance with at least one of a mean flow residence-time value or a turbulent flow residence timescale value associated with a cell, wherein said residence time is selected to be the minimum of said mean flow residence-time value and said turbulent flow residence timescale value. selecting a plurality of cells from a region within said combustor; obtaining a plurality of Damköhler numbers in accordance with detailed combustion chemistry and detailed flow dynamics associated with each of said plurality of cells; providing an output representation associated with said Damköhler numbers; and determining flame blow-off conditions in accordance with said output representation, wherein each of said Damköhler numbers is obtained by dividing a chemical time by a residence time associated with each cell, characterized in that, said residence time is selected in accordance with at least one of a mean flow residence-time value or a turbulent flow residence timescale value associated with a cell, wherein said residence time is selected to be the minimum of said mean flow residence-time value and said turbulent flow residence timescale value.
A computer implemented method, comprising: obtaining angular spectral data for a target coating from a spectrophotometer; identifying, using a processor, a texture type in the target coating from multiple qualitative nominal or ordinal categories, wherein identifying comprises applying a Bayesian process employing a Bayesian system with multiple decisions points making use of the obtained spectral data comprising: i) determining if the target coating contain effect pigments or if only solid pigments are present by utilizing decision points which consider chroma, lightness and hue as derived from the spectral data obtained from the target coating, and ii) determining, if effect pigments are present, coarseness and optionally sparkle categories of the target coating by utilizing decision points which consider the angular spectral data obtained from the target coating; and assigning, using the processor, based on the determined coarseness and sparkle categories, a single texture value to the target coating; using the assigned texture value for searching a coating matching to the target coating in a database by a search engine or for formulating a coating that matches the target coating by a formulation engine. obtaining angular spectral data for a target coating from a spectrophotometer; identifying, using a processor, a texture type in the target coating from multiple qualitative nominal or ordinal categories, wherein identifying comprises applying a Bayesian process employing a Bayesian system with multiple decisions points making use of the obtained spectral data comprising: i) determining if the target coating contain effect pigments or if only solid pigments are present by utilizing decision points which consider chroma, lightness and hue as derived from the spectral data obtained from the target coating, and ii) determining, if effect pigments are present, coarseness and optionally sparkle categories of the target coating by utilizing decision points which consider the angular spectral data obtained from the target coating; and i) determining if the target coating contain effect pigments or if only solid pigments are present by utilizing decision points which consider chroma, lightness and hue as derived from the spectral data obtained from the target coating, and ii) determining, if effect pigments are present, coarseness and optionally sparkle categories of the target coating by utilizing decision points which consider the angular spectral data obtained from the target coating; and assigning, using the processor, based on the determined coarseness and sparkle categories, a single texture value to the target coating; using the assigned texture value for searching a coating matching to the target coating in a database by a search engine or for formulating a coating that matches the target coating by a formulation engine.
A user identification device (400, 500) using radio-frequency,RF, radar, the user identification device (400, 500) comprising: a transmitter (103, 410) for transmitting RF signals into a body part of a user; a receiver (104, 420) for receiving the RF signals transmitted from the transmitter (103, 410) and having passed through the body part of the user; a memory (106, 440) for storing parameters of a classification algorithm trained with the RF signals having passed through the body part of the user; and a processor (107, 430) for identifying the user by analyzing the received RF signals based on the trained classification algorithm by using the parameters in response to receiving the RF signals having passed through the body part, through the receiver (104, 420); wherein the processor (107, 430) is configured to: scatter the RF signals into the body part of the user, through the transmitter (103, 410); obtain the parameters by training the classification algorithm with the RF signals when the RF signals, having passed through the body part of the user, are received through the receiver (104, 420); and store the obtained parameters in the memory (106, 440). a transmitter (103, 410) for transmitting RF signals into a body part of a user; a receiver (104, 420) for receiving the RF signals transmitted from the transmitter (103, 410) and having passed through the body part of the user; a memory (106, 440) for storing parameters of a classification algorithm trained with the RF signals having passed through the body part of the user; and a processor (107, 430) for identifying the user by analyzing the received RF signals based on the trained classification algorithm by using the parameters in response to receiving the RF signals having passed through the body part, through the receiver (104, 420); wherein the processor (107, 430) is configured to: scatter the RF signals into the body part of the user, through the transmitter (103, 410); obtain the parameters by training the classification algorithm with the RF signals when the RF signals, having passed through the body part of the user, are received through the receiver (104, 420); and store the obtained parameters in the memory (106, 440). scatter the RF signals into the body part of the user, through the transmitter (103, 410); obtain the parameters by training the classification algorithm with the RF signals when the RF signals, having passed through the body part of the user, are received through the receiver (104, 420); and store the obtained parameters in the memory (106, 440).
A denitrification biofilter device, comprising: a) a regulating pool, the regulating pool comprising a raw water inlet and a water outlet; b) a reactor body, the reactor body comprising a uniform water distributor, a filler layer, a buffer layer, a filter layer, a supporting layer, a filler supporting plate, a backwash water outlet, a treated water outlet, and a backwash water inlet; c) a water tank; d) a first doser, the first doser comprising a dosing tube; e) a second doser; f) a backwash pump; g) a water inlet pump; and h) a blower; wherein the dosing tube is extended into the regulating pool; the water outlet of the regulating pool is connected to the water inlet pump and a top of the reactor body via pipes; the reactor body is in a cylinder structure; the uniform water distributor, the filler layer, the buffer layer, the filter layer, and the supporting layer are disposed inside the reactor body from top to bottom; the filler supporting plate is disposed between the filler layer and the buffer layer; a plurality of curved holes is disposed at a periphery of the filler supporting plate; the backwash water outlet is disposed on a sidewall of the buffer layer; the treated water outlet and the backwash water inlet are disposed at a bottom of the reactor body and are connected to the water tank via pipes, respectively; the backwash pump is disposed on a pipe between the backwash water inlet and the water tank; the second doser is connected to the sidewall of the buffer layer via a pipe; the buffer layer is empty; and the filler layer is filled with zeolites having a grain size of between 4 and 8 mm, a density of between 1.9 and 2.6 g/cm 3, a porosity of more than or equal to 48%, and a specific surface area of between 570 and 670 m 2 /g. a) a regulating pool, the regulating pool comprising a raw water inlet and a water outlet; b) a reactor body, the reactor body comprising a uniform water distributor, a filler layer, a buffer layer, a filter layer, a supporting layer, a filler supporting plate, a backwash water outlet, a treated water outlet, and a backwash water inlet; c) a water tank; d) a first doser, the first doser comprising a dosing tube; e) a second doser; f) a backwash pump; g) a water inlet pump; and h) a blower;