mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving data in a wireless communication system, the method comprising: receiving, by a wireless device, expansion subframe information indicating whether an expansion modulation scheme can be supported; receiving, by the wireless device, downlink control information that includes a modulation and coding scheme, MCS, field indicating the expansion modulation scheme on a downlink control channel, in at least one expansion subframe; and receiving, by the wireless device, downlink data on a downlink shared channel based on the downlink control information, wherein the expansion subframe supports a modulation scheme that has modulation order of 8, and non-expansion subframe, which is not the expansion subframe among a plurality of subframes, has a modulation order of less than 8, and wherein MCS tables are used to determine a modulation order used in a physical downlink shared channel, PDSCH. receiving, by a wireless device, expansion subframe information indicating whether an expansion modulation scheme can be supported; receiving, by the wireless device, downlink control information that includes a modulation and coding scheme, MCS, field indicating the expansion modulation scheme on a downlink control channel, in at least one expansion subframe; and receiving, by the wireless device, downlink data on a downlink shared channel based on the downlink control information, wherein the expansion subframe supports a modulation scheme that has modulation order of 8, and non-expansion subframe, which is not the expansion subframe among a plurality of subframes, has a modulation order of less than 8, and wherein MCS tables are used to determine a modulation order used in a physical downlink shared channel, PDSCH.
A spacer profile for use as part of a spacer profile frame, which is suitable for being mounted in and/or along an edge area of an insulating glazing unit surrounding an intervening space between glazing panes (51, 52), the spacer profile extending in a longitudinal direction (z) and having, in a cross section (x-y) perpendicular to the longitudinal direction (z), a first width in a transverse direction (x), which is perpendicular to the longitudinal direction (z), and a first height in a height direction (y), which is perpendicular to the longitudinal direction (z) and to the transverse direction (x), wherein the spacer profile comprises a profile body made of synthetic material, the profile body comprising an inner wall extending in the transverse direction (x) and being arranged to face towards the intervening space in the assembled state of the spacer profile frame, an outer wall extending parallel to the inner wall and having a second width in the transverse direction being smaller than the first width and spaced by a first distance from the inner wall in the height direction (y) smaller than the first height, side walls (24, 26) extending in the height direction and spaced by a second distance in the transverse direction (x) smaller than the first width and being connected to the inner wall at inner corner portions (32, 34), connection walls (28, 30) extending between the side walls (24, 26) and the outer wall such that a chamber is formed by the sidewalls (24, 26), the inner wall, the outer wall, and the connection walls (28, 30), and a diffusion barrier layer firmly bonded with the profile body and being made of metal material and extending, in a cross section (x-y) perpendicular to the longitudinal direction (z), in one piece on the outer surface of the outer wall, on the outer surfaces of the connection walls (28, 30) and on at least a part of the outer surfaces of the side walls (11, 12), characterized in that at least two reinforcements (36, 38; 42, 44) are provided in each of the inner corner portions (32, 34), the first reinforcement of the at least two reinforcements (36, 38; 42, 44) is made of wire (36, 38), the diffusion barrier layer comprises profiled end portions (42, 44), which are provided in the inner corner portions (32, 34), as the second reinforcement of the at least two reinforcements (36, 38, 42, 44), and each first reinforcement made of wire (36, 38) overlaps with the corresponding profiled end portion (42, 44) seen in the height direction (y) and in the transverse direction (x), such that each first reinforcement made of wire (36, 38) is enclosed by the corresponding profiled end portion (42, 44) in a direction facing away from the chamber.
A method of correlating at least one noisy analogue signal, wherein the noisy signal is one of a plurality of signals, wherein each of the plurality of signals is obtained by one of a plurality of receivers and originates from a single source; the method comprising: 1-bit quantising the noisy signal; comparing the quantised signal (In, Qn) with a quantised reference signal (ΣI, ΣQ), wherein the reference signal (lout, Qout) is a consensus signal formed by combining the plurality of signals obtained by the plurality of receivers by summing data from the plurality of receivers in order to obtain an average; and sampling the comparison signal to increment an up/down counter. 1-bit quantising the noisy signal; comparing the quantised signal (In, Qn) with a quantised reference signal (ΣI, ΣQ), wherein the reference signal (lout, Qout) is a consensus signal formed by combining the plurality of signals obtained by the plurality of receivers by summing data from the plurality of receivers in order to obtain an average; and sampling the comparison signal to increment an up/down counter.
A method of monitoring oscillations that are liable to interact in an electrical power network, in dependence on measurement of AC waveforms in the electrical power network, the method comprising: receiving first waveform data corresponding to an electrical quantity in each phase of at least two phases of three-phase AC waveforms at a location in the electrical power network; and applying a transformation to the first waveform data to provide therefrom second waveform data corresponding to an electrical quantity at the location in a single phase representation, the second waveform data depending on the at least two phases; characterized in that the method further comprises determining whether or not there is a fault condition reflected in the first waveform data comprising determining whether or not there is an asymmetric fault condition, only of an asymmetric fault condition and a symmetric fault condition. receiving first waveform data corresponding to an electrical quantity in each phase of at least two phases of three-phase AC waveforms at a location in the electrical power network; and applying a transformation to the first waveform data to provide therefrom second waveform data corresponding to an electrical quantity at the location in a single phase representation, the second waveform data depending on the at least two phases; characterized in that the method further comprises determining whether or not there is a fault condition reflected in the first waveform data comprising determining whether or not there is an asymmetric fault condition, only of an asymmetric fault condition and a symmetric fault condition.
A vane assembly (400; 500; 600) comprising: a platform (402; 502; 602); an airfoil (410; 510; 610) extending from a first side of the platform; a forward rail (404; 504; 604) extending from a second side of the platform and arranged along a forward side of the platform; an aft rail (406; 506; 606) extending from the second side of the platform and arranged along an aft side of the platform; at least one support beam (420; 512; 614a, 614b) extending in a forward-aft direction between the forward rail and the aft rail and separated from the platform by a first distance, wherein the at least one support beam has a thickness (T 1) in a radial direction of 40% or less of a total radial extent (T 2) from the platform to an outer diameter edge of at least one of the forward rail and the aft rail, and characterized in that the at least one support beam has a thickness (D 1 a, D 1b) in a circumferential direction of 30% or less of a total circumferential extent (D 2) of the vane assembly, to define an unobstructed space (A 2) to permit a cooling flow to flow into the vane assembly in a radial direction to provide cooling to the platform (402; 502; 602), the forward rail (404; 504; 604) and the aft rail (406; 506; 606). a platform (402; 502; 602); an airfoil (410; 510; 610) extending from a first side of the platform; a forward rail (404; 504; 604) extending from a second side of the platform and arranged along a forward side of the platform; an aft rail (406; 506; 606) extending from the second side of the platform and arranged along an aft side of the platform; at least one support beam (420; 512; 614a, 614b) extending in a forward-aft direction between the forward rail and the aft rail and separated from the platform by a first distance, wherein the at least one support beam has a thickness (T 1) in a radial direction of 40% or less of a total radial extent (T 2) from the platform to an outer diameter edge of at least one of the forward rail and the aft rail, and characterized in that the at least one support beam has a thickness (D 1 a, D 1b) in a circumferential direction of 30% or less of a total circumferential extent (D 2) of the vane assembly, to define an unobstructed space (A 2) to permit a cooling flow to flow into the vane assembly in a radial direction to provide cooling to the platform (402; 502; 602), the forward rail (404; 504; 604) and the aft rail (406; 506; 606).
A device for amending handwritten characters, the device comprising: a user input unit configured to receive a user input of handwritten characters; a processor configured to: recognize the input as handwritten characters; determine respective reference points of the recognized handwritten characters; and align the recognized handwritten characters based on locations of the determined reference points; and a display configured to display the aligned handwritten characters; characterized in that the processor is configured to: determine a font corresponding to the recognized handwritten characters; determine electronic characters that have the determined font and have the same character values as the recognized handwritten characters; acquire an array of reference points of the electronic characters by lining up the electronic characters; and align the recognized handwritten characters by changing their locations such that an array of their reference points is identical with an array of the reference points of the lined up electronic characters. a user input unit configured to receive a user input of handwritten characters; a processor configured to: recognize the input as handwritten characters; determine respective reference points of the recognized handwritten characters; and align the recognized handwritten characters based on locations of the determined reference points; and recognize the input as handwritten characters; determine respective reference points of the recognized handwritten characters; and align the recognized handwritten characters based on locations of the determined reference points; and a display configured to display the aligned handwritten characters; characterized in that the processor is configured to: determine a font corresponding to the recognized handwritten characters; determine electronic characters that have the determined font and have the same character values as the recognized handwritten characters; acquire an array of reference points of the electronic characters by lining up the electronic characters; and align the recognized handwritten characters by changing their locations such that an array of their reference points is identical with an array of the reference points of the lined up electronic characters. determine a font corresponding to the recognized handwritten characters; determine electronic characters that have the determined font and have the same character values as the recognized handwritten characters; acquire an array of reference points of the electronic characters by lining up the electronic characters; and align the recognized handwritten characters by changing their locations such that an array of their reference points is identical with an array of the reference points of the lined up electronic characters.
Switch cabinet key having a central main body from which a plurality of key arms (3, 4, 5, 6) project radially, at the radial outer ends of which tool heads are formed, wherein at least one tool head (31, 41, 51, 61) is formed as a socket key, in which the tool head has a first drive profile for loosening and fastening a fastening means, e.g. a lock, a nut, a screw or the like, which extends in a primary key arm tool plane of the respective key arm (3, 4, 5, 6), wherein a second drive profile is formed on the tool head, which second drive profile is different from the first drive profile, wherein the second drive profile is formed so as to be proximally linearly offset from the main body in a secondary key arm tool plane, wherein the second drive profile is additionally axially offset from the first drive profile, wherein at least the corners of the second drive profile are partially formed in the primary key arm tool plane to form pre-engagement surfaces, wherein the second drive profile is smaller than the first drive profile, and wherein at least one of the key arms has an outside key surface for engaging an open-end wrench. characterised in that the switch cabinet key has a length of 55 or 65 mm from the outer end of a first key arm to the outer end of the opposite key arm and that at least one of the key arms has an outside key surface for engaging an open-end wrench. wherein the second drive profile is additionally axially offset from the first drive profile, wherein at least the corners of the second drive profile are partially formed in the primary key arm tool plane to form pre-engagement surfaces, wherein the second drive profile is smaller than the first drive profile, and wherein at least one of the key arms has an outside key surface for engaging an open-end wrench. characterised in that the switch cabinet key has a length of 55 or 65 mm from the outer end of a first key arm to the outer end of the opposite key arm and that at least one of the key arms has an outside key surface for engaging an open-end wrench.
Galois-field reduction circuitry for reducing a Galois-field expansion value using an irreducible polynomial, the Galois-field reduction circuitry comprising: a plurality of memories, each for storing a respective value derived from said irreducible polynomial and a respective combination of expansion bit values, wherein expansion bits of said expansion value address said plurality of memories to output one or more of said respective values, and wherein different ranges of said expansion bits address different ones of said plurality of memories to output a plurality of said respective values; and exclusive-OR circuitry (208, 404-407) for combining output of said plurality of memories with in-field bits of said expansion value, comprising: first exclusive-OR circuitry for combining said plurality of said respective values with each other, and second exclusive-OR circuitry for combining output of said first exclusive-OR circuitry with said in-field bits of said expansion value. a plurality of memories, each for storing a respective value derived from said irreducible polynomial and a respective combination of expansion bit values, wherein expansion bits of said expansion value address said plurality of memories to output one or more of said respective values, and wherein different ranges of said expansion bits address different ones of said plurality of memories to output a plurality of said respective values; and exclusive-OR circuitry (208, 404-407) for combining output of said plurality of memories with in-field bits of said expansion value, comprising: first exclusive-OR circuitry for combining said plurality of said respective values with each other, and second exclusive-OR circuitry for combining output of said first exclusive-OR circuitry with said in-field bits of said expansion value. first exclusive-OR circuitry for combining said plurality of said respective values with each other, and second exclusive-OR circuitry for combining output of said first exclusive-OR circuitry with said in-field bits of said expansion value.
A method, comprising: amplifying a nucleic acid sequence of interest in a sample comprising genomic DNA of a subject; amplifying a reference sequence in the sample, wherein the reference sequence has at least 80% sequence identity to at least one portion of genomic DNA comprising from about 60 to about 150 base pairs of any of SEQ ID NOs 2-8, or wherein the reference sequence comprises 60-150 base pairs of SEQ ID NO 1, wherein the at least one portion is present in at least a first minimum number of copies in the genome; and at least one copy of the at least one portion is present on each of at least a second minimum number of chromosomes; quantifying the amplified sequence of interest relative to the amplified reference sequence; and determining a copy number of the sequence of interest from the relative quantified amplified sequence of interest, wherein amplifying the sequence of interest and amplifying the reference sequence are performed by TaqMan quantitative polymerase chain reaction (qPCR). amplifying a nucleic acid sequence of interest in a sample comprising genomic DNA of a subject; amplifying a reference sequence in the sample, wherein the reference sequence has at least 80% sequence identity to at least one portion of genomic DNA comprising from about 60 to about 150 base pairs of any of SEQ ID NOs 2-8, or wherein the reference sequence comprises 60-150 base pairs of SEQ ID NO 1, wherein the at least one portion is present in at least a first minimum number of copies in the genome; and at least one copy of the at least one portion is present on each of at least a second minimum number of chromosomes; quantifying the amplified sequence of interest relative to the amplified reference sequence; and determining a copy number of the sequence of interest from the relative quantified amplified sequence of interest, wherein amplifying the sequence of interest and amplifying the reference sequence are performed by TaqMan quantitative polymerase chain reaction (qPCR).
Method for controlling a motor vehicle, wherein the control is carried out with the participation of at least one driver assistance system (3a, 3b, 3c), wherein the participation of at least part of the at least one driver assistance system (3a, 3b, 3c) in the control of the motor vehicle is switched off or changed by the driver activating an activation means which is provided in and/or on the motor vehicle and communicates with the at least one driver assistance system, characterized in that the activation of the activation means takes the form of a movement of the steering wheel which is different from the steering movement, wherein for this purpose a non-startling change in the pressure is detected at the pressure-sensitive steering wheel by means of a capacitively operating sensor.
A monitoring device for a semiconductor component for an automobile appliance under high current and/or voltage, said semiconductor component having a light emitting surface and emitting photons at the light emitting surface when biased or reverse-biased, by way of electroluminescence or photoluminescence, in an amount depending on a temperature of and/or a current through the semiconductor component and/or its gate voltage, wherein the semiconductor component comprises particularly silicon carbide, the monitoring device including a light pipe insert having a light receiving end and a light emitting end, the light pipe insert being formed and placed to receive photoluminescence light or electroluminescence light from the semiconductor component through a light receiving surface formed at the light receiving end to face at least part of the light emitting surface of the semi-conductor component, and to conduct the received light to the light emitting end for detecting the temperature of the semiconductor component and/or a current through the semiconductor component and/or a gate voltage of the semiconductor component through an optical sensor configured to be coupled to the light emitting end of the light pipe insert, characterised in that the light pipe insert comprises a light pipe body having a foot section at the light receiving end and a shaft section extending from the foot section to the light emitting end, and wherein the light pipe body is a solid monolithic body made of a transparent material such as a transparent polymer or a typical glass.
A ventilation system (1, 100), the ventilation system comprising: a processor communicably coupled to a computer readable medium, wherein the computer readable medium includes instructions executable by the processor to: receive a pressure in a tube of the system; receive an inlet flow (70, 105, 110); receive an outlet flow (75, 115); calculate a net flow based on the inlet flow and the outlet flow; determine a first value related to the pressure, determine a second value related to the net flow, determine a third value related to patient effort, wherein the third value related to patient effort is an interim value (55, 60) determined from the received pressure and the calculated net flow; calculate a prediction of patient effort (55, 60, 195) using a relationship among the first through third values; update the third value (55, 60) based on the prediction of the patient effort, wherein the third value is a composite value that does not directly correspond to any identifiable respiratory parameter; and initiate a ventilation cycle based at least in part on the predicted patient effort. a processor communicably coupled to a computer readable medium, wherein the computer readable medium includes instructions executable by the processor to: receive a pressure in a tube of the system; receive an inlet flow (70, 105, 110); receive an outlet flow (75, 115); calculate a net flow based on the inlet flow and the outlet flow; determine a first value related to the pressure, determine a second value related to the net flow, determine a third value related to patient effort, wherein the third value related to patient effort is an interim value (55, 60) determined from the received pressure and the calculated net flow; calculate a prediction of patient effort (55, 60, 195) using a relationship among the first through third values; update the third value (55, 60) based on the prediction of the patient effort, wherein the third value is a composite value that does not directly correspond to any identifiable respiratory parameter; and initiate a ventilation cycle based at least in part on the predicted patient effort.