mhurhangee/ep-ind-claims huggingface dataset:
A tank comprising a support assembly mounted on the roof of said tank, the support assembly comprising a support block and guiding brackets or rails Joined to a structure above the tank, each of the brackets or rails comprise a face turned towards a cooperating face of the support block, characterized in that the face of the bracket or rail and the cooperating face of the support block are inclined at a substantially similar angle depending on the width and height of the support, and that the support assembly has a base plate between the support block and the tank, said base plate being secured to the roof of the tank by a rib which is an integral part of the roof of the tank and formed by extrusion or rolling.
A method comprising: combining signals from a plurality of sensing lines of a grid based digitizer sensor based on matrix multiplication with a Hadamard Matrix, wherein the combining provides a plurality of signal combinations; sampling each of the plurality of signal combinations with a different Analog to Digital Converters, ADC, in a group of ADCs, wherein the sampling is performed simultaneously; post processing sampled outputs from the group of ADCs, wherein the post processing includes multiplying an inverse of the Hadamard Matrix with the sampled outputs from the group of ADCs; and detecting presence of an object interacting with the grid based digitizer sensor based on the post processing. combining signals from a plurality of sensing lines of a grid based digitizer sensor based on matrix multiplication with a Hadamard Matrix, wherein the combining provides a plurality of signal combinations; sampling each of the plurality of signal combinations with a different Analog to Digital Converters, ADC, in a group of ADCs, wherein the sampling is performed simultaneously; post processing sampled outputs from the group of ADCs, wherein the post processing includes multiplying an inverse of the Hadamard Matrix with the sampled outputs from the group of ADCs; and detecting presence of an object interacting with the grid based digitizer sensor based on the post processing.
An indoor gunshot detection system comprising: indoor sensors arranged to detect gunfire in a series of enclosed spaces having significant acoustic reverberation; wherein the sensors are constructed with IR detectors and with microphones designed to detect strong impulses preferably having amplitudes between 120 dB and 160 dB from nearby gunfire; one or more processing components and/or computer readable media configured to process potential gunshot data utilizing knowledge of particular sensor positions and designed to: analyze impulses received by the indoor sensors by classifying the shape or amplitude of the acoustic and IR impulses as consistent with known weapon or firework characteristics, determine whether or not the received impulses from the sensors with the IR detectors and microphone are gunfire, pass a detection of the gunfire to a communications network having knowledge of particular sensor locations, and pass alerts to at least one of local authorities, persons at risk, or a central alert facility; and at least one networking component constructed and arranged to transmit communications between the indoor acoustic sensors, the processing components and/or computer readable media, and computing devices that receive the alerts. indoor sensors arranged to detect gunfire in a series of enclosed spaces having significant acoustic reverberation; wherein the sensors are constructed with IR detectors and with microphones designed to detect strong impulses preferably having amplitudes between 120 dB and 160 dB from nearby gunfire; one or more processing components and/or computer readable media configured to process potential gunshot data utilizing knowledge of particular sensor positions and designed to: analyze impulses received by the indoor sensors by classifying the shape or amplitude of the acoustic and IR impulses as consistent with known weapon or firework characteristics, determine whether or not the received impulses from the sensors with the IR detectors and microphone are gunfire, pass a detection of the gunfire to a communications network having knowledge of particular sensor locations, and pass alerts to at least one of local authorities, persons at risk, or a central alert facility; and analyze impulses received by the indoor sensors by classifying the shape or amplitude of the acoustic and IR impulses as consistent with known weapon or firework characteristics, determine whether or not the received impulses from the sensors with the IR detectors and microphone are gunfire, pass a detection of the gunfire to a communications network having knowledge of particular sensor locations, and pass alerts to at least one of local authorities, persons at risk, or a central alert facility; and at least one networking component constructed and arranged to transmit communications between the indoor acoustic sensors, the processing components and/or computer readable media, and computing devices that receive the alerts.
A pharmaceutical composition, comprising: eicosapentaenoic acid (omega-3), in free acid form, in an amount of 50% (m/m) to 60% (m/m); docosahexaenoic acid (omega-3), in free acid form, in an amount of 17% (m/m) to 23% (m/m); and docosapentaenoic acid (omega-3), in free acid form, in an amount of no less than 1% (m/m); where m/m denotes percentage by weight of all fatty acids in the composition. eicosapentaenoic acid (omega-3), in free acid form, in an amount of 50% (m/m) to 60% (m/m); docosahexaenoic acid (omega-3), in free acid form, in an amount of 17% (m/m) to 23% (m/m); and docosapentaenoic acid (omega-3), in free acid form, in an amount of no less than 1% (m/m); where m/m denotes percentage by weight of all fatty acids in the composition.
A method for analyzing MSI status of a colorectal, endometrial, or gastric cancer by analyzing MSI loci in a biological sample, the method comprising the step of: - determining the number of nucleotides in the following homopolymeric repeats as mapped to GRCh38/hg38 human reference genome: homopolymeric repeat comprising 11 consecutive adenines localized to human DIDO1 gene and starting at position chr20:62,905,340; homopolymeric repeat comprising 11 consecutive adenines localized to human MRE11 gene and starting at position chr11:94,479,765; homopolymeric repeat comprising 10 consecutive adenines localized to human SULF2 gene and starting at position chr20:47,657,577; and homopolymeric repeat comprising 8 consecutive adenines localized to human ACVR2A gene and starting at position chr2:147,926,117. - determining the number of nucleotides in the following homopolymeric repeats as mapped to GRCh38/hg38 human reference genome: homopolymeric repeat comprising 11 consecutive adenines localized to human DIDO1 gene and starting at position chr20:62,905,340; homopolymeric repeat comprising 11 consecutive adenines localized to human MRE11 gene and starting at position chr11:94,479,765; homopolymeric repeat comprising 10 consecutive adenines localized to human SULF2 gene and starting at position chr20:47,657,577; and homopolymeric repeat comprising 8 consecutive adenines localized to human ACVR2A gene and starting at position chr2:147,926,117. homopolymeric repeat comprising 11 consecutive adenines localized to human DIDO1 gene and starting at position chr20:62,905,340; homopolymeric repeat comprising 11 consecutive adenines localized to human MRE11 gene and starting at position chr11:94,479,765; homopolymeric repeat comprising 10 consecutive adenines localized to human SULF2 gene and starting at position chr20:47,657,577; and homopolymeric repeat comprising 8 consecutive adenines localized to human ACVR2A gene and starting at position chr2:147,926,117.
Method for determining a transmission rate at which data packets are sent wirelessly from a transmitter to a receiver, wherein the transmitter is a traffic infrastructure object or a vehicle, wherein the method comprises the following steps: estimating a signal quality of a data packet which is transmitted wirelessly from the transmitter to a receiver, estimating the probability of receiving the data packet on the basis of the estimated signal quality; and determining the transmission rate depending on a predetermined target reception probability and the determined reception probability, wherein the transmission rate f is determined with the following equation: ƒ = log 1 − P Y log 1 − P r wherein f corresponds to the transmission rate per second, wherein P y corresponds to the target reception probability, and wherein P r corresponds to the estimated reception probability. wherein the transmitter is a traffic infrastructure object or a vehicle, wherein the method comprises the following steps: estimating a signal quality of a data packet which is transmitted wirelessly from the transmitter to a receiver, estimating the probability of receiving the data packet on the basis of the estimated signal quality; and determining the transmission rate depending on a predetermined target reception probability and the determined reception probability, wherein the transmission rate f is determined with the following equation: ƒ = log 1 − P Y log 1 − P r estimating a signal quality of a data packet which is transmitted wirelessly from the transmitter to a receiver, estimating the probability of receiving the data packet on the basis of the estimated signal quality; and determining the transmission rate depending on a predetermined target reception probability and the determined reception probability, wherein the transmission rate f is determined with the following equation: ƒ = log 1 − P Y log 1 − P r wherein f corresponds to the transmission rate per second, wherein P y corresponds to the target reception probability, and wherein P r corresponds to the estimated reception probability.
A substantially cylindrical tool body having a rotational axis, the tool body comprising: a spiral groove formed so as to extend from a base end side of the tool body to a leading end side in a peripheral surface of the tool body; and a plurality of insert seats formed so as to be shifted from each other from the base end side toward the leading end side along the spiral groove, wherein the insert seats each comprise a bottom surface, a first side surface that intersects with the bottom surface and faces the base end side of the tool body, and a second side surface that intersects with the bottom surface and faces the leading end side of the tool body, the second side surface being located on the base end side with respect to the first side surface, and wherein, in at least one insert seat located closer to the base end side with respect to an insert seat located closest to the leading end side of the tool body, a length of the first side surface is longer than a length of the second side surface, characterised in that, in the insert seat located closest to the leading end side of the tool body, the length of the second side surface is longer than the length of the first side surface. a spiral groove formed so as to extend from a base end side of the tool body to a leading end side in a peripheral surface of the tool body; and a plurality of insert seats formed so as to be shifted from each other from the base end side toward the leading end side along the spiral groove, wherein the insert seats each comprise a bottom surface, a first side surface that intersects with the bottom surface and faces the base end side of the tool body, and a second side surface that intersects with the bottom surface and faces the leading end side of the tool body, the second side surface being located on the base end side with respect to the first side surface, and wherein, in at least one insert seat located closer to the base end side with respect to an insert seat located closest to the leading end side of the tool body, a length of the first side surface is longer than a length of the second side surface, characterised in that, in the insert seat located closest to the leading end side of the tool body, the length of the second side surface is longer than the length of the first side surface.
A memory chip, comprising: a plurality of memory banks, each memory bank having a bank controller, characterized in that each memory bank comprises a plurality of memory sub-banks (1170a, 1170b, 1170c), each memory sub-bank having a sub-bank row decoder (1230a, 1230b) and a sub-bank column decoder (1250a, 1250b) for allowing reads and writes to locations on the memory sub-bank, each memory sub-bank (1170a, 1170b, 1170c) comprising: a plurality of memory mats (1190a-1- 1190a-x; 1190b-1-1190b-2, 1190b-x; 1190c-1-1190c-x), each memory mat (1190a-1- 1190a-x; 1190b-1-1190b-2, 1190b-x; 1190c-1-1190c-x) having a plurality of memory cells (1260a-1-1260a-x; 1260b-1-1260b-x) and a mat row decoder and a mat column decoder, wherein the sub-bank row decoders (1230a, 1230b) and the sub-bank column decoders (1250a, 1250b) are configured to receive read and write requests from the bank controller and process read and write requests received from the bank controller and the mat row decoders and mat column decoders process read and write requests from the sub-bank row decoders and the sub-bank column decoders respectively.
Optical unit conducive to equipping a vehicle and comprising at least first and second lighting devices respectively comprising at least one first photon source and at least one second photon source, said optical unit further comprising i) a first reflector conducive to transferring photons delivered by each first source to a front face, ii) a second reflector placed in front of a chosen part of said first reflector and conducive to transferring photons delivered by each second source to said front face, and iii) a support plate placed above said first and second reflectors and comprising an internal face whereon are connected each first source and each second source in the chosen places, characterised in that said first reflector comprises a first upper wall supporting said second reflector.
A method of manufacturing timepiece components comprising the following steps: a) providing a substrate comprising a first silicon layer, a second silicon layer and, in between, an intermediate silicon oxide layer, b) etching the first silicon layer to form therein the timepiece components, c) releasing from the substrate a wafer formed by at least all or part of the etched, first silicon layer and comprising the timepiece components, d) thermally oxidizing and then deoxidizing the timepiece components, e) forming by thermal oxidation or deposition a silicon oxide layer on the timepiece components, and f) detaching the timepiece components from the wafer. a) providing a substrate comprising a first silicon layer, a second silicon layer and, in between, an intermediate silicon oxide layer, b) etching the first silicon layer to form therein the timepiece components, c) releasing from the substrate a wafer formed by at least all or part of the etched, first silicon layer and comprising the timepiece components, d) thermally oxidizing and then deoxidizing the timepiece components, e) forming by thermal oxidation or deposition a silicon oxide layer on the timepiece components, and f) detaching the timepiece components from the wafer.
An electronic device comprising: a display; a communication circuit; a memory configured to store instructions; and at least one processor, that upon executing the stored instructions, configured to: in response to a request for sharing a content, identify a state of a connection to a wireless network via the communication circuit; in response to identifying that the state of the connection is a failure, cause the display to display first visual information indicating the failure; in response to identifying that the state of the connection is a success, search for at least one other device connected to the wireless network; in response to a result of the search, cause the display to display (717, 723) second visual information indicating the at least one other device connected to the wireless network being discovered; identify at least one service associated with the content to be shared; and cause the display to display third visual information indicating an existence of the identified at least one service together with the second visual information indicating the discovered at least one other device. a display; a communication circuit; a memory configured to store instructions; and at least one processor, that upon executing the stored instructions, configured to: in response to a request for sharing a content, identify a state of a connection to a wireless network via the communication circuit; in response to identifying that the state of the connection is a failure, cause the display to display first visual information indicating the failure; in response to identifying that the state of the connection is a success, search for at least one other device connected to the wireless network; in response to a result of the search, cause the display to display (717, 723) second visual information indicating the at least one other device connected to the wireless network being discovered; identify at least one service associated with the content to be shared; and cause the display to display third visual information indicating an existence of the identified at least one service together with the second visual information indicating the discovered at least one other device. in response to a request for sharing a content, identify a state of a connection to a wireless network via the communication circuit; in response to identifying that the state of the connection is a failure, cause the display to display first visual information indicating the failure; in response to identifying that the state of the connection is a success, search for at least one other device connected to the wireless network; in response to a result of the search, cause the display to display (717, 723) second visual information indicating the at least one other device connected to the wireless network being discovered; identify at least one service associated with the content to be shared; and cause the display to display third visual information indicating an existence of the identified at least one service together with the second visual information indicating the discovered at least one other device.
An assembly comprising a pre-fabricated pole foundation (1; 101; 201; 301) to be used for a pole without a base plate, the pre-fabricated pole foundation (1; 101; 201; 301) being formed of one of a cellular structure (170; 270; 370), a volumetric enclosure (173; 273; 373) or a combination of a cellular structure (170; 270; 370) and a volumetric enclosure (173; 273; 373); and wherein the pre-fabricated pole foundation (1; 101; 201; 301) is formed by 3D printing and comprises: a pole cavity section located at a top of the pre-fabricated pole foundation, a bridge section located directly below the pole cavity section, a core section located directly below the pole cavity section and a base section located at a bottom of the pre-fabricated pole foundation, wherein the pole cavity section comprises a cavity wall defining a pole cavity (9; 109; 209; 309) forming a minimal clearance between the cavity wall and a face of a wall of a pole (22; 122; 222; 322) to be received in the pole cavity (9; 109; 209; 309); and the assembly further comprising a securing device, wherein a pole (22; 122; 222; 322) is configured to be secured within the pole cavity (9; 109; 209; 309) of the pre-fabricated pole foundation (1; 101; 201; 301) by use of the securing device, characterized in that the pre-fabricated pole foundation (1; 101; 201; 301) employs polymer molten resin employed by 3D printing. a pole cavity section located at a top of the pre-fabricated pole foundation, a bridge section located directly below the pole cavity section, a core section located directly below the pole cavity section and a base section located at a bottom of the pre-fabricated pole foundation, wherein the pole cavity section comprises a cavity wall defining a pole cavity (9; 109; 209; 309) forming a minimal clearance between the cavity wall and a face of a wall of a pole (22; 122; 222; 322) to be received in the pole cavity (9; 109; 209; 309); and the assembly further comprising a securing device, wherein a pole (22; 122; 222; 322) is configured to be secured within the pole cavity (9; 109; 209; 309) of the pre-fabricated pole foundation (1; 101; 201; 301) by use of the securing device, characterized in that the pre-fabricated pole foundation (1; 101; 201; 301) employs polymer molten resin employed by 3D printing.
A method for determining clock desynchronization, comprising: detecting (11, 53) at least one cell with exceptional interference and noise, IN, information or power information among all cells of base stations throughout a network according to network measurement data sent by a base station, and using it as at least one first cell, wherein the network measurement data comprises IN information or power information; and sorting the at least one first cell according to different types of exceptions of the IN information or power information, so as to determine that one or more of the base stations throughout the network are in clock desynchronization; detecting at least one cell with exceptional IN information or power information among intra-frequency neighbor cells of a base station adjacent to the base station of the at least one first cell according to the network measurement data sent by the base station, and using it as at least one second cell; and sorting (12, 55) the at least one first cell and the at least one second cell according to different types of exceptions of the IN information or power information so as to determine a clock desynchronization cell. detecting (11, 53) at least one cell with exceptional interference and noise, IN, information or power information among all cells of base stations throughout a network according to network measurement data sent by a base station, and using it as at least one first cell, wherein the network measurement data comprises IN information or power information; and sorting the at least one first cell according to different types of exceptions of the IN information or power information, so as to determine that one or more of the base stations throughout the network are in clock desynchronization; detecting at least one cell with exceptional IN information or power information among intra-frequency neighbor cells of a base station adjacent to the base station of the at least one first cell according to the network measurement data sent by the base station, and using it as at least one second cell; and sorting (12, 55) the at least one first cell and the at least one second cell according to different types of exceptions of the IN information or power information so as to determine a clock desynchronization cell.