mhurhangee/ep-ind-claims huggingface dataset:
A method for data analytics reporting, DAR, of a Radio Access Network, RAN, key performance indicator, KPI, from a data extraction entity, DEE, to a data analytics entity, DAE, in a data analytics process, DAP; wherein the DEE is comprised in a gNB-Distributed Unit, gNB-DU, or a function therein; and wherein the DAE is comprised in a gNB-Centralized Unit, gNB-CU, or a function therein; wherein the reporting is performed via an interface; wherein a data-set regarding said KPI is transmitted from the DEE to the DAE; wherein said data-set comprises at least one, empirical statistical moment determined by the DEE; wherein each of the at least one empirical statistical moment, m i, is determined by the DEE based on the following equation: m i = 1 N S ∑ n = 1 N S s n i; and wherein s n is a data sample of the KPI and Ns is a number of samples contributing to the respective moment m i. wherein the DEE is comprised in a gNB-Distributed Unit, gNB-DU, or a function therein; and wherein the DAE is comprised in a gNB-Centralized Unit, gNB-CU, or a function therein; wherein the reporting is performed via an interface; wherein a data-set regarding said KPI is transmitted from the DEE to the DAE; wherein said data-set comprises at least one, empirical statistical moment determined by the DEE; wherein each of the at least one empirical statistical moment, m i, is determined by the DEE based on the following equation: m i = 1 N S ∑ n = 1 N S s n i; and wherein s n is a data sample of the KPI and Ns is a number of samples contributing to the respective moment m i.
A method for determining a total number of bits of feedback response information, comprising: receiving, by a terminal, configuration signaling transmitted by a network device, the configuration signaling comprising an indication about a maximum timing value for feedback response information and an indication about a minimum timing value for the feedback response information; characterized by further comprising: determining, by the terminal, a total number of bits of feedback response information to be transmitted according to the maximum timing value and the minimum timing value, wherein the maximum timing value is a maximum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried, and the minimum timing value is a minimum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried. determining, by the terminal, a total number of bits of feedback response information to be transmitted according to the maximum timing value and the minimum timing value, wherein the maximum timing value is a maximum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried, and the minimum timing value is a minimum time interval between a time unit where downlink data is carried and a time unit where the feedback response information for the downlink data is carried.
A package, comprising: a carton (150; 250; 402) including a plurality of panels (10, 20, 30, 40; 210, 220, 230, 240; 407, 408, 410, 411) that extends at least partially around an interior of the carton, and at least two end flaps (12, 14, 22, 24, 32, 34, 42, 44; 212, 214, 222, 224, 232, 234, 242, 244; 412, 418, 426, 432, 526, 528, 530, 532) respectively foldably attached to respective panels of the plurality of panels, the end flaps are overlapped with respect to one another, and thereby at least partially form a closed end of the carton; and a divider (90; 290; 404) including a divider panel (92; 292; 450, 456) that at least partially divides the interior of the carton, and a securing flap (102, 108; 302, 308; 490, 492, 500, 502) that is connected to the divider panel, characterized in that the securing flap is positioned between the overlapping end flaps of the carton whereby the divider is at least partially secured to the closed end of the carton. a carton (150; 250; 402) including a plurality of panels (10, 20, 30, 40; 210, 220, 230, 240; 407, 408, 410, 411) that extends at least partially around an interior of the carton, and at least two end flaps (12, 14, 22, 24, 32, 34, 42, 44; 212, 214, 222, 224, 232, 234, 242, 244; 412, 418, 426, 432, 526, 528, 530, 532) respectively foldably attached to respective panels of the plurality of panels, the end flaps are overlapped with respect to one another, and thereby at least partially form a closed end of the carton; and a divider (90; 290; 404) including a divider panel (92; 292; 450, 456) that at least partially divides the interior of the carton, and a securing flap (102, 108; 302, 308; 490, 492, 500, 502) that is connected to the divider panel, characterized in that the securing flap is positioned between the overlapping end flaps of the carton whereby the divider is at least partially secured to the closed end of the carton.
An in vitro method for determining one or more blood gas parameters, one or more basic metabolic panel parameters and/or platelet count in a blood sample comprising the step of a) providing a blood sampler containing heparin and at least one anti-platelet agent selected from prostaglandin analogs, wherein the blood sampler does not contain MgSO 4, EDTA or citrate; b) combining blood of a volume of 20 μL to 10 mL with heparin and the at least one anti-platelet agent in the blood sampler; c) mixing the blood sample to prepare a blood sample suitable for blood gas parameter analysis, basic metabolic panel parameter analysis and platelet count; and d) determining one or more blood gas parameters, one or more basic metabolic panel parameters and/or number of platelets in the blood sample. a) providing a blood sampler containing heparin and at least one anti-platelet agent selected from prostaglandin analogs, wherein the blood sampler does not contain MgSO 4, EDTA or citrate; b) combining blood of a volume of 20 μL to 10 mL with heparin and the at least one anti-platelet agent in the blood sampler; c) mixing the blood sample to prepare a blood sample suitable for blood gas parameter analysis, basic metabolic panel parameter analysis and platelet count; and d) determining one or more blood gas parameters, one or more basic metabolic panel parameters and/or number of platelets in the blood sample.
A user equipment, UE, comprising: one or more processors; and one or more memories storing instructions that, upon execution by the one or more processors, configure the UE to: determine that Kc channel state information reference signal, CSI-RS, samples are to be used in channel state information, CSI, reporting for M subbands, wherein Kc and M are positive integers, M < Kc, and the M subbands belong to a bandwidth part, BWP; determine that a first number of CSI-RS samples of the Kc CSI-RS samples is to be used for a first subband of the M subbands, wherein the first number of CSI-RS samples is different from a second number of CSI-RS samples determined for a second subband of the M subbands, wherein the first number of CSI-RS samples is determined based on channel information associated with the BWP; generate a CSI report for the first subband by at least using CSI-RS samples associated with the first subband, wherein a total number of the used CSI-RS samples for the CSI report is equal to the first number of CSI-RS samples; and send the CSI report to a network. one or more processors; and one or more memories storing instructions that, upon execution by the one or more processors, configure the UE to: determine that Kc channel state information reference signal, CSI-RS, samples are to be used in channel state information, CSI, reporting for M subbands, wherein Kc and M are positive integers, M < Kc, and the M subbands belong to a bandwidth part, BWP; determine that a first number of CSI-RS samples of the Kc CSI-RS samples is to be used for a first subband of the M subbands, wherein the first number of CSI-RS samples is different from a second number of CSI-RS samples determined for a second subband of the M subbands, wherein the first number of CSI-RS samples is determined based on channel information associated with the BWP; generate a CSI report for the first subband by at least using CSI-RS samples associated with the first subband, wherein a total number of the used CSI-RS samples for the CSI report is equal to the first number of CSI-RS samples; and send the CSI report to a network. determine that Kc channel state information reference signal, CSI-RS, samples are to be used in channel state information, CSI, reporting for M subbands, wherein Kc and M are positive integers, M < Kc, and the M subbands belong to a bandwidth part, BWP; determine that a first number of CSI-RS samples of the Kc CSI-RS samples is to be used for a first subband of the M subbands, wherein the first number of CSI-RS samples is different from a second number of CSI-RS samples determined for a second subband of the M subbands, wherein the first number of CSI-RS samples is determined based on channel information associated with the BWP; generate a CSI report for the first subband by at least using CSI-RS samples associated with the first subband, wherein a total number of the used CSI-RS samples for the CSI report is equal to the first number of CSI-RS samples; and send the CSI report to a network.
Process for treating a solid carbonaceous material containing aluminum, fluorides and Na + ions that comprises the steps of: (a) leaching said solid carbonaceous material with at least one aqueous alkaline solution to form: (i) an extraction solution comprising said aluminum in hydrosoluble form, said fluorides and said Na + ions, and (ii) at least one solid insoluble residue; (b) separating said solid insoluble residue from said extraction solution; (c) subjecting said extraction solution free from said solid insoluble residue to a membrane electrolysis process to form at least one precipitate comprising said aluminum and at least one NaOH aqueous solution, wherein said precipitate is a compound selected from: Na 3 AlF 6, AlF 3 and mixtures thereof. (a) leaching said solid carbonaceous material with at least one aqueous alkaline solution to form: (i) an extraction solution comprising said aluminum in hydrosoluble form, said fluorides and said Na + ions, and (ii) at least one solid insoluble residue; (b) separating said solid insoluble residue from said extraction solution; (c) subjecting said extraction solution free from said solid insoluble residue to a membrane electrolysis process to form at least one precipitate comprising said aluminum and at least one NaOH aqueous solution, wherein said precipitate is a compound selected from: Na 3 AlF 6, AlF 3 and mixtures thereof.
An apparatus, comprising: a video encoder for encoding image data in a picture, wherein said video encoder comprises multiple filters, each filter filtering the image data based on region partition information, said region partition information defining segmentation of a picture into a plurality of regions, the multiple filters being used with different filtering parameters in each region, and wherein at least two of the multiple filters (725, 730) use the same segmentation based on shared region partition information, and the region partition information is separately determined for at least one other of the multiple filters, wherein the encoder uses signaling (760, 765) to allow a decoder to select the particular set of region partition information and filter parameters used by the multiple filters during encoding.
A compound of the following formula: wherein: - n represents 1 or 2, - A 1, A 2 and A 3, which may be identical or different, represent a hydrogen atom, a halogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, - R 1, R2 and R3 represent independently a hydrogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, and - Y represents -OH, =O or -SH; or a pharmaceutically acceptable salt thereof, for use in the prevention or treatment of attention deficit hyperactivity disorder (ADHD) or hyperkinetic disorder in an individual. - n represents 1 or 2, - A 1, A 2 and A 3, which may be identical or different, represent a hydrogen atom, a halogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, - R 1, R2 and R3 represent independently a hydrogen atom or a linear or branched alkyl group having from 1 to 4 carbon atoms, and - Y represents -OH, =O or -SH;
A graft device for a mammalian patient, the graft device comprising: a tubular conduit; an electrospun fiber matrix surrounding the tubular conduit; and a kink resisting element formed by laser modification to said electrospun fiber matrix to cause stiffening of a portion of said electrospun fiber matrix. a tubular conduit; an electrospun fiber matrix surrounding the tubular conduit; and a kink resisting element formed by laser modification to said electrospun fiber matrix to cause stiffening of a portion of said electrospun fiber matrix.
A method to provide an emergency supply to a nuclear installation using a pump and/or a generator that is/are independent of the nuclear installation, characterized by the use of a supply container with several permanently installed facilities, comprising at least - a motor, - a generator, - a pump, - a fuel tank, - a transformer, whereby the pump is integrated into a cooling water cycle of the nuclear installation and/or the pump is used to pump cooling water from an external water feed into a cooling water cycle or sections thereof of the nuclear installation - a motor, - a generator, - a pump, - a fuel tank, - a transformer,
A composition suitable for external skin application comprising a mussel adhesive protein as an active ingredient for use for the treatment of inflammation caused by an inflammatory skin disease selected from the group consisting of dermatitis, eczema, skin ulcer, herpes, psoriasis, erythema multiforme, chemo rash, skin cancer, folliculitis, hives, drug rash, polymorphous sunlight eruption, pathological hair loss or external otitis, wherein the MAP is selected from one or more of the sub-types mefp-1, mefp-2, mefp-3, mefp-4, mefp-5, and mefp-6.
A process for the preparation of a cross-linked aramid polymer comprising the step of heating a non-crosslinked polymer comprising the repeating unit of formula at a temperature from 150 to 400°C for a period of time from 1 second to 20 minutes, wherein A and B are independently selected from meta-phenylene and para -phenylene, and R1 and R2 are independently selected from H and N 3, with the proviso that at least one of R1 and R2 is N 3, and R1 and R2 are attached to any of the positions 1, 2, 3, or 4 in para-phenylene and 1, 2, 3 in meta-phenylene.
A sensor device comprising: a movable body capable of vibrating; a spring mechanism capable of vibrating the movable body and a catch-and-release mechanism capable of catching the vibrating movable body and capable of releasing the caught movable body, wherein the catch-and-release mechanism includes: a stopper portion capable of stopping vibration of the movable body when the movable body contacts the stopper portion; characterized in that the catch-and-release mechanism further includes: an elastic member configured to reduce a force acting between the movable body and the stopper portion when the vibration of the movable body is stopped by the stopper portion, wherein, during stopping, the moveable body contacts the elastic member and subsequently the movable body contacts the stopper portion, and wherein the elastic member is further configured not to function while the movable body is freely vibrating. a movable body capable of vibrating; a spring mechanism capable of vibrating the movable body and a catch-and-release mechanism capable of catching the vibrating movable body and capable of releasing the caught movable body, wherein the catch-and-release mechanism includes: a stopper portion capable of stopping vibration of the movable body when the movable body contacts the stopper portion; characterized in that the catch-and-release mechanism further includes: an elastic member configured to reduce a force acting between the movable body and the stopper portion when the vibration of the movable body is stopped by the stopper portion, wherein, during stopping, the moveable body contacts the elastic member and subsequently the movable body contacts the stopper portion, and wherein the elastic member is further configured not to function while the movable body is freely vibrating.
A method for forecasting aircraft engine deterioration comprising: creating a first fused data set corresponding to a first actual aircraft engine, the first fused data set including at least one as manufactured parameter of the actual aircraft engine, expected operating parameters of the first actual aircraft engine, and actual operating parameters of the actual aircraft engine, the actual operating parameters of the actual aircraft engine including internal aircraft sensor data, and external flight tracking data; and predicting an expected engine deterioration of the first actual engine based on the expected operating parameters and the actual operating parameters of the first actual aircraft engine by applying the first fused data set to a forecasting model, wherein the forecasting model is a recurrent neural network based algorithm, and the recurrent neural network based algorithm is trained via a plurality of second fused data sets corresponding to actual aircraft engines. creating a first fused data set corresponding to a first actual aircraft engine, the first fused data set including at least one as manufactured parameter of the actual aircraft engine, expected operating parameters of the first actual aircraft engine, and actual operating parameters of the actual aircraft engine, the actual operating parameters of the actual aircraft engine including internal aircraft sensor data, and external flight tracking data; and predicting an expected engine deterioration of the first actual engine based on the expected operating parameters and the actual operating parameters of the first actual aircraft engine by applying the first fused data set to a forecasting model, wherein the forecasting model is a recurrent neural network based algorithm, and the recurrent neural network based algorithm is trained via a plurality of second fused data sets corresponding to actual aircraft engines.
Cutterbar for attaching to the height-adjustable feeder housing of a harvesting machine with a frame, an attachment device connected to the frame for attaching the cutterbar to the harvesting machine, cutting elements, conveyor devices and drives, at least one distance sensor arranged on the cutterbar for determining the distance of the cutterbar from the ground, and an interface via which signals relevant to height control can be transmitted to a control or regulating device arranged on the harvesting machine, wherein the cutterbar has at least one additional load sensor which measures the load with which the cutterbar loads the feeder housing, characterized in that the interface is arranged upstream of an evaluation device to which the sensor values measured by the distance sensor are transmitted via a connecting line, the sensor values measured by the load sensor are also transmitted to the evaluation device via a connecting line, and the evaluation device has a program which uses suitable programming to calculate a signal relevant to height control from the transmitted sensor values of the distance sensor and the load sensor, which signal is transmitted to the interface.
An induction sealing device comprising a main body, a magnetic field concentrator held in said main body, a conductive element, wherein said magnetic field concentrator is made by injection molding and said main body serves as a mold during said injection molding, and wherein one or several protrusions (314a, 314b) of said magnetic field concentrator cooperate with one or several openings (312a, 312b) in said main body such that said magnetic field concentrator and said main body are securely bonded together, characterized in that said at least one or several openings (312a, 312b) in said main body are used for gating material for forming said magnetic field concentrator into an interior of said main body. a main body, a magnetic field concentrator held in said main body, a conductive element, wherein said magnetic field concentrator is made by injection molding and said main body serves as a mold during said injection molding, and wherein one or several protrusions (314a, 314b) of said magnetic field concentrator cooperate with one or several openings (312a, 312b) in said main body such that said magnetic field concentrator and said main body are securely bonded together, characterized in that said at least one or several openings (312a, 312b) in said main body are used for gating material for forming said magnetic field concentrator into an interior of said main body.
A method of interacting with a process control system in a highly volatile or explosive environment, the method comprising: bringing a mobile electronic device into physical proximity of a field device; coupling the mobile electronic device to a digital process communication channel (16, 128) of the field device operating a process communication protocol utilizing a technology that can wholly power the field device while complying with its intrinsic safety specifications; initiating a client software application on the mobile electronic device; characterized by using the digital process communication channel (16, 128) to communicatively couple the client software application to a host application remote from both the mobile electronic device and the field device, wherein a currently shown display of the host application is provided on the display of the mobile device; wherein the mobile device is a handheld field maintenance tool, and wherein the handheld field maintenance tool complies with an Intrinsic Safety specification. bringing a mobile electronic device into physical proximity of a field device; coupling the mobile electronic device to a digital process communication channel (16, 128) of the field device operating a process communication protocol utilizing a technology that can wholly power the field device while complying with its intrinsic safety specifications; initiating a client software application on the mobile electronic device; characterized by using the digital process communication channel (16, 128) to communicatively couple the client software application to a host application remote from both the mobile electronic device and the field device, wherein a currently shown display of the host application is provided on the display of the mobile device; wherein the mobile device is a handheld field maintenance tool, and wherein the handheld field maintenance tool complies with an Intrinsic Safety specification.
Device for manufacturing bimetallic pipes, each of said pipes being made up of a pipe telescopically inserted with clearance inside a pipe and projecting from both ends of the latter, characterised in that it comprises a fixed expansion head and a moveable expansion head wherein the ends of the bimetallic pipe are inserted and inside which clamping is performed by the means of hydraulic or oil hydraulic closure of vice members around each end of the outer pipe while the inner pipe has each end positioned against an elastic abutment (20, 36) providing elastic force by means of springs made inside each of the above-mentioned heads and to be free to move axially and radially and rotate around its own axis during the plastic expansion thereof.
A reverse emulsion breaker composition for resolving a water external emulsion of water and oil, the composition comprising an effective amount at least one polyepihalohydrin, wherein the at least one polyepihalohydrin has the following structure: wherein y1 is from 2 to 20; wherein y2 is from 2 to 20; and wherein y3 is from 2 to 20. wherein y1 is from 2 to 20; wherein y2 is from 2 to 20; and wherein y3 is from 2 to 20.