mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting, by a user equipment, precoding matrix information to a base station in a wireless communication system, the method comprising: receiving a reference signal from the base station; selecting a precoding matrix for the user equipment from a predefined codebook using the reference signal; and transmitting the precoding matrix information to the base station, the precoding matrix information indicating a first partial matrix corresponding to the selected precoding matrix and a second partial matrix corresponding to the selected precoding matrix; wherein the selected precoding matrix satisfies a Kronecker product of the first partial matrix and the second partial matrix, wherein the first partial matrix and the second partial matrix are defined in the form of a first codebook and a second codebook; wherein the second codebook supports a transmission rank of R; wherein, based on a transmission rank, the first codebook contains first partial matrices having a first format of 1 e j 2 π N i or the first codebook contains first partial matrices having a second format of 1 1 e j 2 π N i − e j 2 π N i; the first format being for said predefined codebook supporting a maximum transmission rank of R and the second format being for said predefined codebook supporting a maximum transmission rank of 2R; and wherein the i is a vector or matrix index in the first codebook and the N represents the total number of precoding matrices in the codebook. receiving a reference signal from the base station; selecting a precoding matrix for the user equipment from a predefined codebook using the reference signal; and transmitting the precoding matrix information to the base station, the precoding matrix information indicating a first partial matrix corresponding to the selected precoding matrix and a second partial matrix corresponding to the selected precoding matrix; wherein the selected precoding matrix satisfies a Kronecker product of the first partial matrix and the second partial matrix, wherein the first partial matrix and the second partial matrix are defined in the form of a first codebook and a second codebook; wherein the second codebook supports a transmission rank of R; wherein, based on a transmission rank, the first codebook contains first partial matrices having a first format of 1 e j 2 π N i or the first codebook contains first partial matrices having a second format of 1 1 e j 2 π N i − e j 2 π N i; the first format being for said predefined codebook supporting a maximum transmission rank of R and the second format being for said predefined codebook supporting a maximum transmission rank of 2R; and wherein the i is a vector or matrix index in the first codebook and the N represents the total number of precoding matrices in the codebook.
An antigen-binding construct that specifically binds a TAR-DNA binding protein 43kDa (TDP-43) and comprises one heavy chain variable region which is the VH of SEQ ID NO. 1 (E6_VH1) or SEQ ID NO.2 (E6_VH7) and one variable light chain region which is the VL of SEQ ID NO. 3 (E6_Vκ9).
An optoelectronic apparatus comprising - an optical device having an optical structure which comprises a plurality of optical elements, and having a concentrator, - a radiation-emitting or radiation-receiving semiconductor chip with a contact structure which comprises a plurality of contact elements for electrically contacting the semiconductor chip and is spaced apart vertically from the optical structure, wherein the contact elements are arranged in interspaces between the optical elements upon a projection of the contact structure into the plane of the optical structure, and wherein - the concentrator has a smaller aperture on a side facing the semiconductor chip than on a side facing away from the semiconductor chip, - the optical structure is arranged on the side of the concentrator facing the semiconductor chip, - the concentrator is a solid body and characterized in that - the concentrator and the optical structure are embodied in one piece. - an optical device having an optical structure which comprises a plurality of optical elements, and having a concentrator, - a radiation-emitting or radiation-receiving semiconductor chip with a contact structure which comprises a plurality of contact elements for electrically contacting the semiconductor chip and is spaced apart vertically from the optical structure, wherein the contact elements are arranged in interspaces between the optical elements upon a projection of the contact structure into the plane of the optical structure, and wherein - the concentrator has a smaller aperture on a side facing the semiconductor chip than on a side facing away from the semiconductor chip, - the optical structure is arranged on the side of the concentrator facing the semiconductor chip, - the concentrator is a solid body and characterized in that - the concentrator and the optical structure are embodied in one piece.
A device for attaching at least one watchstrap strand to a watch case, the device including an assembly body and two sliding blocks, each of which bears a retaining catch, the assembly body being provided with the two sliding blocks and comprising two end walls between which the two sliding blocks are located, each of these two end walls forming an end stop for one of the sliding blocks, the two sliding blocks each being returned in the opposite direction to the other, towards an engagement position in which the retaining catches each protrude in the opposite direction to the other, the two sliding blocks being movable towards one other, from the engagement position, up to an unlocking position in which the retaining catches are closer to one another than in the engagement position, the device also including a guide stem on which the two sliding blocks are threaded so as to be guided in a sliding manner by this guide stem.
An actuator for a landing gear pitch damper of an aircraft comprising a first chamber charged with gas, a second chamber charged with gas, and an intermediate chamber containing liquid, the intermediate chamber located between the first chamber and second chamber, a piston rod extending towards the first chamber through the second chamber and intermediate chamber, a first piston head associated with and partially defining the first chamber, and a second piston head associated with and partially defining the second chamber, the piston rod arranged to abut and move with the first piston head in a first direction, the piston rod further arranged to abut and move with the second piston head in a second direction.
A lithium secondary battery comprising: a first electrode comprising a first electrode active material layer disposed on a first current collector; a second electrode comprising a second electrode active material layer disposed on a second current collector; an electrolyte; and an inorganic insulating separator coating layer coated on the first electrode active material layer, to separate the first and second electrodes, wherein the first and second electrode active material layers have substantially the same surface areas, and the first and second electrodes are substantially the same length and width and wherein the second electrode active material layer comprises a lithium titanium oxide. a first electrode comprising a first electrode active material layer disposed on a first current collector; a second electrode comprising a second electrode active material layer disposed on a second current collector; an electrolyte; and an inorganic insulating separator coating layer coated on the first electrode active material layer, to separate the first and second electrodes, wherein the first and second electrode active material layers have substantially the same surface areas, and the first and second electrodes are substantially the same length and width and wherein the second electrode active material layer comprises a lithium titanium oxide.
A method for diagnosing heart failure in a subject comprising the steps of: a) determining in a sample of a subject suspected to suffer from heart failure the amount of at least the biomarker Lysophosphatidylcholine C18:2; b) comparing the amount of at least the said biomarker to a reference, whereby heart failure is to be diagnosed if the amount of the biomarker Lysophosphatidylcholine C18:2 is decreased compared to a subject or group of subjects known not to suffer from heart failure. a) determining in a sample of a subject suspected to suffer from heart failure the amount of at least the biomarker Lysophosphatidylcholine C18:2; b) comparing the amount of at least the said biomarker to a reference, whereby heart failure is to be diagnosed if the amount of the biomarker Lysophosphatidylcholine C18:2 is decreased compared to a subject or group of subjects known not to suffer from heart failure.
A forceps, comprising: a housing; a shaft including a distal end and a proximal end, the proximal end operatively coupled to the housing, the shaft defining a longitudinal axis; an end-effector assembly (100, 400, 500) coupled to the distal end of the shaft and including first and second jaw members (110, 120,410,420,510, 520), each of the first and second jaw members including a sealing plate (112, 122, 412, 422, 512, 522), at least one of the first and second jaw members movable from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the sealing plates cooperate to grasp tissue therebetween; and a longitudinal-firing optical fiber operably coupled to the first jaw member and configured to emit light into tissue; wherein a distal end of the longitudinal-firing optical fiber is disposed at a distal end of the outer housing of the first jaw member to allow for treatment of tissue disposed in front of the first jaw member. a housing; a shaft including a distal end and a proximal end, the proximal end operatively coupled to the housing, the shaft defining a longitudinal axis; an end-effector assembly (100, 400, 500) coupled to the distal end of the shaft and including first and second jaw members (110, 120,410,420,510, 520), each of the first and second jaw members including a sealing plate (112, 122, 412, 422, 512, 522), at least one of the first and second jaw members movable from a first position wherein the jaw members are disposed in spaced relation relative to one another to a second position wherein the sealing plates cooperate to grasp tissue therebetween; and a longitudinal-firing optical fiber operably coupled to the first jaw member and configured to emit light into tissue; wherein a distal end of the longitudinal-firing optical fiber is disposed at a distal end of the outer housing of the first jaw member to allow for treatment of tissue disposed in front of the first jaw member.
A radio communication device, comprising: a memory circuit configured to store data to be broadcasted; a communication circuit configured to establish a wireless connection with a first further radio communication device; and a transmitter configured to at least one of broadcast signals based on the stored data or transmit a signal based on the stored data to the first further radio communication device using the communication circuit; wherein the communication circuit is configured to receive information from the first further radio communication device, the received information comprising a signal broadcasted by a second further radio communication device; wherein the transmitter is further configured to transmit information to a third further radio communication device in a communication session; the radio communication device further comprising: a device determination circuit configured to determine whether a further radio communication device is in a communication range of the radio communication device; and a controller configured to stop the communication session if the device determination circuit determines that no further radio communication device is in the communication range of the radio communication device. a memory circuit configured to store data to be broadcasted; a communication circuit configured to establish a wireless connection with a first further radio communication device; and a transmitter configured to at least one of broadcast signals based on the stored data or transmit a signal based on the stored data to the first further radio communication device using the communication circuit; wherein the communication circuit is configured to receive information from the first further radio communication device, the received information comprising a signal broadcasted by a second further radio communication device; wherein the transmitter is further configured to transmit information to a third further radio communication device in a communication session; the radio communication device further comprising: a device determination circuit configured to determine whether a further radio communication device is in a communication range of the radio communication device; and a controller configured to stop the communication session if the device determination circuit determines that no further radio communication device is in the communication range of the radio communication device. a device determination circuit configured to determine whether a further radio communication device is in a communication range of the radio communication device; and a controller configured to stop the communication session if the device determination circuit determines that no further radio communication device is in the communication range of the radio communication device.
A wearable device assembly comprising: a housing containing an internal battery, and further having a first end and a second end; a USB connector attached to the first end of the housing and configured to transmit to and receive data from an external computing device and transmit power received from an external power source to the internal battery; a user input system; a controller supported by the housing, the controller having a first sensor operably associated therewith wherein the first sensor detects a first parameter of an athletic performance of a user; a first receiver member defining an opening configured to removably receive the USB connector, wherein the first receiver member includes at least a second sensor operably associated with the controller when the USB connector is received within the opening of the first receiver such that the second sensor detects a second parameter of the athletic performance of the user; one or more processors; and a memory storing computer readable instructions that, when executed by the wearable device assembly, cause the one or more processors at least to: receive a user input through the user input system for initiating a performance monitoring session; and in response to the received user input, transmit to a computing device, performance data obtained by at least one of the first sensor and the second sensor. a housing containing an internal battery, and further having a first end and a second end; a USB connector attached to the first end of the housing and configured to transmit to and receive data from an external computing device and transmit power received from an external power source to the internal battery; a user input system; a controller supported by the housing, the controller having a first sensor operably associated therewith wherein the first sensor detects a first parameter of an athletic performance of a user; a first receiver member defining an opening configured to removably receive the USB connector, wherein the first receiver member includes at least a second sensor operably associated with the controller when the USB connector is received within the opening of the first receiver such that the second sensor detects a second parameter of the athletic performance of the user; one or more processors; and a memory storing computer readable instructions that, when executed by the wearable device assembly, cause the one or more processors at least to: receive a user input through the user input system for initiating a performance monitoring session; and in response to the received user input, transmit to a computing device, performance data obtained by at least one of the first sensor and the second sensor. receive a user input through the user input system for initiating a performance monitoring session; and in response to the received user input, transmit to a computing device, performance data obtained by at least one of the first sensor and the second sensor.
A suction device, comprising: a housing having an inlet port and an outlet port with a chamber extending therebetween; a pressurized gas port extending from the housing between the inlet port and the outlet port; wherein the inlet port is configured to receive a suction flow and the pressurized gas port is configured to receive a pressurized gas flow; a flow controller coupled to the housing and movable between a first position and a second position; a conduit formed within the housing between the inlet port and the outlet port, the conduit having a first hollow segment with a central axis and a second hollow segment with the central axis; and wherein, when the flow controller is in the first position, a pressure gap extends a first distance between the first and second hollow segments (2122, 2125) and the chamber has a pressure less than ambient air pressure, wherein the first hollow segment, the housing and second hollow segment are configured to form the conduit, wherein the conduit includes a pressure gap, wherein the first hollow segment has a beveled edge with an angle between 0° and 90°. a housing having an inlet port and an outlet port with a chamber extending therebetween; a pressurized gas port extending from the housing between the inlet port and the outlet port; wherein the inlet port is configured to receive a suction flow and the pressurized gas port is configured to receive a pressurized gas flow; a flow controller coupled to the housing and movable between a first position and a second position; a conduit formed within the housing between the inlet port and the outlet port, the conduit having a first hollow segment with a central axis and a second hollow segment with the central axis; and wherein, when the flow controller is in the first position, a pressure gap extends a first distance between the first and second hollow segments (2122, 2125) and the chamber has a pressure less than ambient air pressure, wherein the first hollow segment, the housing and second hollow segment are configured to form the conduit, wherein the conduit includes a pressure gap, wherein the first hollow segment has a beveled edge with an angle between 0° and 90°.
A method, comprising: transmitting (101, 1001), by a network element, at least one instruction to at least one user equipment to log location-tagged handover data, wherein the location-tagged handover data comprise one or more of at least one path, at least one observed reference signal received power associated with at least one cell, and at least one global positioning system coordinate; receiving (105, 1003), by the network element from the at least one user equipment, the location-tagged handover data; labelling (107, 1005) the received location-tagged handover data by computing, by the network element, at least one loss function based upon at least one handover event evaluation rule of the received location-tagged handover data, thus generating labelled data; and training (109, 1007), by the network element, at least one handover optimization model with the location-tagged handover data, wherein the handover optimization model is a machine learning model; transmitting (111, 1009), to the at least one user equipment, the trained machine learning model. transmitting (101, 1001), by a network element, at least one instruction to at least one user equipment to log location-tagged handover data, wherein the location-tagged handover data comprise one or more of at least one path, at least one observed reference signal received power associated with at least one cell, and at least one global positioning system coordinate; receiving (105, 1003), by the network element from the at least one user equipment, the location-tagged handover data; labelling (107, 1005) the received location-tagged handover data by computing, by the network element, at least one loss function based upon at least one handover event evaluation rule of the received location-tagged handover data, thus generating labelled data; and training (109, 1007), by the network element, at least one handover optimization model with the location-tagged handover data, wherein the handover optimization model is a machine learning model; transmitting (111, 1009), to the at least one user equipment, the trained machine learning model.
A method of communicating data via or on a radio bearer including a first layer function or entity associated to a first layer of a protocol stack and at least two second layer functions or entities (582, 584) associated to a second layer of the protocol stack, wherein the second layer is lower than the first layer in the protocol stack, wherein the first layer includes a Packet Data Convergence Protocol, PDCP, layer, and wherein the second layer includes a Radio Link Control, RLC, layer, the method comprising or triggering the steps of: receiving data (574, 576), duplicated by a transmitting station (200; 500), through each of the at least two second layer entities (582, 584); validating the data (574, 576) received through the at least two second layer entities (582, 584), wherein the first layer entity validates (304; 572) the data (574, 576) received through the at least two second layer entities (582, 584), wherein the validation (304; 572) includes comparing the data (574, 576) received through each of the second layer entities (582, 584); and selectively triggering a retransmission of the data (574, 576) through at least one of the second layer entities (582, 584), if a result of the validation is indicative of an inconsistency in the data (574, 576) received through the at least two second layer entities (582, 584). receiving data (574, 576), duplicated by a transmitting station (200; 500), through each of the at least two second layer entities (582, 584); validating the data (574, 576) received through the at least two second layer entities (582, 584), wherein the first layer entity validates (304; 572) the data (574, 576) received through the at least two second layer entities (582, 584), wherein the validation (304; 572) includes comparing the data (574, 576) received through each of the second layer entities (582, 584); and selectively triggering a retransmission of the data (574, 576) through at least one of the second layer entities (582, 584), if a result of the validation is indicative of an inconsistency in the data (574, 576) received through the at least two second layer entities (582, 584).
A nonwoven web material comprising one or more active agents, wherein the web material exhibits a Basis Weight of less than 500 g/m 2 as measured according to the Basis Weight Test Method described herein; wherein the web material comprises a total level of one or more active agents of 50% or greater by weight of the web material; wherein the web material comprises a filament-forming material wherein the filament forming material is a water-soluble hydroxyl polymer; wherein the web material comprises a plurality of filaments and the active agent is comprised in said filaments; and wherein at least one of the one or more active agents is selected from the group consisting of skin benefit agents, lotions, fabric care agents, dishwashing agents, carpet care agents, surface care agents, hair care agents, air care agents, and mixtures thereof.