mhurhangee/ep-ind-claims huggingface dataset:
A system comprising memory and one or more microprocessors, which memory comprises instructions and which one or more microprocessors are configured to perform, according to the instructions, a process for determining the presence or absence of one or more chromosome alterations in sample nucleic acid, which process comprises: (a) characterizing mappability of a plurality of sequence read subsequences for sequence reads, wherein: there are multiple sequence read subsequences for each sequence read, the sequence read subsequences for each sequence read are of different lengths, and the sequence reads are of the sample nucleic acid; (b) identifying a subset of sequence reads for which there is a change in mappability of one or more sequence read subsequences of each sequence read; (c) comparing (i) the number of each of the sequence reads in the subset identified in (b) from the sample, to (ii) the number of each of the sequence reads in the subset identified in (b) from a reference, thereby generating a comparison; and (d) determining the presence or absence of one or more chromosome alterations for the sample according to the comparison in (c), wherein the one or more chromosome alterations comprise a chromosome translocation, a balanced chromosome translocation, a chromosome deletion, a chromosome inversion, or a heterologous insertion. (a) characterizing mappability of a plurality of sequence read subsequences for sequence reads, wherein: there are multiple sequence read subsequences for each sequence read, the sequence read subsequences for each sequence read are of different lengths, and the sequence reads are of the sample nucleic acid; there are multiple sequence read subsequences for each sequence read, the sequence read subsequences for each sequence read are of different lengths, and the sequence reads are of the sample nucleic acid; (b) identifying a subset of sequence reads for which there is a change in mappability of one or more sequence read subsequences of each sequence read; (c) comparing (i) the number of each of the sequence reads in the subset identified in (b) from the sample, to (ii) the number of each of the sequence reads in the subset identified in (b) from a reference, thereby generating a comparison; and (d) determining the presence or absence of one or more chromosome alterations for the sample according to the comparison in (c),
On-board vision and cleaning system comprising - a sensor unit mounted in a vehicle body, - a cleaning fluid source, - a cleaning fluid circuit or a cleaning fluid conduit, - at least a cleaning fluid pump, - a nozzle carrier - at least one cleaning fluid nozzle attached to the nozzle carrier, wherein the nozzle carrier is designed as a swivel arm configured to be flipped upon actuation from a tilted back position which is a rest position, into an elevated position which is an operating position, characterized in that the swivel arm in its rest position at least partially conforms to the sensor unit, wherein the swivel arm is designed such that its contour almost or completely matches the outer contour of the exposed surface of the sensor unit. - a sensor unit mounted in a vehicle body, - a cleaning fluid source, - a cleaning fluid circuit or a cleaning fluid conduit, - at least a cleaning fluid pump, - a nozzle carrier - at least one cleaning fluid nozzle attached to the nozzle carrier, wherein the nozzle carrier is designed as a swivel arm configured to be flipped upon actuation from a tilted back position which is a rest position, into an elevated position which is an operating position, characterized in that the swivel arm in its rest position at least partially conforms to the sensor unit, wherein the swivel arm is designed such that its contour almost or completely matches the outer contour of the exposed surface of the sensor unit.
A method in a first radio network node, for updating external cell information, which external cell information relates to a first cell served by a second radio network node, the method comprising: receiving external cell information from the second radio network node; discarding some of the received external cell information from storing; determining that there is a need to update the external cell information, wherein the need relates to the discarded external cell information; sending, to the second radio network node in response to the determined need, a first message which first message comprises a request for data representing information relating to the first cell, wherein the request comprises an indication of a kind of information requested, the kind of information being at least one of information relating to the first cell, and information relating to at least one second cell neighbouring the first cell; receiving, from the second radio network node, a second message, which second message comprises the requested data; and updating the external cell information based on the received data. receiving external cell information from the second radio network node; discarding some of the received external cell information from storing; determining that there is a need to update the external cell information, wherein the need relates to the discarded external cell information; sending, to the second radio network node in response to the determined need, a first message which first message comprises a request for data representing information relating to the first cell, wherein the request comprises an indication of a kind of information requested, the kind of information being at least one of information relating to the first cell, and information relating to at least one second cell neighbouring the first cell; receiving, from the second radio network node, a second message, which second message comprises the requested data; and updating the external cell information based on the received data.
A method to provide assistance information for reconfiguration, comprising: sending information of remaining battery power of a user equipment, in the following referred to as UE, from the UE to an evolved Node B, in the following referred to as eNB, at a particular timing, wherein the information is carried by a Radio Resource Control, in the following referred to as RRC, message and wherein the particular timing is during a RRC connection establishment procedure, a RRC connection re-establishment procedure, a handover procedure, a procedure used to request the eNB to change a configuration of the UE to save power, or a procedure used to request the eNB to release RRC Connection for the UE. sending information of remaining battery power of a user equipment, in the following referred to as UE, from the UE to an evolved Node B, in the following referred to as eNB, at a particular timing, wherein the information is carried by a Radio Resource Control, in the following referred to as RRC, message and wherein the particular timing is during a RRC connection establishment procedure, a RRC connection re-establishment procedure, a handover procedure, a procedure used to request the eNB to change a configuration of the UE to save power, or a procedure used to request the eNB to release RRC Connection for the UE.
A compound according to Formula I: or a salt or hydrate thereof; wherein W is CR 3a; X is CR 3b; Y is N, wherein N is optionally oxidized to the corresponding N -oxide; Z is CR 3d; R N is selected from the group consisting of NR 6 R 7, heterocyclyl, and heteroaryl, wherein heterocyclyl and heteroaryl comprise from 5 to 10 ring atoms, at least one of which is nitrogen; each R 1a, R 1b, and R 1c is independently selected from H, methyl, and ethyl, wherein the total number of carbon atoms in the group -C(R 1a) 2 -[C(R 1b) 2] q -[C(R 1c) 2] t -does not exceed six; each R 2, R 3a, R 3b and R 3d is independently selected from the group consisting of H, halogen, C 1-6 alkyl, C 1-6 haloalkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, C 1-6 haloalkoxy, aryloxy, C 1-6 alkyl-OH, -OR 4, -C 0-6 alkyl-NR 4 R 5, -SR 4, -C R 4, -C 0-6 alkyl-C OR 4, -C NR 4 R 5, -N(R 4)C R 5, -N(R 4)C OR 5, -N(R 4)C NR 4 R 5, -OP (OR 4) 2, -S 2 OR 4, -S 2 NR 4 R 5, -CN, cycloalkyl, heterocycloalkyl, aryl and heteroaryl; each R 4, R 5, R 6, and R 7 is independently selected from the group consisting of H, C 1-6 alkyl, and C 1-6 alkyl-OH; wherein the subscript q is 0 and the subscript t is 1, or wherein the subscript q is 1 and the subscript t is 0, or wherein the subscript q and the subscript t are 1; provided that when: a) the sum of q and t is 1, and b) either of R 6 or R 7, if present, is H or C 1-6 alkyl, at least one of R 1a and R 1b is other than H; and provided that when the sum of q and t is 2, a) R 2 is other than H, and b) at least one of R 6 and R 7, if present, is other than H or methyl. W is CR 3a; X is CR 3b; Y is N, wherein N is optionally oxidized to the corresponding N -oxide; Z is CR 3d; R N is selected from the group consisting of NR 6 R 7, heterocyclyl, and heteroaryl, wherein heterocyclyl and heteroaryl comprise from 5 to 10 ring atoms, at least one of which is nitrogen; each R 1a, R 1b, and R 1c is independently selected from H, methyl, and ethyl, wherein the total number of carbon atoms in the group -C(R 1a) 2 -[C(R 1b) 2] q -[C(R 1c) 2] t -does not exceed six; each R 2, R 3a, R 3b and R 3d is independently selected from the group consisting of H, halogen, C 1-6 alkyl, C 1-6 haloalkyl, C 2-6 alkenyl, C 2-6 alkynyl, C 1-6 alkoxy, C 1-6 haloalkoxy, aryloxy, C 1-6 alkyl-OH, -OR 4, -C 0-6 alkyl-NR 4 R 5, -SR 4, -C R 4, -C 0-6 alkyl-C OR 4, -C NR 4 R 5, -N(R 4)C R 5, -N(R 4)C OR 5, -N(R 4)C NR 4 R 5, -OP (OR 4) 2, -S 2 OR 4, -S 2 NR 4 R 5, -CN, cycloalkyl, heterocycloalkyl, aryl and heteroaryl; each R 4, R 5, R 6, and R 7 is independently selected from the group consisting of H, C 1-6 alkyl, and C 1-6 alkyl-OH; a) the sum of q and t is 1, and b) either of R 6 or R 7, if present, is H or C 1-6 alkyl, a) R 2 is other than H, and b) at least one of R 6 and R 7, if present, is other than H or methyl.
A method for transmitting control information of uplink, UL, Multiple Input Multiple Output, MIMO, transmission by a base station, BS, and a user equipment, UE, in a LTE system, the method comprising: receiving a plurality of transport blocks, TBs, from the UE; transmitting acknowledgement / negative acknowledgement, ACK/NACK, information of the received TBs to the UE through a physical hybrid-automatic repeat request, HARQ, indicator channel, PHICH, wherein the ACK/NACK information is determined based on whether the received TBs are successfully decoded or not; transmitting to the UE through a physical downlink control channel, PDCCH, information including a new data indicator, NDI for each of the TBs indicating whether new transmission of each of the TBs is to be performed; and receiving a UL transmission from the UE, characterized in that in the UL transmission, if the PHICH indicates ACK/NACK states for each of the TBs, and if ACK information is indicated for one of the plurality of TBs: when the NDI for the one TB indicates new transmission, transmission of new data for the one data block is performed, and when the NDI for the one TB does not indicate new transmission, the one TB is disabled. receiving a plurality of transport blocks, TBs, from the UE; transmitting acknowledgement / negative acknowledgement, ACK/NACK, information of the received TBs to the UE through a physical hybrid-automatic repeat request, HARQ, indicator channel, PHICH, wherein the ACK/NACK information is determined based on whether the received TBs are successfully decoded or not; transmitting to the UE through a physical downlink control channel, PDCCH, information including a new data indicator, NDI for each of the TBs indicating whether new transmission of each of the TBs is to be performed; and receiving a UL transmission from the UE, when the NDI for the one TB indicates new transmission, transmission of new data for the one data block is performed, and when the NDI for the one TB does not indicate new transmission, the one TB is disabled.
A video call terminal comprising: a first communication unit configured to conduct a video call with a second terminal through an Internet protocol network; a second communication unit configured to communicate with a first mobile phone over a first local network; and a controller configured to transmit first network information of the video call terminal to the first mobile phone, receive second network information of the second terminal from the first mobile phone, and control the video call with the second terminal using at least one of the first and second network information. wherein the controller of the video call terminal controls at least one of a voice signal and a video signal received from the first mobile phone to be transmitted to the second terminal from the video call terminal. a first communication unit configured to conduct a video call with a second terminal through an Internet protocol network; a second communication unit configured to communicate with a first mobile phone over a first local network; and a controller configured to transmit first network information of the video call terminal to the first mobile phone, receive second network information of the second terminal from the first mobile phone, and control the video call with the second terminal using at least one of the first and second network information. wherein the controller of the video call terminal controls at least one of a voice signal and a video signal received from the first mobile phone to be transmitted to the second terminal from the video call terminal.
A method of forming an electrochemical multilayer test sensor (180, 181, 280, 380), the multilayer test sensor (180, 181, 280, 380) including a base (110, 175, 210), a second layer (160, 305) and a reactive area, the reactive area including an enzyme, the test sensor (180, 181, 280, 380) being adapted to be used in a meter and assist in determining the concentration of an analyte, the base (110, 175, 210) including a conductive area adapted to contact the meter, the method comprising the acts of: partially defining a plurality of electrodes on the base (110, 175, 210) outside the conductive area and defining a plurality of respective first conductive leads that extend from outside the conductive area only partially into the conductive area; after partially defining the plurality of electrodes and the plurality of respective first conductive leads on the base (110, 175, 210), attaching the base (110, 175, 210) to the second layer (160, 305) thereby (i) forming a capillary space which forms a reaction zone in which the plurality of electrodes are fully defined; and (ii) leaving the conductive area uncovered by the second layer (160, 305) and exposing only the portions of the first conductive leads that extend partially into the conductive area; and after attaching the base (110, 175, 210) to the second layer (160, 205), further processing to define a plurality of second conductive leads (120a-d) in the conductive area whereby the plurality of first conductive leads together with the plurality of second conductive leads (120a-d) form a plurality of fully defined conductive leads on the base of the test sensor adapted to connect the plurality of electrodes with the meter. partially defining a plurality of electrodes on the base (110, 175, 210) outside the conductive area and defining a plurality of respective first conductive leads that extend from outside the conductive area only partially into the conductive area; after partially defining the plurality of electrodes and the plurality of respective first conductive leads on the base (110, 175, 210), attaching the base (110, 175, 210) to the second layer (160, 305) thereby (i) forming a capillary space which forms a reaction zone in which the plurality of electrodes are fully defined; and (ii) leaving the conductive area uncovered by the second layer (160, 305) and exposing only the portions of the first conductive leads that extend partially into the conductive area; and (i) forming a capillary space which forms a reaction zone in which the plurality of electrodes are fully defined; and (ii) leaving the conductive area uncovered by the second layer (160, 305) and exposing only the portions of the first conductive leads that extend partially into the conductive area; and after attaching the base (110, 175, 210) to the second layer (160, 205), further processing to define a plurality of second conductive leads (120a-d) in the conductive area whereby the plurality of first conductive leads together with the plurality of second conductive leads (120a-d) form a plurality of fully defined conductive leads on the base of the test sensor adapted to connect the plurality of electrodes with the meter.
An earplug dispenser for contactless operation by a user comprising: a container portion further comprising a plurality of earplugs; a dispensing portion coupled to the container portion, the dispensing portion further comprising: a motor; a rotor coupled to the motor, the rotor comprising a plurality of rotor openings to receive individual earplugs in each rotor opening; a dispensing opening; wherein the motor rotates the rotor to dispense earplugs through the dispensing opening; a plurality of gates positioned proximal to the plurality of rotor openings, each gate being separately movable between a first position and a second position as the rotor is rotated to dispense an earplug; and a cam having a raised portion proximal to the dispensing opening; wherein each of the plurality of gates has a follower that travels along the cam as the rotor rotate around the cam; and wherein the raised portion of the cam pushes up on the follower to pivot the gate downward to dispense an earplug from the rotor opening through the dispenser opening. a container portion further comprising a plurality of earplugs; a dispensing portion coupled to the container portion, the dispensing portion further comprising: a motor; a rotor coupled to the motor, the rotor comprising a a motor; a rotor coupled to the motor, the rotor comprising a plurality of rotor openings to receive individual earplugs in each rotor opening; a dispensing opening; wherein the motor rotates the rotor to dispense earplugs a dispensing opening; wherein the motor rotates the rotor to dispense earplugs through the dispensing opening; a plurality of gates positioned proximal to the plurality of rotor openings, each gate being separately movable between a first position and a second position as the rotor is rotated to dispense an earplug; and a cam having a raised portion proximal to the dispensing opening; wherein each of the plurality of gates has a follower that travels along the cam as the rotor rotate around the cam; and wherein the raised portion of the cam pushes a cam having a raised portion proximal to the dispensing opening; wherein each of the plurality of gates has a follower that travels along the cam as the rotor rotate around the cam; and wherein the raised portion of the cam pushes up on the follower to pivot the gate downward to dispense an earplug from the rotor opening through the dispenser opening.
A composite component characterized by the following layer construction: a) a layer which consists at least partly of polyethylene, b) a layer which consists at least partly of a polyurethane and or an elastomer, c) at least one layer which consists at least partly of a plastic reinforced by fibers, or which consists at least partly of an adhesive, wherein the layer is disposed directly between the layer and the layer, wherein the layers and have been joined in a first operation to form a laminate composite and the layer have been joined in a second operation onto the laminate composite comprising the layers and. a) a layer which consists at least partly of polyethylene, b) a layer which consists at least partly of a polyurethane and or an elastomer, c) at least one layer which consists at least partly of a plastic reinforced by fibers, or which consists at least partly of an adhesive,
An outer flowpath ducting and front frame system in a turbofan engine comprising a fan containment structure, the engine outer flowpath ducting and front frame system comprising: a load housing comprising a primary composite load path circumferentially surrounding an engine centerline, extending from substantially an inlet inner barrel of the turbofan engine to an aft bypass of the turbofan engine, and defining the outer bypass flowpath; a secondary composite load path coupled to the primary composite load path and extending substantially from a forward side of the fan containment structure to the aft bypass, wherein the fan containment structure is in between the secondary composite load path and the primary composite load path; and a circular front frame assembly coupled to the load housing, comprising: i) a metallic hub; ii) a first number of aerodynamically determined composite fairings coupled to the metallic hub and extending radially from the metallic hub to the primary composite load path; and iii) a first number of load-bearing metal struts (340,702), each load-bearing metal strut coupled on a first end to the metallic hub and coupled on the second end to the primary composite load path. a load housing comprising a primary composite load path circumferentially surrounding an engine centerline, extending from substantially an inlet inner barrel of the turbofan engine to an aft bypass of the turbofan engine, and defining the outer bypass flowpath; a secondary composite load path coupled to the primary composite load path and extending substantially from a forward side of the fan containment structure to the aft bypass, wherein the fan containment structure is in between the secondary composite load path and the primary composite load path; and a circular front frame assembly coupled to the load housing, comprising: i) a metallic hub; ii) a first number of aerodynamically determined composite fairings coupled to the metallic hub and extending radially from the metallic hub to the primary composite load path; and iii) a first number of load-bearing metal struts (340,702), each load-bearing metal strut coupled on a first end to the metallic hub and coupled on the second end to the primary composite load path. i) a metallic hub; ii) a first number of aerodynamically determined composite fairings coupled to the metallic hub and extending radially from the metallic hub to the primary composite load path; and iii) a first number of load-bearing metal struts (340,702), each load-bearing metal strut coupled on a first end to the metallic hub and coupled on the second end to the primary composite load path.
A high-voltage discharge lamp lighting system which has a high-voltage discharge lamp, a starting pulse generation circuit for feeding a starting high-voltage to said high-voltage discharge lamp, and a control circuit for controlling said starting pulse generation circuit, characterized in that said starting pulse generation circuit comprises a transformer for boosting a pulse voltage produced by an ON/OFF operation of a switching element, a feedback voltage detection winding provided to said transformer, a voltage division circuit for dividing the voltage produced across said feedback voltage detection winding, and a pulse detection circuit which detects a starting pulse voltage component from the output of said voltage division circuit and feeds it back to said control circuit, wherein said control circuit maintains, at a predetermined value, the voltage after it is boosted by said transformer.