mhurhangee/ep-ind-claims huggingface dataset:
A measurement method performed by a user equipment, UE, the measurement method comprising: receiving information for a band for received signal strength indicator, RSSI, measurement from a serving cell, wherein an active downlink, DL, bandwidth part, BWP is configured for downlink communication between the UE and a base station, and wherein the band for RSSI measurement is a frequency band included in the active DL BWP; performing reference signal received power, RSRP, measurement based on a, secondary synchronization signal, SSS, which is included in a synchronization signal block, SSB, received from the serving cell; performing the RSSI measurement based on a reference signal received within the active DL BWP, based on that a frequency band of the SSB is not included in the active DL BWP; and determining a reference signal received quality, RSRQ, based on the performed RSRP measurement and the performed RSSI measurement, wherein downlink communication between the serving cell and the UE is not performed within a frequency band other than the active DL BWP, and wherein the downlink communication between the serving cell and the UE is not performed within the frequency band of the SSB, based on that the frequency band of the SSB is not included in the active DL BWP. receiving information for a band for received signal strength indicator, RSSI, measurement from a serving cell, wherein an active downlink, DL, bandwidth part, BWP is configured for downlink communication between the UE and a base station, and wherein the band for RSSI measurement is a frequency band included in the active DL BWP; performing reference signal received power, RSRP, measurement based on a, secondary synchronization signal, SSS, which is included in a synchronization signal block, SSB, received from the serving cell; performing the RSSI measurement based on a reference signal received within the active DL BWP, based on that a frequency band of the SSB is not included in the active DL BWP; and determining a reference signal received quality, RSRQ, based on the performed RSRP measurement and the performed RSSI measurement, wherein downlink communication between the serving cell and the UE is not performed within a frequency band other than the active DL BWP, and wherein the downlink communication between the serving cell and the UE is not performed within the frequency band of the SSB, based on that the frequency band of the SSB is not included in the active DL BWP.
An arrangement comprising an electrical line, which has at least two wires (2, 3) consisting of insulated electrical conductors and a jacket made of insulating material, which surrounds the same jointly, and a coupling part which has a contact carrier made of insulating material having a connection side and a plug-in side located opposite the same, which has through-holes (7, 8), in which electrical contact parts (9, 10) insulated against each other are arranged, to which in the mounting position the electrical conductors of the line are connected on the connecting side of the contact carrier, in which via the connecting parts of conductors and contact parts a prefabricated housing surrounding the same made of insulating material is mounted, which, on the one hand, extends beyond the contact carrier and, on the other hand, beyond the line, in which the interior of the housing in the area of the line protruding into the same is filled as far as the contact carrier completely with a hot-melt adhesive based on polyamide, which adheres firmly and moisture-tight to the surrounded wires (2, 3) of the line and to the housing of the coupling part as well as to the jacket of the line protruding into the housing and which also abuts against the housing on the outside as a kind of bead, and in which the wires (2, 3) of the line protruding into the through-holes (7, 8) of the contact carrier are surrounded in the through-holes (7, 8) in each case by a seal (13, 14), which abuts tightly against the wires (2, 3), on the one hand, and against the walls of the through-holes (7, 8), on the other hand.
A method for operating a transmitting device using semi-orthogonal multiple access, SOMA, in a wireless local area network, WLAN, wherein the SOMA is a combination of power domain optimization and modulation division multiple access, MDMA, the method comprising: determining, by the transmitting device, a first quadrature amplitude modulation, QAM, bit allocation, a first coding rate, and a first SOMA group for a first receiving device and a second QAM bit allocation, a second coding rate, and a second SOMA group for a second receiving device in accordance with channel information associated with the first receiving device and the second receiving device, wherein SOMA groups are identified by a SOMA group identifier and a SOMA group identifier is used to identify receiving devices participating in a SOMA transmission; generating, by the transmitting device, a frame including indicators of the first and second QAM bit allocations, the first and second coding rates, and the first and second SOMA groups; and sending, by the transmitting device, the frame to the first receiving device and the second receiving device; wherein generating the frame comprises: for each SOMA group, populating a group identifier field with a SOMA group identifier associated with the SOMA group, and populating a modulation and coding scheme, MCS, field with a modulation and coding rate indicator for each receiving device associated with the SOMA group. determining, by the transmitting device, a first quadrature amplitude modulation, QAM, bit allocation, a first coding rate, and a first SOMA group for a first receiving device and a second QAM bit allocation, a second coding rate, and a second SOMA group for a second receiving device in accordance with channel information associated with the first receiving device and the second receiving device, wherein SOMA groups are identified by a SOMA group identifier and a SOMA group identifier is used to identify receiving devices participating in a SOMA transmission; generating, by the transmitting device, a frame including indicators of the first and second QAM bit allocations, the first and second coding rates, and the first and second SOMA groups; and sending, by the transmitting device, the frame to the first receiving device and the second receiving device; for each SOMA group, populating a group identifier field with a SOMA group identifier associated with the SOMA group, and populating a modulation and coding scheme, MCS, field with a modulation and coding rate indicator for each receiving device associated with the SOMA group.
A cargo bicycle conversion system for the reversible conversion of a subject bicycle into a cargo bicycle, comprising: a cargo conversion frame; at least one frame coupling component comprising a bottom bracket adapter configured to couple the cargo conversion frame to the bottom bracket of the subject bicycle and detachably connecting the cargo conversion frame to the frame of the subject bicycle; a steering adapter system comprising a functionally coupled steering assembly and fork coupling assembly functionally coupling a fork attached to the subject bicycle to a fork attached to the cargo conversion frame, wherein the steering assembly comprises a functionally coupled steering arm having a steering converter flange and steering linkage, and the fork coupling assembly comprises a functionally coupled fork mount and a fork rake adjuster plate; characterized by a brake adapter system functionally coupling a brake lever cable of the subject bicycle to a brake caliper cable attached to the cargo conversion frame. a cargo conversion frame; at least one frame coupling component comprising a bottom bracket adapter configured to couple the cargo conversion frame to the bottom bracket of the subject bicycle and detachably connecting the cargo conversion frame to the frame of the subject bicycle; a steering adapter system comprising a functionally coupled steering assembly and fork coupling assembly functionally coupling a fork attached to the subject bicycle to a fork attached to the cargo conversion frame, wherein the steering assembly comprises a functionally coupled steering arm having a steering converter flange and steering linkage, and the fork coupling assembly comprises a functionally coupled fork mount and a fork rake adjuster plate; characterized by a brake adapter system functionally coupling a brake lever cable of the subject bicycle to a brake caliper cable attached to the cargo conversion frame.
A method for monitoring a support for a trolley including a stabilizing means, characterized in that said method includes the steps of: - lowering the stabilizing means so as to raise at least part of the trolley, such as the front wheels of the trolley, relative to a given reference level, such as the ground level; - calculating predicted elevation of said at least one part of the trolley relative to said given reference level; - calculating actual elevation of said at least one part of the trolley relative to said given reference level, the calculation being done from parameters measured by sensors of the handling trolley, and - comparing the predicted elevation calculation and the actual elevation calculation to verify their coherence. - lowering the stabilizing means so as to raise at least part of the trolley, such as the front wheels of the trolley, relative to a given reference level, such as the ground level; - calculating predicted elevation of said at least one part of the trolley relative to said given reference level; - calculating actual elevation of said at least one part of the trolley relative to said given reference level, the calculation being done from parameters measured by sensors of the handling trolley, and - comparing the predicted elevation calculation and the actual elevation calculation to verify their coherence.
A compound having the structure of Formula, or a pharmaceutically acceptable salt thereof, wherein, W 1 and W 2 are independently chosen from N, C-H, or C-F; X is chosen from hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocyclyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclylalkyl, optionally substituted aralkyl, optionally substituted heteroarylalkyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is chosen from hydrogen, halogen, optionally substituted alkyl, or optionally substituted cycloalkylalkyl; and Z is chosen from an optionally substituted group chosen from N -heterocyclyl, -O-heterocyclylalkyl, -N -heterocyclylalkyl, -N -alkyl, -N(Me)-alkyl, or -N(Me)-heterocyclylalkyl. W 1 and W 2 are independently chosen from N, C-H, or C-F; X is chosen from hydrogen, optionally substituted alkyl, optionally substituted cycloalkyl, optionally substituted heterocyclyl, optionally substituted cycloalkylalkyl, optionally substituted heterocyclylalkyl, optionally substituted aralkyl, optionally substituted heteroarylalkyl, optionally substituted aryl, or optionally substituted heteroaryl; Y is chosen from hydrogen, halogen, optionally substituted alkyl, or optionally substituted cycloalkylalkyl; and Z is chosen from an optionally substituted group chosen from N -heterocyclyl, -O-heterocyclylalkyl, -N -heterocyclylalkyl, -N -alkyl, -N(Me)-alkyl, or -N(Me)-heterocyclylalkyl.
A lateral flow device comprising: a wicking pad composed of a porous material, the wicking pad having a region for applying a substrate comprising immobilized analytes; and wherein the wicking pad has a first end, a second end and two lateral edges; a first reservoir comprising a stack of a plurality of reagent layers located on the first end of the wicking pad; and a second reservoir comprising an absorbent pad located on the second end of the wicking pad. a wicking pad composed of a porous material, the wicking pad having a region for applying a substrate comprising immobilized analytes; and wherein the wicking pad has a first end, a second end and two lateral edges; a first reservoir comprising a stack of a plurality of reagent layers located on the first end of the wicking pad; and a second reservoir comprising an absorbent pad located on the second end of the wicking pad.
An electronic device comprising: a first housing including a first support member and a second support member; a second housing slidably coupled to the first housing; a sliding plate having a first end coupled to the first support member, and having a second end arranged to slide at least partially in the second housing; a printed circuit board which is arranged between the first support member and the second support member, and which has at least one heat-generating component mounted on one surface thereof; a sliding driving unit, which is arranged on an inner surface of the sliding plate, has a first end coupled to the first support member, and has a second end coupled to one side surface of the sliding plate; a thermal diffusion member (540, 1010) having a first side surface coupled to the first support member and a second side surface coupled to at least a portion of the sliding driving unit, and diffusing heat generated from the at least one heat-generating component; and a flexible display supported by the first support member and the sliding plate, wherein the thermal diffusion member (540, 1010) is formed to be unfolded according to a sliding-out operation of the sliding driving unit. a first housing including a first support member and a second support member; a second housing slidably coupled to the first housing; a sliding plate having a first end coupled to the first support member, and having a second end arranged to slide at least partially in the second housing; a printed circuit board which is arranged between the first support member and the second support member, and which has at least one heat-generating component mounted on one surface thereof; a sliding driving unit, which is arranged on an inner surface of the sliding plate, has a first end coupled to the first support member, and has a second end coupled to one side surface of the sliding plate; a thermal diffusion member (540, 1010) having a first side surface coupled to the first support member and a second side surface coupled to at least a portion of the sliding driving unit, and diffusing heat generated from the at least one heat-generating component; and a flexible display supported by the first support member and the sliding plate, wherein the thermal diffusion member (540, 1010) is formed to be unfolded according to a sliding-out operation of the sliding driving unit.
A method performed and/or controlled by at least one apparatus by using at least one processor of the at least one apparatus, comprising: - obtaining data associated with each road segment of at least one road segment, said data comprising: - a representative of at least one link associated with the respective road segment, wherein the at least one link comprises one or more road segments; - obtaining probe data associated with the respective road segment, the probe data comprising: - at least one piece of position information; - determining a sinuous driving metric, SDM, for use in the routing algorithm of an autonomous driving vehicle, which is a value being indicative of a sinuosity of driving on the respective road segment based at least on the obtained probe data and its allocation with respect to the respective road segment; wherein the sinuous driving metric is determined based at least on a lane distance metric, wherein the lane distance metric is determined based at least on the obtained data and the obtained probe data, wherein the lane distance metric indicates a measure of an average relative lateral movement of the at least one probe data associated with the at least one road segment, wherein the lateral movement is a lane change, and wherein the lane distance metric is determined based at least on a ratio between a lateral movement value and a forward movement value, wherein the lateral movement value and the forward movement value are determined based at least on the obtained data and the obtained probe data, - obtaining data associated with each road segment of at least one road segment, said data comprising: - a representative of at least one link associated with the respective road segment, wherein the at least one link comprises one or more road segments; - a representative of at least one link associated with the respective road segment, wherein the at least one link comprises one or more road segments; - obtaining probe data associated with the respective road segment, the probe data comprising: - at least one piece of position information; - at least one piece of position information; - determining a sinuous driving metric, SDM, for use in the routing algorithm of an autonomous driving vehicle, which is a value being indicative of a sinuosity of driving on the respective road segment based at least on the obtained probe data and its allocation with respect to the respective road segment; wherein the sinuous driving metric is determined based at least on a lane distance metric, wherein the lane distance metric is determined based at least on the obtained data and the obtained probe data, wherein the lane distance metric indicates a measure of an average relative lateral movement of the at least one probe data associated with the at least one road segment, wherein the lateral movement is a lane change, and
A microelectronic module, comprising: a module substrate having a substrate frontside and a substrate backside; a microelectronic device mounted to the substrate frontside; a substrate-embedded heat spreader thermally coupled to the microelectronic device, at least partially contained within the module substrate, and having a lower surface parallel with the substrate backside; and a thermal extension level adjacent the substrate backside and extending away therefrom to terminate at a module mount plane, the thermal extension level comprising a heat spreader extension bonded to and in thermal communication with the substrate-embedded heat spreader; and substrate-embedded terminals contained in the module substrate and having lower surfaces parallel with the substrate backside; wherein the thermal extension level further comprises terminal extensions comprising spars extending to an outer periphery of the module and bonded to the substrate-embedded terminals, the microelectronic device electrically coupled to the terminal extensions through the substrate-embedded terminals; wherein the heat spreader extension and at least one of the terminal extensions comprise singulated portions of a leadframe, wherein the heat spreader extension comprises a main body underlying the substrate-embedded heat spreader, as taken along a first axis orthogonal to the substrate backside; and at least one wing extending laterally from the main body to cover at least one of the substrate-embedded terminals, as taken along a second axis orthogonal to the substrate backside; and the microelectronic module further comprises a thermally-conductive bond layer bonding the heat spreader extension to the substrate-embedded heat spreader. a module substrate having a substrate frontside and a substrate backside; a microelectronic device mounted to the substrate frontside; a substrate-embedded heat spreader thermally coupled to the microelectronic device, at least partially contained within the module substrate, and having a lower surface parallel with the substrate backside; and a thermal extension level adjacent the substrate backside and extending away therefrom to terminate at a module mount plane, the thermal extension level comprising a heat spreader extension bonded to and in thermal communication with the substrate-embedded heat spreader; and substrate-embedded terminals contained in the module substrate and having lower surfaces parallel with the substrate backside; wherein the thermal extension level further comprises terminal extensions comprising spars extending to an outer periphery of the module and bonded to the substrate-embedded terminals, the microelectronic device electrically coupled to the terminal extensions through the substrate-embedded terminals;
A method comprising: recording a first location of a mobile device; determining, by one or more processors of a geographic-positioning component of the mobile device, on a periodic basis, a current location (1 - 6) of the mobile device; determining, by the processors of the geographic-positioning component, whether the current location (1 - 6) is outside a geographic region defined at least in part by the first location and a radius around the first location, wherein the radius is determined, by one or more client applications, based on: a detected velocity of the mobile device; time of day information; a battery level of the mobile device; and an error of the first location measurement; and if the current location (1 - 6) is outside the geographic region, then sending, by the processors of the geographic-positioning component, a message to one or more other processors of the mobile device, the message causing one or more of the other processors to transition from a sleep state to an active state. recording a first location of a mobile device; determining, by one or more processors of a geographic-positioning component of the mobile device, on a periodic basis, a current location (1 - 6) of the mobile device; determining, by the processors of the geographic-positioning component, whether the current location (1 - 6) is outside a geographic region defined at least in part by the first location and a radius around the first location, wherein the radius is determined, by one or more client applications, based on: a detected velocity of the mobile device; time of day information; a battery level of the mobile device; and an error of the first location measurement; and a detected velocity of the mobile device; time of day information; a battery level of the mobile device; and an error of the first location measurement; and if the current location (1 - 6) is outside the geographic region, then sending, by the processors of the geographic-positioning component, a message to one or more other processors of the mobile device, the message causing one or more of the other processors to transition from a sleep state to an active state.