mhurhangee/patent-ind-claim-en huggingface dataset:
A connector including: a terminal fitting connected to an end of an electric wire , a housing including a terminal accommodating chamber configured to accommodate the terminal fitting , temperature sensors being thermistors each having a thermistor element for detecting a temperature , and a heat retaining cover , wherein the heat retaining cover is configured to: be attached to the housing such that the heat retaining cover covers a rear end portion of the housing ; and to retain heat inside the terminal accommodating chamber , wherein the heat retaining cover has an electric wire guiding out portion through which the electric wire and a detection line drawn out from the terminal accommodating chamber are to be inserted, the temperature sensors are attached to the respective terminal fitting , detection lines respectively connected to an end of the thermistor elements are drawn out from rear ends of the temperature sensors ; characterized in that one of the temperature sensors is fixed to an outer surface of an electric wire connection portion of the terminal fitting by a heat shrinkable tube such that the temperature sensor contacts the outer surface of the electric wire connection portion , and the other of the temperature sensors is fixed, by means of a sensor holder attached to the housing , to an outer surface of a base portion of an electric wire connection portion in the vicinity of a flange portion of the terminal fitting such that the temperature sensor contacts the outer surface of the base portion of the electric wire connection portion . a terminal fitting connected to an end of an electric wire , a housing including a terminal accommodating chamber configured to accommodate the terminal fitting , temperature sensors being thermistors each having a thermistor element for detecting a temperature , and a heat retaining cover , wherein the heat retaining cover is configured to: be attached to the housing such that the heat retaining cover covers a rear end portion of the housing ; and to retain heat inside the terminal accommodating chamber , wherein the heat retaining cover has an electric wire guiding out portion through which the electric wire and a detection line drawn out from the terminal accommodating chamber are to be inserted, the temperature sensors are attached to the respective terminal fitting , detection lines respectively connected to an end of the thermistor elements are drawn out from rear ends of the temperature sensors ; characterized in that one of the temperature sensors is fixed to an outer surface of an electric wire connection portion of the terminal fitting by a heat shrinkable tube such that the temperature sensor contacts the outer surface of the electric wire connection portion , and the other of the temperature sensors is fixed, by means of a sensor holder attached to the housing , to an outer surface of a base portion of an electric wire connection portion in the vicinity of a flange portion of the terminal fitting such that the temperature sensor contacts the outer surface of the base portion of the electric wire connection portion .
A method for wireless communication at a user equipment, UE , comprising: identifying a first control resource set (205-a) and a second control resource set (205-b), wherein resources of the first control resource set (205-a) at least partially overlap with resources of the second control resource set (205-b); identifying first locations for a first set of reference signals associated with the first control resource set (205-a), wherein the first locations correspond to the overlap of the first control resource set and the second control resource set; monitoring a first search space (310-a) of the first control resource set (205-a), wherein the monitoring the first search space (310-a) comprises rate-matching first downlink control channel resources of the first control resource set (205-a) for the first search space (310-a) independently of the second control resource set (205-b) and rate matching the first downlink control channel resources around the first locations; monitoring a second search space (310-b) of the second control resource set (205-b), wherein the monitoring the second search space (310-b) comprises rate-matching second downlink control channel resources of the second control resource set (205-b) for the second search space (310-b) independently of the first control resource set (205-a); and communicating with a base station based at least in part on control information identified as a result of the monitoring of the first search space (310-a) or the monitoring of the second search space (310-b). identifying a first control resource set (205-a) and a second control resource set (205-b), wherein resources of the first control resource set (205-a) at least partially overlap with resources of the second control resource set (205-b); identifying first locations for a first set of reference signals associated with the first control resource set (205-a), wherein the first locations correspond to the overlap of the first control resource set and the second control resource set; monitoring a first search space (310-a) of the first control resource set (205-a), wherein the monitoring the first search space (310-a) comprises rate-matching first downlink control channel resources of the first control resource set (205-a) for the first search space (310-a) independently of the second control resource set (205-b) and rate matching the first downlink control channel resources around the first locations; monitoring a second search space (310-b) of the second control resource set (205-b), wherein the monitoring the second search space (310-b) comprises rate-matching second downlink control channel resources of the second control resource set (205-b) for the second search space (310-b) independently of the first control resource set (205-a); and communicating with a base station based at least in part on control information identified as a result of the monitoring of the first search space (310-a) or the monitoring of the second search space (310-b).
CONNECTION OF A MEMORY ALLOY MATERIAL, characterized by being a sleeve connection made of a shaped memory alloy material , originally manufactured with an internal diameter (D1) shorter than the external diameter (D4) of the tubing, internally having a cover material made of dielectric material and, most internally, a layer of an anti-corrosive material which is contiguous to the external face of said tubing , said layer of an anti-corrosive material internally having protruding portions designed to grasp the external surface of the tubing , forming streaks .
A method of operating a base station, BS , comprising: at the BS : establishing communication with a first user equipment device, UE ; determining a transmission direction for each of a plurality of symbols included in a plurality of consecutive slots; transmitting a first slot format indicator, SFI, index of a plurality of SFI indices to the UE , wherein each SFI index of the plurality of SFI indices indicates a respective single slot format indicator for each respective slot of the plurality of consecutive slots, wherein each single slot format indicator indicates a respective transmission direction for each respective symbol of 14 symbols in a corresponding slot, and wherein each SFI index refers to an index-specific number of single slot format indicators corresponding to the index-specific number of consecutive slots; and performing communication during the index-specific number of consecutive slots according to the first SFI index. establishing communication with a first user equipment device, UE ; determining a transmission direction for each of a plurality of symbols included in a plurality of consecutive slots; transmitting a first slot format indicator, SFI, index of a plurality of SFI indices to the UE , wherein each SFI index of the plurality of SFI indices indicates a respective single slot format indicator for each respective slot of the plurality of consecutive slots, wherein each single slot format indicator indicates a respective transmission direction for each respective symbol of 14 symbols in a corresponding slot, and wherein each SFI index refers to an index-specific number of single slot format indicators corresponding to the index-specific number of consecutive slots; and performing communication during the index-specific number of consecutive slots according to the first SFI index.
A method for transmission of uplink control information, comprising: selecting , by a terminal, from at least one set of Physical Uplink Shared Channel, PUSCH, configuration parameters, a corresponding first PUSCH configuration parameter, according to at least one of a type of PUSCH or a type of uplink control information, wherein the at least one set of PUSCH configuration parameters comprises a set of scaling parameters corresponding to at least one of: different types of PUSCHs, or, different types of uplink control information, and each of the scaling parameters is configured to limit, when it is used by the terminal, a maximum number of Resource Elements, REs, assigned to a respective uplink control information on PUSCH; and transmitting , by the terminal, the uplink control information, based on the first PUSCH configuration parameter. selecting , by a terminal, from at least one set of Physical Uplink Shared Channel, PUSCH, configuration parameters, a corresponding first PUSCH configuration parameter, according to at least one of a type of PUSCH or a type of uplink control information, wherein the at least one set of PUSCH configuration parameters comprises a set of scaling parameters corresponding to at least one of: different types of PUSCHs, or, different types of uplink control information, and each of the scaling parameters is configured to limit, when it is used by the terminal, a maximum number of Resource Elements, REs, assigned to a respective uplink control information on PUSCH; and transmitting , by the terminal, the uplink control information, based on the first PUSCH configuration parameter.
A bushing assembly comprising: an inner component ; an outer component disposed over said inner component and an elastomeric bushing disposed between said inner component and said outer component; said inner component defines a generally cylindrical or generally spherical center section and said outer component is formed over said elastomeric bushing to encapsulate said elastomeric bushing, said outer component including ends curled over said elastomeric bushing to form bulging portions of said elastomeric bushing, characterized by a bearing in engagement with said inner component and disposed between said inner component and said elastomeric bushing , said inner component being able to pivot with respect to said bearing; said bearing including ends that are formed around said center section of said inner component; wherein said bulging portions of said elastomeric bushing seal against said inner component to seal the engagement between said bearing and said inner component . an inner component ; an outer component disposed over said inner component and an elastomeric bushing disposed between said inner component and said outer component; said inner component defines a generally cylindrical or generally spherical center section and said outer component is formed over said elastomeric bushing to encapsulate said elastomeric bushing, said outer component including ends curled over said elastomeric bushing to form bulging portions of said elastomeric bushing, characterized by a bearing in engagement with said inner component and disposed between said inner component and said elastomeric bushing , said inner component being able to pivot with respect to said bearing; said bearing including ends that are formed around said center section of said inner component; wherein said bulging portions of said elastomeric bushing seal against said inner component to seal the engagement between said bearing and said inner component .
A controller comprising: a voltage determination module that is configured to determine a desired direct current (DC) bus voltage for a DC bus electrically connected between a power factor correction, PFC, module and an inverter power module that is configured to drive a compressor motor , wherein the voltage determination module is configured to determine the desired DC bus voltage based on at least one of a torque of the compressor motor , a speed of the compressor motor , an output power of the inverter power module , and a drive input power; a bus voltage command module that is configured to determine a commanded bus voltage based on the desired DC bus voltage; and a PFC control module that is configured to control the PFC module to create a voltage on the DC bus that is based on the commanded bus voltage; wherein the bus voltage command module is configured to set the commanded bus voltage equal to a measured voltage of the DC bus when the controller transitions from an off state to an on state. a voltage determination module that is configured to determine a desired direct current (DC) bus voltage for a DC bus electrically connected between a power factor correction, PFC, module and an inverter power module that is configured to drive a compressor motor , wherein the voltage determination module is configured to determine the desired DC bus voltage based on at least one of a torque of the compressor motor , a speed of the compressor motor , an output power of the inverter power module , and a drive input power; a bus voltage command module that is configured to determine a commanded bus voltage based on the desired DC bus voltage; and a PFC control module that is configured to control the PFC module to create a voltage on the DC bus that is based on the commanded bus voltage; wherein the bus voltage command module is configured to set the commanded bus voltage equal to a measured voltage of the DC bus when the controller transitions from an off state to an on state.
Optical coupling arrangement , comprising a lightwave circuit, LC, ; a coupling element ; an optical waveguide element ; wherein the LC has a first surface area ; wherein the coupling element is attached to the first surface area such that an optical signal can be transmitted from the LC to the coupling element ; wherein the optical waveguide element is attached to the coupling element at a first junction zone such that the optical signal can be transmitted from the coupling element to the optical waveguide element ; wherein the coupling element is configured to perform mode transformation to the optical signal transmitted from the LC to the optical waveguide element , in particular such that adiabatic coupling of the optical signal to the optical waveguide element is enabled; and characterized in that : the junction zone is arranged at a lateral surface area of the coupling element ; the lateral surface area of the coupling element extends perpendicular to the first surface area of the LC ; and the coupling element is an element comprising an optical path optically connecting the junction zone with the first surface area of the LC , wherein the coupling element is a glass block used as a mode converter between the LC and the optical waveguide element , and the optical path is a waveguide written for defined in the glass block. the junction zone is arranged at a lateral surface area of the coupling element ; the lateral surface area of the coupling element extends perpendicular to the first surface area of the LC ; and the coupling element is an element comprising an optical path optically connecting the junction zone with the first surface area of the LC , wherein the coupling element is a glass block used as a mode converter between the LC and the optical waveguide element , and the optical path is a waveguide written for defined in the glass block.
A method for carrier aggregation performed by a user device, the method comprising: establishing, via a transceiver of the user device , a wireless link for communicating with one or more base stations of a wireless network, the wireless link including: a first component carrier of a first radio access technology, RAT, having a first transmission time interval, TTI; and a second component carrier of a second RAT having a second TTI, the second RAT being different from the first RAT and the second TTI being different from the first TTI; receiving user plane data from a base station of the one or more base stations via the second component carrier of the second RAT; analyzing the user plane data to determine whether data packets of the user plane data were successfully or unsuccessfully received by the user device; and transmitting, to another base station of the one or more base stations and via the transceiver of the user device, a feedback communication based on which data packets of the user plane data were successfully received, the feedback communication transmitted by puncturing a next available uplink subframe or time slot of the first component carrier of the first RAT, the puncturing comprising reassigning, for transmitting the feedback communication, one or more resource elements that, prior to being reassigned, were assigned to carry other data over the first component carrier. establishing, via a transceiver of the user device , a wireless link for communicating with one or more base stations of a wireless network, the wireless link including: a first component carrier of a first radio access technology, RAT, having a first transmission time interval, TTI; and a second component carrier of a second RAT having a second TTI, the second RAT being different from the first RAT and the second TTI being different from the first TTI; a first component carrier of a first radio access technology, RAT, having a first transmission time interval, TTI; and a second component carrier of a second RAT having a second TTI, the second RAT being different from the first RAT and the second TTI being different from the first TTI; receiving user plane data from a base station of the one or more base stations via the second component carrier of the second RAT; analyzing the user plane data to determine whether data packets of the user plane data were successfully or unsuccessfully received by the user device; and transmitting, to another base station of the one or more base stations and via the transceiver of the user device, a feedback communication based on which data packets of the user plane data were successfully received, the feedback communication transmitted by puncturing a next available uplink subframe or time slot of the first component carrier of the first RAT, the puncturing comprising reassigning, for transmitting the feedback communication, one or more resource elements that, prior to being reassigned, were assigned to carry other data over the first component carrier.
A method of testing for risk of a chromosomal abnormality in fetal DNA in a mixed sample of maternal and fetal DNA, the method comprising: (a) preparing a sequencing library from the mixed sample; (b) hybridizing the sequencing library to a pool of TArget Capture Sequences (TACS), wherein the pool of TACS comprises sequences that bind to one or more chromosomes of interest comprising a chromosomal abnormality and wherein: (i) each sequence within the pool is between 100-260 nucleotides in length, each sequence having a 5' end and a 3' end; (ii) each sequence within the pool binds to the chromosome(s) of interest at least 150 base pairs away, on both the 5' end and the 3' end, from regions harboring Copy Number Variations (CNVs), Segmental duplications or repetitive DNA elements; and (iii) the GC content of the TACS is between 19% and 50%; (c) isolating members of the sequencing library that bind to the TACS to obtain an enriched library; (d) amplifying and sequencing the enriched library; and (e) performing statistical analysis on the enriched library sequences to thereby determine a risk of the chromosomal abnormality in the fetal DNA. (a) preparing a sequencing library from the mixed sample; (b) hybridizing the sequencing library to a pool of TArget Capture Sequences (TACS), wherein the pool of TACS comprises sequences that bind to one or more chromosomes of interest comprising a chromosomal abnormality and wherein: (i) each sequence within the pool is between 100-260 nucleotides in length, each sequence having a 5' end and a 3' end; (ii) each sequence within the pool binds to the chromosome(s) of interest at least 150 base pairs away, on both the 5' end and the 3' end, from regions harboring Copy Number Variations (CNVs), Segmental duplications or repetitive DNA elements; and (iii) the GC content of the TACS is between 19% and 50%; (i) each sequence within the pool is between 100-260 nucleotides in length, each sequence having a 5' end and a 3' end; (ii) each sequence within the pool binds to the chromosome(s) of interest at least 150 base pairs away, on both the 5' end and the 3' end, from regions harboring Copy Number Variations (CNVs), Segmental duplications or repetitive DNA elements; and (iii) the GC content of the TACS is between 19% and 50%; (c) isolating members of the sequencing library that bind to the TACS to obtain an enriched library; (d) amplifying and sequencing the enriched library; and (e) performing statistical analysis on the enriched library sequences to thereby determine a risk of the chromosomal abnormality in the fetal DNA.
A copolymer prepared using two or more non-coordinating anion activators said copolymer comprising a first C 2 to C 12 alpha olefin, a second C 3 to C 12 alpha olefin different from the first alpha olefin, and diene, where the copolymer has: a) first alpha olefin content of 35 to 90 mol%; b) second alpha olefin content of 9.8 to 64.8 mol%; c) diene content of 0.2 to 5 mol%; d) a branching index g'ave of 0.95 or more; e) complex viscosity ratio (eta ∗ (0.01rad/s)/eta ∗ (100rad/s), at 125 °C) greater than 1.1 ∗ Y 0 , where Y 0 = Y1+{[(Y2-Y1)/(X2-X1)](X0-X1)}, where X 0 is the wt% of a first non-coordinating anion activator, NCA 1 , used to prepare the copolymer (based upon weight of NCA 1 and a second non-coordinating anion activator, NCA 2 , used to prepare the copolymer), X 1 = 0, X 2 = 100, Y 1 = complex viscosity ratio of polymer made with 100% NCA 1 and 0% NCA 2 , Y 2 is complex viscosity ratio of polymer made with 100% NCA 2 and 0% NCA 1 , where NCA 1 has an Mw lower than the Mw of NCA 2 ; f) an Mw/Mn of 5.0 or less; g) a melting point of 30°C or less; and h) a Composition Distribution Breadth Index of 50% or more. a) first alpha olefin content of 35 to 90 mol%; b) second alpha olefin content of 9.8 to 64.8 mol%; c) diene content of 0.2 to 5 mol%; d) a branching index g'ave of 0.95 or more; e) complex viscosity ratio (eta ∗ (0.01rad/s)/eta ∗ (100rad/s), at 125 °C) greater than 1.1 ∗ Y 0 , where Y 0 = Y1+{[(Y2-Y1)/(X2-X1)](X0-X1)}, where X 0 is the wt% of a first non-coordinating anion activator, NCA 1 , used to prepare the copolymer (based upon weight of NCA 1 and a second non-coordinating anion activator, NCA 2 , used to prepare the copolymer), X 1 = 0, X 2 = 100, Y 1 = complex viscosity ratio of polymer made with 100% NCA 1 and 0% NCA 2 , Y 2 is complex viscosity ratio of polymer made with 100% NCA 2 and 0% NCA 1 , where NCA 1 has an Mw lower than the Mw of NCA 2 ; f) an Mw/Mn of 5.0 or less; g) a melting point of 30°C or less; and h) a Composition Distribution Breadth Index of 50% or more.