mhurhangee/patent-ind-claim-en huggingface dataset:
A method of processing user input in a three-dimensional coordinate system , comprising: receiving a user input of an origin reset for the three-dimensional coordinate system having a user resettable origin; responsive to receiving the user input of the origin reset, resetting the resettable origin of the three-dimensional coordinate system; receiving three-dimensional user input in the three-dimensional coordinate system; until reception of a subsequent user input of an origin reset, measuring at least one three-dimensional displacement of the three-dimensional user input relative to the resettable origin ; and causing movement of a user interface element displayed in a user interface , the movement based on the at least one measured three-dimensional displacement. receiving a user input of an origin reset for the three-dimensional coordinate system having a user resettable origin; responsive to receiving the user input of the origin reset, resetting the resettable origin of the three-dimensional coordinate system; receiving three-dimensional user input in the three-dimensional coordinate system; until reception of a subsequent user input of an origin reset, measuring at least one three-dimensional displacement of the three-dimensional user input relative to the resettable origin ; and causing movement of a user interface element displayed in a user interface , the movement based on the at least one measured three-dimensional displacement.
A tire comprising: a tread portion ; a sidewall portion ; a bead portion ; a bead core provided in the bead portion ; and a carcass ply covering at least a portion around the bead core , wherein the carcass ply includes a sewn portion in which a conductive thread is sewn, wherein the tire further comprises: a conductive portion extending along the carcass ply and located outside the carcass ply in a tire radial direction in the tread portion ; and a chafer portion having conductivity and covering at least a portion around the carcass ply , characterized in that the sewn portion is sewn through the carcass ply , and includes a first seam portion which is in contact with the chafer portion and a second seam portion which is in contact with the conductive portion ; wherein a volume resistivity of the conductive portion is smaller than a volume resistivity of the chafer portion . a tread portion ; a sidewall portion ; a bead portion ; a bead core provided in the bead portion ; and a carcass ply covering at least a portion around the bead core , wherein the carcass ply includes a sewn portion in which a conductive thread is sewn, wherein the tire further comprises: a conductive portion extending along the carcass ply and located outside the carcass ply in a tire radial direction in the tread portion ; and a chafer portion having conductivity and covering at least a portion around the carcass ply , characterized in that the sewn portion is sewn through the carcass ply , and includes a first seam portion which is in contact with the chafer portion and a second seam portion which is in contact with the conductive portion ; wherein a volume resistivity of the conductive portion is smaller than a volume resistivity of the chafer portion . a conductive portion extending along the carcass ply and located outside the carcass ply in a tire radial direction in the tread portion ; and a chafer portion having conductivity and covering at least a portion around the carcass ply , characterized in that the sewn portion is sewn through the carcass ply , and includes a first seam portion which is in contact with the chafer portion and a second seam portion which is in contact with the conductive portion ; wherein a volume resistivity of the conductive portion is smaller than a volume resistivity of the chafer portion .
A method for transmitting uplink transmission power control information, wherein the method is applied in a scenario of carrier aggregation wherein multiple downlink component carriers correspond to multiple uplink component carriers, characterized in that the method comprises : transmitting uplink transmission power control information in a downlink control information format 3/3A of all uplink component carriers allocated to a user equipment, UE, to the UE by one downlink component carrier; wherein the uplink transmission power control information comprises transmit power control, TPC, commands for the all uplink component carriers, and each of the TPC commands corresponds to one uplink component carrier; wherein the downlink component carrier has a corresponding relation with at least one uplink component carrier in all the uplink component carriers; wherein the downlink component carrier has the corresponding relation with an uplink component carrier which transmits uplink control information of the UE. transmitting uplink transmission power control information in a downlink control information format 3/3A of all uplink component carriers allocated to a user equipment, UE, to the UE by one downlink component carrier; wherein the uplink transmission power control information comprises transmit power control, TPC, commands for the all uplink component carriers, and each of the TPC commands corresponds to one uplink component carrier; wherein the downlink component carrier has a corresponding relation with at least one uplink component carrier in all the uplink component carriers; wherein the downlink component carrier has the corresponding relation with an uplink component carrier which transmits uplink control information of the UE.
Method of preserving a tissue sample comprising the steps of: providing a container , providing a cover including a member configured to break a seal and a top member with a receptacle filled with a preserving agent and sealed with the seal , placing a tissue sample in said container before the cover is engaged with the container , engaging said cover with the container , thereby fluid tightly sealing the cover to the container, displacing the member and/or the seal by engaging engagement means of the member with engagement means on the top member of the cover , whereby the seal is broken and the preserving agent is entered into the container . providing a container , providing a cover including a member configured to break a seal and a top member with a receptacle filled with a preserving agent and sealed with the seal , placing a tissue sample in said container before the cover is engaged with the container , engaging said cover with the container , thereby fluid tightly sealing the cover to the container, displacing the member and/or the seal by engaging engagement means of the member with engagement means on the top member of the cover , whereby the seal is broken and the preserving agent is entered into the container .
A method for transmitting periodic channel information by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information including information on a period and an offset for channel status information, CSI, reporting of a plurality of serving cells and a higher layer signal for setting an uplink control information, UCI, physical uplink shared channel, PUSCH, operation mode: wherein the higher layer signal is defined as a parameter being zero if the UCI PUSCH operation mode is not set, and wherein said parameter is one, if the UCI PUSCH operation mode is set; transmitting a single CSI report through a physical uplink control channel, PUCCH, in one sub-frame of a serving cell, said one sub-frame defined by the information on the period and the offset, in case that the UCI PUSCH mode in not set; and transmitting, in case that the UCI PUSCH mode is set and transmission time instants of at least two CSI reports coincide with each other in the one sub-frame, the at least two CSI reports through PUSCH; wherein if the PUSCH transmission collides with a PUCCH transmission including a hybrid automatic repeat request-acknowledgement, HARQ-ACK, in the one sub-frame, the terminal transmits UCI of the PUCCH having the collision through UCI PUSCH and does not perform PUCCH transmission receiving, from a base station, configuration information including information on a period and an offset for channel status information, CSI, reporting of a plurality of serving cells and a higher layer signal for setting an uplink control information, UCI, physical uplink shared channel, PUSCH, operation mode: wherein the higher layer signal is defined as a parameter being zero if the UCI PUSCH operation mode is not set, and wherein said parameter is one, if the UCI PUSCH operation mode is set; transmitting a single CSI report through a physical uplink control channel, PUCCH, in one sub-frame of a serving cell, said one sub-frame defined by the information on the period and the offset, in case that the UCI PUSCH mode in not set; and transmitting, in case that the UCI PUSCH mode is set and transmission time instants of at least two CSI reports coincide with each other in the one sub-frame, the at least two CSI reports through PUSCH; wherein if the PUSCH transmission collides with a PUCCH transmission including a hybrid automatic repeat request-acknowledgement, HARQ-ACK, in the one sub-frame, the terminal transmits UCI of the PUCCH having the collision through UCI PUSCH and does not perform PUCCH transmission
A nose landing gear system, comprising: an electric motor ; a hydraulic pump connected to the electric motor; a gearbox connected to the electric motor; and a clutch configured to mechanically couple the gearbox to a steering collar . an electric motor ; a hydraulic pump connected to the electric motor; a gearbox connected to the electric motor; and a clutch configured to mechanically couple the gearbox to a steering collar .
Connection device for a screening conductor of an electrical line , having - a housing which is able to be fitted on an electrically conductive section and into which the electrical line is able to be inserted with the screening conductor , - a spring element (11; 11') which is arranged in an adjustable manner on the housing and has an actuation limb (110; 110') and a clamping limb and is moveable from an opening position into a clamping position relative to the housing in order, in the clamping position, to act by way of the clamping limb on the screening conductor of the electrical line inserted in the housing , and - a cover (13; 13') which is fastened to the actuation limb (110; 110') of the spring element (11; 11') and at least sectionally covers said actuation limb, characterized by - a tool engagement means for release of the spring element (11; 11') from the clamping position is arranged on an end section of the actuation limb (110; 110'), - the cover (13; 13') forms a supporting surface against which a tool in engagement with the tool engagement means can be supported. - a housing which is able to be fitted on an electrically conductive section and into which the electrical line is able to be inserted with the screening conductor , - a spring element (11; 11') which is arranged in an adjustable manner on the housing and has an actuation limb (110; 110') and a clamping limb and is moveable from an opening position into a clamping position relative to the housing in order, in the clamping position, to act by way of the clamping limb on the screening conductor of the electrical line inserted in the housing , and - a cover (13; 13') which is fastened to the actuation limb (110; 110') of the spring element (11; 11') and at least sectionally covers said actuation limb, characterized by - a tool engagement means for release of the spring element (11; 11') from the clamping position is arranged on an end section of the actuation limb (110; 110'), - the cover (13; 13') forms a supporting surface against which a tool in engagement with the tool engagement means can be supported.
A method for manufacturing a cosmetic sheet , the method comprising: a preparation step for preparing a pair of base papers that include cellulose fiber at 50% by mass or more, and have a thickness of 15 μm or more but less than 60 μm; a laminating step for forming a laminate by arranging a thermoplastic resin layer having a melting point of no less than 100°C and no greater than 200°C and having a thickness of no less than 20 μm and no greater than 70 μm between the pair of base papers , and adhering together the pair of base papers using the thermoplastic resin layer ; a processing step of applying an embossed shape to the laminate by passing the laminate between an embossing roll having a maximum depth of 15 μm or greater and a rubber back roll having a flat surface and having a hardness of 50° or greater but less than 95° that is measured based on ISO 7619, thereby applying an uneven shape to the rear surface as well as the front surface of the laminate; and an inkjet printing step on a surface of the laminate before or after the processing step. a preparation step for preparing a pair of base papers that include cellulose fiber at 50% by mass or more, and have a thickness of 15 μm or more but less than 60 μm; a laminating step for forming a laminate by arranging a thermoplastic resin layer having a melting point of no less than 100°C and no greater than 200°C and having a thickness of no less than 20 μm and no greater than 70 μm between the pair of base papers , and adhering together the pair of base papers using the thermoplastic resin layer ; a processing step of applying an embossed shape to the laminate by passing the laminate between an embossing roll having a maximum depth of 15 μm or greater and a rubber back roll having a flat surface and having a hardness of 50° or greater but less than 95° that is measured based on ISO 7619, thereby applying an uneven shape to the rear surface as well as the front surface of the laminate; and an inkjet printing step on a surface of the laminate before or after the processing step.
A computer-implemented method, comprising: receiving an input mesh representation of a cardiac chamber, a set of measured locations on a wall tissue of the cardiac chamber, and a respective set of local activation times (LATs) measured at the locations ; re-meshing the input mesh into a regular mesh comprising regularized polygons ; data fitting the set of measured locations and respective LATs to the regularized polygons ; iteratively calculating for the regularized polygons respective LAT values, so as to obtain a cyclic EP activation wave solution over the regular mesh that take account of reentry of an EP wave (80-90, 304), wherein iteratively calculating the LAT values comprises iteratively solving a set of complex valued equations that are configured to describe the reentry of an EP wave by including a reentry cycle length value; and presenting an electroanatomical map comprising the cyclic EP activation wave overlaid on the regular mesh . receiving an input mesh representation of a cardiac chamber, a set of measured locations on a wall tissue of the cardiac chamber, and a respective set of local activation times (LATs) measured at the locations ; re-meshing the input mesh into a regular mesh comprising regularized polygons ; data fitting the set of measured locations and respective LATs to the regularized polygons ; iteratively calculating for the regularized polygons respective LAT values, so as to obtain a cyclic EP activation wave solution over the regular mesh that take account of reentry of an EP wave (80-90, 304), wherein iteratively calculating the LAT values comprises iteratively solving a set of complex valued equations that are configured to describe the reentry of an EP wave by including a reentry cycle length value; and presenting an electroanatomical map comprising the cyclic EP activation wave overlaid on the regular mesh .
A yeast beta-glucan comprising a plurality of β- side chains linked to a β- backbone via β- linkages and having a range of average molecular weights from about 6 kDa to about 30 kDa for use in a method for enhancing the immunogenicity of a poorly immunogenic antigen-specific vaccine in a subject in need thereof to treat an infection, the method comprising: (a) administering to the subject an effective amount of the poorly immunogenic antigen-specific vaccine, wherein the poorly immunogenic antigen-specific vaccine (i) comprises inactivated, partially purified or recombinant hemagglutinin (HA) protein that is optionally linked to a carrier; and (ii) is not a whole cell tumor vaccine; and (b) administering to the subject an effective amount of the yeast beta-glucan, and wherein the immunogenicity of the poorly immunogenic antigen-specific vaccine in the subject is increased compared to that observed in a control subject that is not treated with the yeast beta-glucan wherein the infection in influenza. (a) administering to the subject an effective amount of the poorly immunogenic antigen-specific vaccine, wherein the poorly immunogenic antigen-specific vaccine (i) comprises inactivated, partially purified or recombinant hemagglutinin (HA) protein that is optionally linked to a carrier; and (ii) is not a whole cell tumor vaccine; and (i) comprises inactivated, partially purified or recombinant hemagglutinin (HA) protein that is optionally linked to a carrier; and (ii) is not a whole cell tumor vaccine; and (b) administering to the subject an effective amount of the yeast beta-glucan, and wherein the immunogenicity of the poorly immunogenic antigen-specific vaccine in the subject is increased compared to that observed in a control subject that is not treated with the yeast beta-glucan wherein the infection in influenza.
An image processing device comprising: a decoding unit for performing a decoding process on an encoded stream for generating an image, the encoded stream being arranged into largest coding units, LCUs, wherein filtering parameters of an adaptive offset filter applicable to each LCU are read from the beginning of the corresponding LCU; and an adaptive offset filter unit for performing adaptive offset filtering on portions of the image that correspond to the LCUs using the filtering parameters of the adaptive offset filter read from the beginning of each respective LCU. a decoding unit for performing a decoding process on an encoded stream for generating an image, the encoded stream being arranged into largest coding units, LCUs, wherein filtering parameters of an adaptive offset filter applicable to each LCU are read from the beginning of the corresponding LCU; and an adaptive offset filter unit for performing adaptive offset filtering on portions of the image that correspond to the LCUs using the filtering parameters of the adaptive offset filter read from the beginning of each respective LCU.
A method for wireless communication at a user equipment, UE, comprising: receiving a beam training sequence transmitted by a network access device on a plurality of transmit beams; identifying, based at least in part on the received beam training sequence, one or more sets of multiple transmit beams that are compatible with at least one configuration for routing signals between antenna subarrays of the UE and transceiver units, TXRUs, of the UE, wherein the at least one configuration for routing signals is defined by a configuration of switches or other elements of the UE that connects a number of antennas subarrays of the UE to a number of TXRUs of the UE, and wherein the number of antenna subarrays of the UE exceeds the number of TXRUs of the UE; and transmitting, to the network access device, an indication of the identified one or more sets of multiple transmit beams, wherein the indication of the identified one or more sets of multiple transmit beams comprises at least an indication, for each received beam of the plurality of transmit beams, of a set of one or more TXRUs of the UE and associated routing configuration parameters of the UE usable to receive the beam. receiving a beam training sequence transmitted by a network access device on a plurality of transmit beams; identifying, based at least in part on the received beam training sequence, one or more sets of multiple transmit beams that are compatible with at least one configuration for routing signals between antenna subarrays of the UE and transceiver units, TXRUs, of the UE, wherein the at least one configuration for routing signals is defined by a configuration of switches or other elements of the UE that connects a number of antennas subarrays of the UE to a number of TXRUs of the UE, and wherein the number of antenna subarrays of the UE exceeds the number of TXRUs of the UE; and transmitting, to the network access device, an indication of the identified one or more sets of multiple transmit beams, wherein the indication of the identified one or more sets of multiple transmit beams comprises at least an indication, for each received beam of the plurality of transmit beams, of a set of one or more TXRUs of the UE and associated routing configuration parameters of the UE usable to receive the beam.
A driving force control device for an electric vehicle having a plurality of motors (106a-106d), which independently drive a plurality of wheels (107a-107d), and a plurality of inverters (105a-105d), which control a drive current for each of the motors (106a-106d) in accordance with a driving force command value, the driving force control device comprising: target driving force calculation means that are configured to calculate a target driving force for each of the motors (106a-106d) in accordance with a vehicle operation performed by an operator of the vehicle or with the running status of the vehicle; command value output means that are configured to output the driving force command value to the inverters (105a-105d), characterized by determination means that are configured to determine whether the motors (106a-106d) engaged in power running and in regeneration coexist when each of the motors (106a-106d) is driven by the target driving force; driving force command value calculation means which are configured to, if the determination means determines that the motors (106a-106d) engaged in power running and in regeneration coexist, adjust the distribution of driving force for each of the motors (106a-106d), without changing an amount of yaw moment generation, in accordance with the target driving force for each of the motors (106a-106d) such that all the motors (106a-106d) are engaged in either power running or regeneration, and calculate an actual driving force command value for each of the motors (106a-106d) in accordance with the adjusted distribution of driving force for each of the motors (106a-106d). target driving force calculation means that are configured to calculate a target driving force for each of the motors (106a-106d) in accordance with a vehicle operation performed by an operator of the vehicle or with the running status of the vehicle; command value output means that are configured to output the driving force command value to the inverters (105a-105d), characterized by determination means that are configured to determine whether the motors (106a-106d) engaged in power running and in regeneration coexist when each of the motors (106a-106d) is driven by the target driving force; driving force command value calculation means which are configured to, if the determination means determines that the motors (106a-106d) engaged in power running and in regeneration coexist, adjust the distribution of driving force for each of the motors (106a-106d), without changing an amount of yaw moment generation, in accordance with the target driving force for each of the motors (106a-106d) such that all the motors (106a-106d) are engaged in either power running or regeneration, and calculate an actual driving force command value for each of the motors (106a-106d) in accordance with the adjusted distribution of driving force for each of the motors (106a-106d).