mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: processing data symbols based on a transmit diversity scheme to generate coded symbols; and performing spatial processing on the coded symbols to generate transmit symbols for transmission via a plurality of antennas; wherein the processing the data symbols based on the transmit diversity scheme comprises processing the data symbols based on a space-time transmit diversity, STTD, scheme, a space-frequency transmit diversity, SFTD, scheme, or an orthogonal transmit diversity, OTD, scheme to generate the coded symbols; characterized in that the performing spatial processing on the coded symbols comprises performing spatial spreading with a plurality of steering matrices, and using different steering matrices for different frequency subbands, different time intervals, or both. processing data symbols based on a transmit diversity scheme to generate coded symbols; and performing spatial processing on the coded symbols to generate transmit symbols for transmission via a plurality of antennas; wherein the processing the data symbols based on the transmit diversity scheme comprises processing the data symbols based on a space-time transmit diversity, STTD, scheme, a space-frequency transmit diversity, SFTD, scheme, or an orthogonal transmit diversity, OTD, scheme to generate the coded symbols; characterized in that the performing spatial processing on the coded symbols comprises performing spatial spreading with a plurality of steering matrices, and using different steering matrices for different frequency subbands, different time intervals, or both.
A method comprising: generating a first set of unique identifiers for each row in each table of a first database and a second set of unique identifiers for each row in each table of a second database, characterised in that the first database is configured to operate a first switch operating traffic on a network and the second database is configured to operate a second switch on the network, the first switch and the second switch configured to operate traffic on the network; and the method further comprises: creating a mapping between the first set of unique identifiers and the second set of unique identifiers; determining that a first row of the first database is marked to be synchronized, the first row corresponding to a first unique row ID; retrieving a second row of the second database corresponding to a second unique row ID mapped to the first unique row ID; and updating the second row. generating a first set of unique identifiers for each row in each table of a first database and a second set of unique identifiers for each row in each table of a second database, characterised in that the first database is configured to operate a first switch operating traffic on a network and the second database is configured to operate a second switch on the network, the first switch and the second switch configured to operate traffic on the network; and creating a mapping between the first set of unique identifiers and the second set of unique identifiers; determining that a first row of the first database is marked to be synchronized, the first row corresponding to a first unique row ID; retrieving a second row of the second database corresponding to a second unique row ID mapped to the first unique row ID; and updating the second row.
A directional backlight comprising: a waveguide comprising an input end; and an array of input light sources arranged at different input positions in a lateral direction across the input end of the waveguide and arranged to input input light into the waveguide, the waveguide further comprising first and second opposed, laterally extending guide surfaces (6, 8) for guiding light along the waveguide, side surfaces extending between the first and second guide surfaces (6, 8), and a reflective end facing the input end for reflecting the input light back along the waveguide and having positive optical power laterally, the second guide surface being arranged to deflect the reflected input light through the first guide surface as output light, and the waveguide being arranged to direct the output light into optical windows in output directions that are distributed in a lateral direction in dependence on the input position of the input light, characterized by further comprising additional light sources disposed along only a part of each side surface adjacent the input end, the additional light sources being arranged to direct additional light into the waveguide through a respective one of the side surfaces in a direction in which the additional light is reflected by the reflective end onto the opposite side surface and by the opposite side surface into a segment of the waveguide adjacent the opposite side surface extending from a corner between the reflective end and the opposite side surface. a waveguide comprising an input end; and an array of input light sources arranged at different input positions in a lateral direction across the input end of the waveguide and arranged to input input light into the waveguide, the waveguide further comprising first and second opposed, laterally extending guide surfaces (6, 8) for guiding light along the waveguide, side surfaces extending between the first and second guide surfaces (6, 8), and a reflective end facing the input end for reflecting the input light back along the waveguide and having positive optical power laterally, the second guide surface being arranged to deflect the reflected input light through the first guide surface as output light, and the waveguide being arranged to direct the output light into optical windows in output directions that are distributed in a lateral direction in dependence on the input position of the input light, characterized by further comprising additional light sources disposed along only a part of each side surface adjacent the input end, the additional light sources being arranged to direct additional light into the waveguide through a respective one of the side surfaces in a direction in which the additional light is reflected by the reflective end onto the opposite side surface and by the opposite side surface into a segment of the waveguide adjacent the opposite side surface extending from a corner between the reflective end and the opposite side surface.
A method for wireless communication at a user equipment, UE, that is in a connected mode with a base station without an active data connection, the method comprising: transmitting, a first non-access stratum, NAS, message over a control plane to the base station; receiving, a second NAS message over the control plane that includes policy information associated with the UE, the second NAS message being responsive to the first NAS message; identifying the policy information based at least in part on the receiving the second NAS message; and updating policy information stored by the UE based at least in part on the received policy information. transmitting, a first non-access stratum, NAS, message over a control plane to the base station; receiving, a second NAS message over the control plane that includes policy information associated with the UE, the second NAS message being responsive to the first NAS message; identifying the policy information based at least in part on the receiving the second NAS message; and updating policy information stored by the UE based at least in part on the received policy information.
An integrated circuit comprising circuitry operable to: control a reception of data transmitted on Physical Resource Blocks, PRBs, each PRB being comprised of a plurality of subcarriers, to which Distributed Virtual Resource Blocks, DVRBs' with consecutive numbers are mapped while the DVRB numbers are interleaved using a block interleaver, which writes the DVRB numbers row by row and reads them out column by column; wherein the DVRBs are mapped to the PRBs such that: two DVRBs with consecutive numbers are respectively mapped to two PRBs that are distributed in a frequency domain, such that the DVRB numbers, mapped to PRBs that are next each other in the frequency domain, are inconsecutive, and two DVRBs, mapped to PRBs in the same frequency and in different times within a subframe, have DVRB numbers, a difference among which is less than or equal to two, control a reception of allocation information, which is comprised of a starting DVRB number and a number of DVRBs with consecutive numbers that are allocated to a mobile station comprising the integrated circuit; and decode said data based on said allocation information. control a reception of data transmitted on Physical Resource Blocks, PRBs, each PRB being comprised of a plurality of subcarriers, to which Distributed Virtual Resource Blocks, DVRBs' with consecutive numbers are mapped while the DVRB numbers are interleaved using a block interleaver, which writes the DVRB numbers row by row and reads them out column by column; wherein the DVRBs are mapped to the PRBs such that: two DVRBs with consecutive numbers are respectively mapped to two PRBs that are distributed in a frequency domain, such that the DVRB numbers, mapped to PRBs that are next each other in the frequency domain, are inconsecutive, and two DVRBs, mapped to PRBs in the same frequency and in different times within a subframe, have DVRB numbers, a difference among which is less than or equal to two, control a reception of allocation information, which is comprised of a starting DVRB number and a number of DVRBs with consecutive numbers that are allocated to a mobile station comprising the integrated circuit; and decode said data based on said allocation information. two DVRBs with consecutive numbers are respectively mapped to two PRBs that are distributed in a frequency domain, such that the DVRB numbers, mapped to PRBs that are next each other in the frequency domain, are inconsecutive, and two DVRBs, mapped to PRBs in the same frequency and in different times within a subframe, have DVRB numbers, a difference among which is less than or equal to two, control a reception of allocation information, which is comprised of a starting DVRB number and a number of DVRBs with consecutive numbers that are allocated to a mobile station comprising the integrated circuit; and decode said data based on said allocation information.
A damper for a fitting for movably supporting a pivoting element or a pull-out element, in particular for movably supporting a furniture part, a window or a door, relative to a stationary carrier, comprising: - a damper housing, - at least one fluid chamber arranged in the damper housing, - a damping fluid arranged in the fluid chamber, - at least one piston displaceably supported in the fluid chamber, - at least one, preferably ring-shaped, sealing element having at least a first section which bears against or which is configured to bear against an inner wall of the fluid chamber, - wherein the at least one sealing element is axially displaceably supported on the at least one piston, preferably in a limited manner, - wherein at least one overload channel is provided which is preferably arranged in the at least one piston, characterized in that - the at least one sealing element includes at least one, preferably substantially ring-shaped, second section, the second section being spaced apart from the inner wall of the fluid chamber and being configured to be moved, preferably pivoted, tilted and/or radially widened, above a predetermined threshold value of a pressure application to the piston, relative to the first section which bears against or which is configured to bear against the inner wall of the fluid chamber, - wherein the at least one overload channel, when a damping stroke is performed below the predetermined threshold value of a pressure application to the piston, is covered by the second section of the at least one sealing element, and is at least partially open above the predetermined threshold value of a pressure application to the piston. - a damper housing, - at least one fluid chamber arranged in the damper housing, - a damping fluid arranged in the fluid chamber, - at least one piston displaceably supported in the fluid chamber, - at least one, preferably ring-shaped, sealing element having at least a first section which bears against or which is configured to bear against an inner wall of the fluid chamber, - wherein the at least one sealing element is axially displaceably supported on the at least one piston, preferably in a limited manner, - wherein at least one overload channel is provided which is preferably arranged in the at least one piston, - the at least one sealing element includes at least one, preferably substantially ring-shaped, second section, the second section being spaced apart from the inner wall of the fluid chamber and being configured to be moved, preferably pivoted, tilted and/or radially widened, above a predetermined threshold value of a pressure application to the piston, relative to the first section which bears against or which is configured to bear against the inner wall of the fluid chamber, - wherein the at least one overload channel, when a damping stroke is performed below the predetermined threshold value of a pressure application to the piston, is covered by the second section of the at least one sealing element, and is at least partially open above the predetermined threshold value of a pressure application to the piston.
Edge strip roller, wherein the edge strip roller comprises at least two different edge strips, characterised in that the edge strips differ in at least one of the features: decoration, geometry, material, consistency, surface property or layer structure, wherein the edge strips are arranged in the longitudinal direction lying one behind another, i.e. edge-to-edge, and are connected directly to one another, wherein the edge strip roller comprises at least one information carrier which provides at least one item of information relating to the edge strip roller, wherein the information carrier is arranged at the connection points of adjacent edge strips.
A method for performing group communication by transmitting synchronization signals for a Device-to-Device, D2D, link at a user equipment, UE, in a wireless communication system, the method carried out by a UE comprising; receiving a plurality of first synchronization signals for the D2D link, each of the plurality of first synchronization signals including a group ID and a tier count indicating a number of tiers from which a specific UE is apart from a UE that has initially activated the group communication, selecting one of at least one first synchronization signal having a highest priority, the priority being determined using a reception quality of the at least one first synchronization signal and the tier count; generating a second synchronization signal for the D2D link using the selected first synchronization signal the second synchronization signal having a tier count incremented by 1 from the tier count of the selected first synchronization signal; and transmitting the second synchronization signal.
A driving method of an inkjet head having two or more rows (a, B) of pressure chambers having a pressure for ejecting internal ink from a nozzle generated by a pressure applier operated by application of a driving signal, the pressure chambers in the rows (A, B) of the pressure chambers being in communication with each other through a common ink chamber, wherein the rows (A, B) of the pressure chambers are divided into N driving groups, wherein N is an integer of two or more, characterised in that a phase difference of nAL+t between the different driving groups is applied to the driving signals applied to the pressure appliers of the pressure chambers, wherein n is an integer of one or more, wherein AL is 1/2 of an acoustic resonance period of a pressure wave in the pressure chambers, and wherein t is a pressure wave transmission time obtained from an inter-nozzle distance between the driving groups / a speed of sound traveling through the ink.
A multiprocessor system having a plurality of processor units including a single type or plural types of processors, the system comprising: a clock supply unit for supplying one of a plurality of clock frequencies as a system clock to each processor unit; a power supply unit for supplying one of a plurality of voltages as a clock voltage to each processor unit; a local memory or cache memory, which is provided in each processor unit and is arranged to store data or commands; a shared memory accessed from the plurality of processor units; and a local bus for connecting the shared memory to the processor units; and a system control register, which is provided in each processor unit, for setting a system clock and a system voltage to be supplied to the processor and the local memory in the processor unit by software control, characterized in that: the system control register has bit fields for storing values of clock frequencies and system voltages to be set to frequency and voltage control targets in each processor unit included in the multiprocessor system, and the system control register has an address and the fields have individual addresses (PUx_FV, PUx_LM0_FV) in a global address space. a clock supply unit for supplying one of a plurality of clock frequencies as a system clock to each processor unit; a power supply unit for supplying one of a plurality of voltages as a clock voltage to each processor unit; a local memory or cache memory, which is provided in each processor unit and is arranged to store data or commands; a shared memory accessed from the plurality of processor units; and a local bus for connecting the shared memory to the processor units; and a system control register, which is provided in each processor unit, for setting a system clock and a system voltage to be supplied to the processor and the local memory in the processor unit by software control, characterized in that: the system control register has bit fields for storing values of clock frequencies and system voltages to be set to frequency and voltage control targets in each processor unit included in the multiprocessor system, and the system control register has an address and the fields have individual addresses (PUx_FV, PUx_LM0_FV) in a global address space. the system control register has bit fields for storing values of clock frequencies and system voltages to be set to frequency and voltage control targets in each processor unit included in the multiprocessor system, and the system control register has an address and the fields have individual addresses (PUx_FV, PUx_LM0_FV) in a global address space.
A thermally conductive silicone grease composition that is non-curable, comprising: A. 100 parts by mass of a non-curable silicone oil with a kinematic viscosity of 50 to 10000 mm 2 /s at 40°C; and B. 105 to 500 parts by mass of thermally conductive particles with respect to 100 parts by mass of the component A, wherein the thermally conductive particles contain the following: B1. 50 to 300 parts by mass of irregularly-shaped alumina with a median particle size of 0.1 to 1 μm, in which a part or all of the alumina is surface pre-treated with an alkoxysilane compound expressed by R a Si(OR') 4-a, where R represents a substituted or unsubstituted alkyl group having 8 to 12 carbon atoms, R' represents an alkyl group having 1 to 4 carbon atoms, and a represents 0 or 1, or a partial hydrolysate of the alkoxysilane compound; B2. 5 to 50 parts by mass of plate-like boron nitride with a median particle size of 0.1 to 10 μm; and B3. 50 to 150 parts by mass of aggregated boron nitride with a median particle size of 20 to 70 μm, where the median particle size is measured with a laser diffraction scattering method to determine D50, the median diameter, in a volume-based cumulative particle size distribution, and wherein a blending ratio of the component B3 to the component B2 is 2 to 20. A. 100 parts by mass of a non-curable silicone oil with a kinematic viscosity of 50 to 10000 mm 2 /s at 40°C; and B. 105 to 500 parts by mass of thermally conductive particles with respect to 100 parts by mass of the component A, B1. 50 to 300 parts by mass of irregularly-shaped alumina with a median particle size of 0.1 to 1 μm, in which a part or all of the alumina is surface pre-treated with an alkoxysilane compound expressed by R a Si(OR') 4-a, where R represents a substituted or unsubstituted alkyl group having 8 to 12 carbon atoms, R' represents an alkyl group having 1 to 4 carbon atoms, and a represents 0 or 1, or a partial hydrolysate of the alkoxysilane compound; B2. 5 to 50 parts by mass of plate-like boron nitride with a median particle size of 0.1 to 10 μm; and B3. 50 to 150 parts by mass of aggregated boron nitride with a median particle size of 20 to 70 μm, where the median particle size is measured with a laser diffraction scattering method to determine D50, the median diameter, in a volume-based cumulative particle size distribution, and wherein a blending ratio of the component B3 to the component B2 is 2 to 20.
An isolated bispecific antibody comprising a first arm that comprises a first amino acid sequence that binds CD47 and a second arm that comprises a second amino acid sequence that binds CD19, wherein the bispecific antibody inhibits interaction between CD47 and signal-regulatory protein alpha (SIRPα).
A device comprising: a panel audio loudspeaker comprising a panel extending in a plane and an actuator (210, 300) coupled to the panel, the actuator comprising: a voice coil attached to and extending from the panel along an axis; a magnet assembly suspended from the panel via one or more springs; characterised in that the actuator further comprises: a temperature sensor in electrical contact with the coil at three different axial locations, the temperature sensor being configured, during operation of the device, to measure a temperature of the coil based on voltage measurements at the three different axial locations. a voice coil attached to and extending from the panel along an axis; a magnet assembly suspended from the panel via one or more springs; characterised in that the actuator further comprises: a temperature sensor in electrical contact with the coil at three different axial locations, the temperature sensor being configured, during operation of the device, to measure a temperature of the coil based on voltage measurements at the three different axial locations.