mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing system including an input device having an inertial sensor, and an information processing apparatus, the information processing apparatus being configured to: execute a game; acquire operation data including at least data based on an output of the inertial sensor (S33); if, on the basis of the operation data, it is determined that the input device has been moved in a first direction at a timing when a predetermined condition is satisfied during execution of the game, execute first-type processing in the game (S37); and in a case where, on the basis of the operation data, it is determined that the input device has been moved in a second direction at a timing when the predetermined condition is satisfied a predetermined suspension period takes effect, if it is further determined that the input device has been moved in the first direction during the » predetermined suspension period, execute the first-type processing (S39, S43, S37), and terminate the suspension period (S43), and if it is further determined that the input device has not been moved in the first direction during the predetermined suspension period, execute second-type processing in the game after the predetermined suspension period has elapsed (S39, S40, S41). execute a game; acquire operation data including at least data based on an output of the inertial sensor (S33); if, on the basis of the operation data, it is determined that the input device has been moved in a first direction at a timing when a predetermined condition is satisfied during execution of the game, execute first-type processing in the game (S37); and in a case where, on the basis of the operation data, it is determined that the input device has been moved in a second direction at a timing when the predetermined condition is satisfied a predetermined suspension period takes effect, if it is further determined that the input device has been moved in the first direction during the » predetermined suspension period, execute the first-type processing (S39, S43, S37), and terminate the suspension period (S43), and if it is further determined that the input device has not been moved in the first direction during the predetermined suspension period, execute second-type processing in the game after the predetermined suspension period has elapsed (S39, S40, S41).
Seat adjustment switch having a plurality of multi-way force sensors which can be actuated via sensor pins and are arranged on a common carrier plate , at least one button cap being connected to the sensor pins as an actuating element, characterized in that the sensor pins are guided through receiving sleeves which are designed in one piece with the carrier plate and are connected to other sections of the carrier plate via flexible regions , and in that the at least one button cap connected to the sensor pins forms form-fitting connections to the receiving sleeves . at least one button cap being connected to the sensor pins as an actuating element, characterized in that the sensor pins are guided through receiving sleeves which are designed in one piece with the carrier plate and are connected to other sections of the carrier plate via flexible regions , and in that the at least one button cap connected to the sensor pins forms form-fitting connections to the receiving sleeves .
A multispecific protein comprising (a) an EpCAM binding domain, (b) a CD3ε binding domain, and (c) a bulk serum protein binding domain that binds to a human serum albumin protein, wherein the multispecific protein comprises an amino acid sequence of any one of SEQ ID NOS: 576, 577, and 578.
A method comprising: determining , at a user equipment, a transmission time for a first transmission; determining a first set of transmissions that overlap with the first transmission that start before a start time of the first transmission; determining a cut-off time for power determination for the first transmission; determining a second set of transmissions that overlap with the first transmission that start at or later than the start time of the first transmission, wherein scheduling information, transmission information, or a combination thereof for each transmission of the second set of transmissions is known at or before the cut-off time for power determination; determining a third set of transmissions that overlap with the first transmission that start at or later than the start time of the first transmission, wherein the scheduling information, the transmission information, or a combination thereof for each transmission of the third set of transmissions is known after the cut-off time for power determination; allocating first transmission power for the first transmission based on a maximum total transmission power allocated to the first set of transmissions and a minimum guaranteed power corresponding to the second set of transmissions, the third set of transmissions, or some combination thereof; and performing the first transmission using the first transmission power. determining , at a user equipment, a transmission time for a first transmission; determining a first set of transmissions that overlap with the first transmission that start before a start time of the first transmission; determining a cut-off time for power determination for the first transmission; determining a second set of transmissions that overlap with the first transmission that start at or later than the start time of the first transmission, wherein scheduling information, transmission information, or a combination thereof for each transmission of the second set of transmissions is known at or before the cut-off time for power determination; determining a third set of transmissions that overlap with the first transmission that start at or later than the start time of the first transmission, wherein the scheduling information, the transmission information, or a combination thereof for each transmission of the third set of transmissions is known after the cut-off time for power determination; allocating first transmission power for the first transmission based on a maximum total transmission power allocated to the first set of transmissions and a minimum guaranteed power corresponding to the second set of transmissions, the third set of transmissions, or some combination thereof; and performing the first transmission using the first transmission power.
An aircraft landing gear assembly comprising: a first landing gear element movably coupled relative to a second landing gear element to move between a first condition and a second condition; and a fibre composite leaf spring formed from a plurality of composite layers and arranged between the first and second landing gear elements, the fibre composite leaf spring being arranged to bend when the first landing gear element moves from the first condition to the second condition, wherein the fibre composite leaf spring comprises: a first region and a second region; and a mounting assembly arranged to engage the first region of the fibre composite leaf spring to couple the leaf spring to the first landing gear element; characterized in that the fibre composite leaf spring comprises: two outer composite layers separated by one or more inner composite layers , wherein at least one of the one or more inner layers is shorter in length than the outer layers and resides within the first region of the fibre composite leaf spring such that a number of layers in the first region of the fibre composite leaf spring is greater than a number of layers in the second region of the fibre composite leaf spring. a first landing gear element movably coupled relative to a second landing gear element to move between a first condition and a second condition; and a fibre composite leaf spring formed from a plurality of composite layers and arranged between the first and second landing gear elements, the fibre composite leaf spring being arranged to bend when the first landing gear element moves from the first condition to the second condition, wherein the fibre composite leaf spring comprises: a first region and a second region; and a mounting assembly arranged to engage the first region of the fibre composite leaf spring to couple the leaf spring to the first landing gear element; characterized in that the fibre composite leaf spring comprises: two outer composite layers separated by one or more inner composite layers , wherein at least one of the one or more inner layers is shorter in length than the outer layers and resides within the first region of the fibre composite leaf spring such that a number of layers in the first region of the fibre composite leaf spring is greater than a number of layers in the second region of the fibre composite leaf spring. a first region and a second region; and a mounting assembly arranged to engage the first region of the fibre composite leaf spring to couple the leaf spring to the first landing gear element; characterized in that the fibre composite leaf spring comprises: two outer composite layers separated by one or more inner composite layers , wherein at least one of the one or more inner layers is shorter in length than the outer layers and resides within the first region of the fibre composite leaf spring such that a number of layers in the first region of the fibre composite leaf spring is greater than a number of layers in the second region of the fibre composite leaf spring.
A hydraulic circuit comprising: (a) an actuator having first and second ports ; (b) a metering valve assembly for controlling hydraulic flow into and out of the first and second ports ; (c) an isolation valve assembly located between the actuator and the metering valve assembly , the isolation valve assembly including a first inlet port arranged in fluid communication with a pressure source of the hydraulic circuit , a second inlet port arranged in connection with a reservoir of the hydraulic circuit , and a pressure sensing port configured for connection with a pressure sensor ; and (d) a pressure sensor connected to the pressure sensing port ; wherein (a) the isolation valve assembly is movable between a first position, in which fluid flow between the metering valve and the actuator is enabled, and a second position, in which fluid flow between the metering valve and the actuator is blocked; and (b) when the isolation valve assembly is moved to one of the first and second positions, the first inlet port and the pressure sensing port are placed in fluid communication with each other and when the isolation valve assembly is moved to the other of the first or second position, the second inlet port and the pressure sensing port are placed in fluid communication, characterized in that the isolation valve assembly is spring biased into the second position. (a) an actuator having first and second ports ; (b) a metering valve assembly for controlling hydraulic flow into and out of the first and second ports ; (c) an isolation valve assembly located between the actuator and the metering valve assembly , the isolation valve assembly including a first inlet port arranged in fluid communication with a pressure source of the hydraulic circuit , a second inlet port arranged in connection with a reservoir of the hydraulic circuit , and a pressure sensing port configured for connection with a pressure sensor ; and (d) a pressure sensor connected to the pressure sensing port ; (a) the isolation valve assembly is movable between a first position, in which fluid flow between the metering valve and the actuator is enabled, and a second position, in which fluid flow between the metering valve and the actuator is blocked; and (b) when the isolation valve assembly is moved to one of the first and second positions, the first inlet port and the pressure sensing port are placed in fluid communication with each other and when the isolation valve assembly is moved to the other of the first or second position, the second inlet port and the pressure sensing port are placed in fluid communication, characterized in that the isolation valve assembly is spring biased into the second position.
A laser leveling device comprising: - a plurality of bases , the plurality of bases comprising first and second bases; - a means for removably attaching each of the plurality of bases to a surface; - a means for centering the bases at respective fixed points on said surface, the fixed points comprising first and second fixed points associated with the respective first and second bases; - a set of lasers ; - a means for removably and interchangeably connecting the set of lasers to each of the plurality of bases; - a means for activating a first laser of the set of lasers when the set of lasers is connected to the first base and the first base is centered over the first fixed point, thereby causing a first laser line to project across said surface; and - a means for leveling each of the plurality of bases on said surface; wherein the laser leveling device further comprises: - a means for removably and interchangeably attaching a measuring device near the center of the first base so as to measure a distance from the first base along the first laser line to determine the second fixed point for the second base; and - a means for removably and interchangeably attaching a measuring device near the center of each of the other bases of the plurality of bases. - a plurality of bases , the plurality of bases comprising first and second bases; - a means for removably attaching each of the plurality of bases to a surface; - a means for centering the bases at respective fixed points on said surface, the fixed points comprising first and second fixed points associated with the respective first and second bases; - a set of lasers ; - a means for removably and interchangeably connecting the set of lasers to each of the plurality of bases; - a means for activating a first laser of the set of lasers when the set of lasers is connected to the first base and the first base is centered over the first fixed point, thereby causing a first laser line to project across said surface; and - a means for leveling each of the plurality of bases on said surface; wherein the laser leveling device further comprises: - a means for removably and interchangeably attaching a measuring device near the center of the first base so as to measure a distance from the first base along the first laser line to determine the second fixed point for the second base; and - a means for removably and interchangeably attaching a measuring device near the center of each of the other bases of the plurality of bases.
A method for transmitting reference signals in wireless communications, comprising: receiving , from an access point , an indication of resources over which to transmit an uplink reference signal, wherein the resources are at least partially used by another access point to transmit, in a same first symbol, a downlink reference signal; transmitting the uplink reference signal over the resources in the same first symbol, based on the indication of the resources; receiving a different downlink reference signal from a different access point and a different uplink reference signal from a user equipment, UE, over frequency resources in a same second symbol; measuring first interference caused by the different downlink reference signal and second interference caused by the different uplink reference signal; and transmitting , to the access point, an interference measurement report indicating the first interference and the second interference over the frequency resources. receiving , from an access point , an indication of resources over which to transmit an uplink reference signal, wherein the resources are at least partially used by another access point to transmit, in a same first symbol, a downlink reference signal; transmitting the uplink reference signal over the resources in the same first symbol, based on the indication of the resources; receiving a different downlink reference signal from a different access point and a different uplink reference signal from a user equipment, UE, over frequency resources in a same second symbol; measuring first interference caused by the different downlink reference signal and second interference caused by the different uplink reference signal; and transmitting , to the access point, an interference measurement report indicating the first interference and the second interference over the frequency resources.
A method of decoding a motion vector for a current block of an encoded image that forms part of a bitstream, the method comprising: decoding a prediction mode of the current block from the bitstream ; when the prediction mode of the current block is inter-prediction and a motion vector predictor of the current block is determined based on a motion vector predictor information indicating the motion vector predictor of the current block, receiving the motion vector predictor information from the bitstream, determining motion vector predictor candidates by using motion vectors of previously decoded blocks adjacent to the current block and determining the motion vector predictor of the current block which is one motion vector selected from among motion vector predictor candidates, based on the motion vector predictor information ; and obtaining a motion vector of the current block based on the motion vector predictor and a differential vector obtained from the bitstream , wherein the previously decoded blocks comprise a first block located on a lower-left side of the current block and located outside the current block, that is, directly below a lower-most block among left blocks adjacent to a left side of the current block, and a second block located on an upper side of the first block. decoding a prediction mode of the current block from the bitstream ; when the prediction mode of the current block is inter-prediction and a motion vector predictor of the current block is determined based on a motion vector predictor information indicating the motion vector predictor of the current block, receiving the motion vector predictor information from the bitstream, determining motion vector predictor candidates by using motion vectors of previously decoded blocks adjacent to the current block and determining the motion vector predictor of the current block which is one motion vector selected from among motion vector predictor candidates, based on the motion vector predictor information ; and obtaining a motion vector of the current block based on the motion vector predictor and a differential vector obtained from the bitstream , wherein the previously decoded blocks comprise a first block located on a lower-left side of the current block and located outside the current block, that is, directly below a lower-most block among left blocks adjacent to a left side of the current block, and a second block located on an upper side of the first block.
A battery pack including at least one cell parallel line formed by arranging a plurality of battery cells in parallel, the battery pack comprising: a first cell bank configured by connecting a predetermined number of sequentially adjacent battery cells in parallel from a first cell among battery cells constituting the cell parallel line; and a second cell bank configured by connecting the remaining cells in parallel except for the battery cells set as the first cell bank among the battery cells constituting the cell parallel line, wherein the first cell bank and the second cell bank are electrically separated, wherein among the battery cells of the second cell bank , a battery cell closest to the first cell bank is set as a replacement cell , wherein when a failed cell occurs in the first cell bank , the replacement cell is electrically separated from the second cell bank and connected in parallel to the first cell bank to replace the failed cell, characterized in that the first cell bank is configured to operate as a main power supply source for a principal device in which a battery pack is mounted, and the second cell bank is configured to operate as an auxiliary power supply source for additional devices mounted on the principal device. a first cell bank configured by connecting a predetermined number of sequentially adjacent battery cells in parallel from a first cell among battery cells constituting the cell parallel line; and a second cell bank configured by connecting the remaining cells in parallel except for the battery cells set as the first cell bank among the battery cells constituting the cell parallel line, wherein the first cell bank and the second cell bank are electrically separated, wherein among the battery cells of the second cell bank , a battery cell closest to the first cell bank is set as a replacement cell , wherein when a failed cell occurs in the first cell bank , the replacement cell is electrically separated from the second cell bank and connected in parallel to the first cell bank to replace the failed cell, characterized in that the first cell bank is configured to operate as a main power supply source for a principal device in which a battery pack is mounted, and the second cell bank is configured to operate as an auxiliary power supply source for additional devices mounted on the principal device.
A cooking system , comprising: a food cooking unit ; and a particle detection system for detecting particles, comprising: a particle sensing unit , for determining particle concentrations in at least two size ranges; and a controller for processing the particle concentrations, wherein the controller is adapted: to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit . a food cooking unit ; and a particle detection system for detecting particles, comprising: a particle sensing unit , for determining particle concentrations in at least two size ranges; and a controller for processing the particle concentrations, wherein the controller is adapted: to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit . a particle sensing unit , for determining particle concentrations in at least two size ranges; and a controller for processing the particle concentrations, wherein the controller is adapted: to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit . to determine one or more ratios between the particle concentrations in the at least two size ranges; and in response to the determined one or more ratios, to provide an output for controlling the food cooking unit .