mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for integrating a multi-touch surface into a desktop environment , the method comprising: detecting a location of at least one input device on the multi-touch surface ; defining at least one region on the multi-touch surface proximate to the location of the at least one input device; monitoring the multi-touch surface for any changes in the location of the at least one input device; in response to a change in the location of the at least one input device, changing a location of the at least one region to substantially match the change in the location of the at least one input device, and displaying a user interface tool in the at least one region on the multi-touch surface, comprising displaying an enhanced task bar in a first portion of the at least one region on the multi-touch surface, and wherein a location of the first portion is based at least in part on the location of a keyboard device detected on the multi-touch surface, and the enhanced task bar comprises user interface elements configured to control different application windows that are displayed via a display device , wherein a size and location of each user interface element within the enhanced taskbar conveys a size and location of a corresponding application window displayed within the display device, whereby an application window associated with a user interface element is re-sized by a multi-touch gesture of moving two fingers apart or together on the user interface element to shrink or expand the size of the application window. detecting a location of at least one input device on the multi-touch surface ; defining at least one region on the multi-touch surface proximate to the location of the at least one input device; monitoring the multi-touch surface for any changes in the location of the at least one input device; in response to a change in the location of the at least one input device, changing a location of the at least one region to substantially match the change in the location of the at least one input device, and displaying a user interface tool in the at least one region on the multi-touch surface, comprising displaying an enhanced task bar in a first portion of the at least one region on the multi-touch surface, and wherein a location of the first portion is based at least in part on the location of a keyboard device detected on the multi-touch surface, and the enhanced task bar comprises user interface elements configured to control different application windows that are displayed via a display device , wherein a size and location of each user interface element within the enhanced taskbar conveys a size and location of a corresponding application window displayed within the display device, whereby an application window associated with a user interface element is re-sized by a multi-touch gesture of moving two fingers apart or together on the user interface element to shrink or expand the size of the application window.
Apparatus for producing or expanding an earth bore in the earth, having a drilling and/or expansion tool , which is connected via a pulling and/or pushing element to a drive unit and, by way of the latter, is movable through the earth towards the drive unit , or away from the drive unit , at an advancing speed (v), having a pump for delivering a flushing liquid to the drilling and/or expansion tool , wherein the flushing liquid exits at the drilling and/or expansion tool , having a control unit for controlling at least the pump , wherein the control unit sets the volumetric flow rate (V), generated by the pump , of the flushing liquid in a manner dependent on the advancing speed (v), characterized in that the control unit determines the quantity of flushing liquid per route section that is required for an earth bore or for an expansion of an earth bore on the basis of at least one parameter of the bore to be produced or expansion, and in that the control unit controls the pump such that the volumetric flow rate ( V̇ ) of the flushing liquid is set, in a manner dependent on the advancing speed (v), such that the determined quantity of flushing liquid per route section exits at the drilling and/or expansion tool .
An air conditioner comprising: an air flow path ; a cooling unit disposed in the air flow path , the cooling unit being configured to cool air introduced into the air flow path so as to condense vapor contained in the air; a humidification unit that humidifies the air, the humidification unit including a storage tank for storing water that has an upper surface open to the air flow path and a heater for heating water in the storage tank ; a discharged-water storage unit capable of storing water discharged from the cooling unit and water discharged from the humidification unit ; and an exhaust pipe connected to the storage tank , the exhaust pipe being configured to discharge water in the storage tank to the discharged-water storage unit ; and an exhaust valve disposed midway on the exhaust pipe ; wherein the air conditioner further comprises an overflow pipe that connects the storage tank and a part of the exhaust pipe on the downstream side of the exhaust valve . an air flow path ; a cooling unit disposed in the air flow path , the cooling unit being configured to cool air introduced into the air flow path so as to condense vapor contained in the air; a humidification unit that humidifies the air, the humidification unit including a storage tank for storing water that has an upper surface open to the air flow path and a heater for heating water in the storage tank ; a discharged-water storage unit capable of storing water discharged from the cooling unit and water discharged from the humidification unit ; and an exhaust pipe connected to the storage tank , the exhaust pipe being configured to discharge water in the storage tank to the discharged-water storage unit ; and an exhaust valve disposed midway on the exhaust pipe ; wherein the air conditioner further comprises an overflow pipe that connects the storage tank and a part of the exhaust pipe on the downstream side of the exhaust valve .
A method of mowing an area with an autonomous mowing robot , the method comprising: storing, in non-transient memory of the robot , a set of geospatially referenced perimeter data corresponding to positions of the mowing robot as the mowing robot is guided about a perimeter of an area to be mowed, wherein storing the geospatially referenced perimeter data comprises marking cells of a two-dimensional data array as corresponding to the positions of the mowing robot ; removing from the set of perimeter data one or more data points thereby creating a redacted data set, wherein removing the one or more data points comprises altering entries in one or more marked cells to indicate that such cells do not correspond to perimeter locations; wherein the data points to be removed are BOUNDARY cells that are not adjacent to both MOWABLE and NON-MOWABLE cells and at the same time are adjacent to MOWABLE or another BOUNDARY cell and are not adjacent to NON-MOWABLE cells , wherein BOUNDARY cells are cells on the perimeter , MOWABLE cells are inside the perimeter and NON-MOWABLE cells are outside the perimeter ; and controlling the mowing robot to autonomously mow an area bounded by a boundary corresponding to the redacted data set, including altering direction of the mowing robot at or near a position corresponding to data in the redacted data set so as to redirect the robot back into the bounded area. storing, in non-transient memory of the robot , a set of geospatially referenced perimeter data corresponding to positions of the mowing robot as the mowing robot is guided about a perimeter of an area to be mowed, wherein storing the geospatially referenced perimeter data comprises marking cells of a two-dimensional data array as corresponding to the positions of the mowing robot ; removing from the set of perimeter data one or more data points thereby creating a redacted data set, wherein removing the one or more data points comprises altering entries in one or more marked cells to indicate that such cells do not correspond to perimeter locations; wherein the data points to be removed are BOUNDARY cells that are not adjacent to both MOWABLE and NON-MOWABLE cells and at the same time are adjacent to MOWABLE or another BOUNDARY cell and are not adjacent to NON-MOWABLE cells , wherein BOUNDARY cells are cells on the perimeter , MOWABLE cells are inside the perimeter and NON-MOWABLE cells are outside the perimeter ; and controlling the mowing robot to autonomously mow an area bounded by a boundary corresponding to the redacted data set, including altering direction of the mowing robot at or near a position corresponding to data in the redacted data set so as to redirect the robot back into the bounded area.
A compound of Formula (I): or a pharmaceutically acceptable salt thereof; wherein: Y 1 , Y 2 , y3 , Y 4 , Y 5 , Y 6 , Y 7 , Y 8 , Y 9 , Y 9' , Y 10 , Y 10' , Y 11 , Y 11' , Y 12 , Y 12' , and Y 13 are selected from the group consisting of hydrogen or deuterium, and wherein at least one of Y 1 , Y 2 , Y 3 , Y 4 , Y 5 , Y 6 , Y 7 , Y 8 , Y 9 , Y 9' , Y 10 , Y 10' , Y 11 , Y 11' , Y 12 , Y 12' , and Y 13 is deuterium.
A seating component for a bicycle , comprising: an upper seat post tube ; a lower seat post tube connected to the upper seat post tube and movable relative to the upper seat post tube along an axis (L); a support chamber disposed between the upper seat post tube and the lower seat post tube ; a reservoir in selective fluid communication with the support chamber across a valve ; a spring portion configured to bias the upper seat post tube apart from the lower seat post tube along the axis (L); and a bypass configured to provide fluid communication between the support chamber and the reservoir , the bypass comprising: an opening disposed beyond the support chamber in a lowering direction (C) along the axis (L); and a barrier configured to facilitate flow from the opening to the valve , wherein the valve is disposed beyond the support chamber in a raising direction (B) along the axis (L), and wherein, in a closed state of the valve , the support chamber is configured to inhibit relative movement of the upper seat post tube towards the lower seat post tube in the lowering direction (C) along the axis (L), characterized in that the bypass passes through the spring portion , or the bypass passes through the support chamber . an upper seat post tube ; a lower seat post tube connected to the upper seat post tube and movable relative to the upper seat post tube along an axis (L); a support chamber disposed between the upper seat post tube and the lower seat post tube ; a reservoir in selective fluid communication with the support chamber across a valve ; a spring portion configured to bias the upper seat post tube apart from the lower seat post tube along the axis (L); and a bypass configured to provide fluid communication between the support chamber and the reservoir , the bypass comprising: an opening disposed beyond the support chamber in a lowering direction (C) along the axis (L); and a barrier configured to facilitate flow from the opening to the valve , an opening disposed beyond the support chamber in a lowering direction (C) along the axis (L); and a barrier configured to facilitate flow from the opening to the valve , wherein the valve is disposed beyond the support chamber in a raising direction (B) along the axis (L), and wherein, in a closed state of the valve , the support chamber is configured to inhibit relative movement of the upper seat post tube towards the lower seat post tube in the lowering direction (C) along the axis (L), characterized in that the bypass passes through the spring portion , or the bypass passes through the support chamber .
Method for comparing a measured quantity for an air mass flow as recorded by an air mass sensor of an internal combustion engine with the value for the air mass flow flowing through the internal combustion engine as calculated by a control device of the internal combustion engine , wherein the internal combustion engine has an exhaust-gas recirculation device which branches off exhaust gas from an exhaust-gas tract and recirculates said exhaust gas into an intake tract downstream of the air mass sensor , having the method steps: - operating the internal combustion engine in a special operating phase in which the emissions specifications are attainable with reduced exhaust-gas recirculation, wherein the exhaust-gas recirculation can be reduced without impairment of the compliance with emissions specifications for the duration of the comparison, - reducing the exhaust-gas recirculation, - recording the measured quantity by means of the air mass sensor , which measurement quantity corresponds to the air mass flow that is fed to the internal combustion engine , and - comparing the recorded measured quantity with the value for the air mass flow flowing through the internal combustion engine as calculated by the control device . - operating the internal combustion engine in a special operating phase in which the emissions specifications are attainable with reduced exhaust-gas recirculation, wherein the exhaust-gas recirculation can be reduced without impairment of the compliance with emissions specifications for the duration of the comparison, - reducing the exhaust-gas recirculation, - recording the measured quantity by means of the air mass sensor , which measurement quantity corresponds to the air mass flow that is fed to the internal combustion engine , and - comparing the recorded measured quantity with the value for the air mass flow flowing through the internal combustion engine as calculated by the control device .
Regenerative shock absorber comprising: a piston disposed for reciprocating motion within a cylinder as a vehicle's suspension system deflects; hydraulic fluid contained within the cylinder; a first fluid circuit in fluid communication with a first chamber in the cylinder on a first side of the piston, in fluid communication with an hydraulic motor and in fluid communication with a capacitive reservoir , wherein upon compression of the piston, hydraulic fluid passes through the hydraulic motor thereby turning a shaft thereof and a second fluid circuit in fluid communication with a second chamber in the cylinder on a second side of the piston and in fluid communication with the first chamber, wherein upon extension of the piston, hydraulic fluid in said second fluid circuit directly passes from the second chamber to the first chamber; and an electric generator connected to the hydraulic motor shaft for generating electricity upon rotation of the shaft. a piston disposed for reciprocating motion within a cylinder as a vehicle's suspension system deflects; hydraulic fluid contained within the cylinder; a first fluid circuit in fluid communication with a first chamber in the cylinder on a first side of the piston, in fluid communication with an hydraulic motor and in fluid communication with a capacitive reservoir , wherein upon compression of the piston, hydraulic fluid passes through the hydraulic motor thereby turning a shaft thereof and a second fluid circuit in fluid communication with a second chamber in the cylinder on a second side of the piston and in fluid communication with the first chamber, wherein upon extension of the piston, hydraulic fluid in said second fluid circuit directly passes from the second chamber to the first chamber; and an electric generator connected to the hydraulic motor shaft for generating electricity upon rotation of the shaft.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station via a radio resource control, RRC, signaling, one or more scheduling request, SR, configurations and configuration information associated with a mapping between at least one SR configuration and at least one logical channel; identifying a logical channel for which a buffer status reporting, BSR, is triggered; identifying a SR configuration corresponding to the logical channel among the one or more SR configurations based on the configuration information; transmitting, to the base station, a scheduling request based on the SR configuration. receiving, from a base station via a radio resource control, RRC, signaling, one or more scheduling request, SR, configurations and configuration information associated with a mapping between at least one SR configuration and at least one logical channel; identifying a logical channel for which a buffer status reporting, BSR, is triggered; identifying a SR configuration corresponding to the logical channel among the one or more SR configurations based on the configuration information; transmitting, to the base station, a scheduling request based on the SR configuration.
A method for managing a measurement device based on a blockchain, which is applied to node devices in a blockchain network, the method comprising the steps of: obtaining device state data of the measurement device at various stages in the life cycle of the measurement device; constructing a target transaction based on the obtained device state data, and then sending the target transaction to other node devices in the blockchain network to perform consensus processing on the target transaction; and storing, when a consensus of the target transaction is reached, the target transaction into a distributed ledger of the blockchain network, wherein the target transaction stored in the distributed ledger of the blockchain network is used for life cycle management of the measurement device. obtaining device state data of the measurement device at various stages in the life cycle of the measurement device; constructing a target transaction based on the obtained device state data, and then sending the target transaction to other node devices in the blockchain network to perform consensus processing on the target transaction; and storing, when a consensus of the target transaction is reached, the target transaction into a distributed ledger of the blockchain network, wherein the target transaction stored in the distributed ledger of the blockchain network is used for life cycle management of the measurement device.
An apparatus for forming an aluminum plate , comprising: an upper die having a bottom surface that corresponds to a top shape of a product shape to be formed, wherein the upper die is configured to descend by a press to press the aluminum plate ; a lower die having an upper surface that corresponds to a bottom shape of the product shape; and an electrode unit inserted into the lower die and exposed on the upper surface of the lower die to apply a current to a bent portion of the product shape, wherein the electrode unit includes a positive (+) electrode and a negative (-) electrode , and the negative (-) electrode is exposed to the upper surface of the lower die at a portion that corresponds to the bent surface of the product shape. an upper die having a bottom surface that corresponds to a top shape of a product shape to be formed, wherein the upper die is configured to descend by a press to press the aluminum plate ; a lower die having an upper surface that corresponds to a bottom shape of the product shape; and an electrode unit inserted into the lower die and exposed on the upper surface of the lower die to apply a current to a bent portion of the product shape, wherein the electrode unit includes a positive (+) electrode and a negative (-) electrode , and the negative (-) electrode is exposed to the upper surface of the lower die at a portion that corresponds to the bent surface of the product shape.
An antibody and a pharmaceutical composition comprising an IL-15N72D:IL-15RaSu/Fc complex (ALT-803), wherein said ALT-803 comprises a dimeric IL-15RaSu/Fc and two IL-15N72D molecules, for use in a method for treating a bladder cancer in a subject; wherein the IL-15N72D molecule comprises SEQ ID NO: 3; wherein the IL-15RαSu/Fc comprises SEQ ID NO: 6; and wherein the antibody is an anti-PD-1 antibody. wherein the IL-15N72D molecule comprises SEQ ID NO: 3; wherein the IL-15RαSu/Fc comprises SEQ ID NO: 6; and wherein the antibody is an anti-PD-1 antibody.
A gate driver comprising: a first input ; a first output driver having a gate drive signal output and supplied by a first high side voltage , wherein the first output driver is connected to the first input; a second input ; a second output driver having a gate drive signal output and supplied by a first low side voltage , wherein the second output driver is connected to the second input; a first converter configured to convert an input voltage level to a first converted voltage level, wherein the first converter receives the input voltage from the first high side voltage; a multiplexer with a first input connected to the first converter to receive the first converted voltage level, a second input connected to the first low side voltage, and an output; and an under voltage monitor connected to the output of the multiplexer. a first input ; a first output driver having a gate drive signal output and supplied by a first high side voltage , wherein the first output driver is connected to the first input; a second input ; a second output driver having a gate drive signal output and supplied by a first low side voltage , wherein the second output driver is connected to the second input; a first converter configured to convert an input voltage level to a first converted voltage level, wherein the first converter receives the input voltage from the first high side voltage; a multiplexer with a first input connected to the first converter to receive the first converted voltage level, a second input connected to the first low side voltage, and an output; and an under voltage monitor connected to the output of the multiplexer.
Method for conditioning a radio data signal for a broadcast radio receiver, wherein the method has the following steps: reading in the radio data signal and a radio data clock signal ; integrating a signal that is dependent on the radio data signal in order to determine an integral value characteristic ; decoding radio data signal information from the integral value characteristic by using the radio data clock signal ; ascertaining radio data signal quality information , representing a radio data signal quality, by using the radio data signal , wherein the radio data signal quality information represents a creditability of the decoded radio data signal information; and providing the radio data signal information and the radio data signal quality information in order to provide a conditioned radio data signal , characterized in that the integrating step involves the integral value being determined by using a multiplication of the radio data signal by a sine wave of the radio data signal , and the integral value being determined over the duration of one period of the radio data clock signal and, after one period of the radio data clock signal , being set to zero. reading in the radio data signal and a radio data clock signal ; integrating a signal that is dependent on the radio data signal in order to determine an integral value characteristic ; decoding radio data signal information from the integral value characteristic by using the radio data clock signal ; ascertaining radio data signal quality information , representing a radio data signal quality, by using the radio data signal , wherein the radio data signal quality information represents a creditability of the decoded radio data signal information; and providing the radio data signal information and the radio data signal quality information in order to provide a conditioned radio data signal , characterized in that the integrating step involves the integral value being determined by using a multiplication of the radio data signal by a sine wave of the radio data signal , and the integral value being determined over the duration of one period of the radio data clock signal and, after one period of the radio data clock signal , being set to zero.