mhurhangee/patent-ind-claim-en huggingface dataset:
A test method, comprising: transmitting , by a transmit device, N signal sequences by using a transmit antenna array, wherein the N signal sequences are orthogonal to each other, and N is a positive integer greater than 1; obtaining , by the transmit device from a test device, a phase offset that is of each signal sequence in the N signal sequences and that is generated after the signal sequence passes through a respective channel; adjusting , by the transmit device, an initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel, to obtain a target test signal in-phase superposed at the test device, wherein the target test signal comprises a plurality of signal sequences obtained by separately performing phase adjustment on the initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel; and transmitting , by the transmit device, the target test signal by using the transmit antenna array, wherein an array aperture of the transmit antenna array denoted as D, a distance between the transmit antenna array and a receive antenna denoted as d and a wavelength of the target test signal denoted as λ satisfy a condition of: d< 2D 2 / λ . transmitting , by a transmit device, N signal sequences by using a transmit antenna array, wherein the N signal sequences are orthogonal to each other, and N is a positive integer greater than 1; obtaining , by the transmit device from a test device, a phase offset that is of each signal sequence in the N signal sequences and that is generated after the signal sequence passes through a respective channel; adjusting , by the transmit device, an initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel, to obtain a target test signal in-phase superposed at the test device, wherein the target test signal comprises a plurality of signal sequences obtained by separately performing phase adjustment on the initial test signal based on the phase offset that is of each signal sequence and that is generated after the signal sequence passes through the respective channel; and transmitting , by the transmit device, the target test signal by using the transmit antenna array, wherein an array aperture of the transmit antenna array denoted as D, a distance between the transmit antenna array and a receive antenna denoted as d and a wavelength of the target test signal denoted as λ satisfy a condition of: d< 2D 2 / λ .
A method of additive manufacture, comprising: building a three-dimensional object via a 3D printing process , wherein after the 3D printing process the 3D object is contained within a cake comprising the 3D object and partially fused excess build material; and vibrating the cake to loosen the excess build material, wherein vibrating the cake comprises vibrating the cake at a plurality of frequencies; characterized in that vibrating the cake at the plurality of frequencies comprises applying a vibration frequency that is swept across a predetermined range of frequencies over a predetermined sweep interval. building a three-dimensional object via a 3D printing process , wherein after the 3D printing process the 3D object is contained within a cake comprising the 3D object and partially fused excess build material; and vibrating the cake to loosen the excess build material, wherein vibrating the cake comprises vibrating the cake at a plurality of frequencies; characterized in that vibrating the cake at the plurality of frequencies comprises applying a vibration frequency that is swept across a predetermined range of frequencies over a predetermined sweep interval.
A printhead die comprising: a fluid slot area in which a plurality of fluid slots are formed; and a temperature sensing resistor, the temperature sensing resistor including an outer edge portion forming a first loop and an inner portion forming a second loop; wherein the first loop extends outside of and along an edge of the fluid slot area and surrounds the plurality of fluid slots and the second loop 250 extends in-between two adjacent fluid slots ; wherein a first end of the first loop connects to a bond pad and a second end of the first loop connects to ground and wherein a first end of the second loop connects to the same bond pad as the first loop and a second end of the second loop connects to ground. a fluid slot area in which a plurality of fluid slots are formed; and a temperature sensing resistor, the temperature sensing resistor including an outer edge portion forming a first loop and an inner portion forming a second loop; wherein the first loop extends outside of and along an edge of the fluid slot area and surrounds the plurality of fluid slots and the second loop 250 extends in-between two adjacent fluid slots ; wherein a first end of the first loop connects to a bond pad and a second end of the first loop connects to ground and wherein a first end of the second loop connects to the same bond pad as the first loop and a second end of the second loop connects to ground.
Medical device for administering a medical fluid to a patient , the medical device comprising: a housing comprising a housing portion , a control device for controlling operation of the medical device , a control element placed on said housing portion and being actuatable for entering a control command to be input to the control device , wherein the control element , for actuation, is at least one of rotatable about an axis of rotation (R) and linearly movable along the axis of rotation (R) with respect to said housing portion , and an actuation element operatively connected to the control element for actuating the control element , wherein the actuation element comprises a first knob element operatively connected to the control element and a second knob element supported on said housing portion wherein the first knob element is placed in between the second knob element and the control element , characterized in that the second knob element is user actuatable and represents an external element and is operatively connected to the first knob element such that a user action is transferred to the first knob element and via the first knob element to the control element for actuating the control element . a housing comprising a housing portion , a control device for controlling operation of the medical device , a control element placed on said housing portion and being actuatable for entering a control command to be input to the control device , wherein the control element , for actuation, is at least one of rotatable about an axis of rotation (R) and linearly movable along the axis of rotation (R) with respect to said housing portion , and an actuation element operatively connected to the control element for actuating the control element , wherein the actuation element comprises a first knob element operatively connected to the control element and a second knob element supported on said housing portion wherein the first knob element is placed in between the second knob element and the control element , characterized in that the second knob element is user actuatable and represents an external element and is operatively connected to the first knob element such that a user action is transferred to the first knob element and via the first knob element to the control element for actuating the control element .
Meter electronics of a vibratory flow meter for determining a void fraction of gas in a flow material flowing through the flow meter , the meter electronics comprising: an interface for receiving a frequency response of the flow material; and a processing system in communication with the interface arranged to receive the frequency response from the interface wherein said processing system is arranged to: break out the frequency response into at least a gas frequency component and a fluid frequency component; and determine the void fraction of gas from the frequency response and one or more of the gas frequency component and the fluid frequency component. an interface for receiving a frequency response of the flow material; and a processing system in communication with the interface arranged to receive the frequency response from the interface wherein said processing system is arranged to: break out the frequency response into at least a gas frequency component and a fluid frequency component; and determine the void fraction of gas from the frequency response and one or more of the gas frequency component and the fluid frequency component.
A filter circuit comprising: a tunable active filter comprising at least one amplifier and a first feedback path coupled between an input and an output of the at least one amplifier, the first feedback path comprising at least one switch ; and an amplitude limiter coupled to the tunable active filter and comprising at least one transistor disposed in a second feedback path coupled between the input and the output of the at least one amplifier; and wherein: the at least one transistor of the amplitude limiter comprises an n-channel metal-oxide semiconductor, NMOS, transistor and a p-channel metal-oxide semiconductor, PMOS, transistor ; a drain of the NMOS transistor is coupled to a drain of the PMOS transistor; and a source of the NMOS transistor is coupled to a source of the PMOS transistor. a tunable active filter comprising at least one amplifier and a first feedback path coupled between an input and an output of the at least one amplifier, the first feedback path comprising at least one switch ; and an amplitude limiter coupled to the tunable active filter and comprising at least one transistor disposed in a second feedback path coupled between the input and the output of the at least one amplifier; and wherein: the at least one transistor of the amplitude limiter comprises an n-channel metal-oxide semiconductor, NMOS, transistor and a p-channel metal-oxide semiconductor, PMOS, transistor ; a drain of the NMOS transistor is coupled to a drain of the PMOS transistor; and a source of the NMOS transistor is coupled to a source of the PMOS transistor. the at least one transistor of the amplitude limiter comprises an n-channel metal-oxide semiconductor, NMOS, transistor and a p-channel metal-oxide semiconductor, PMOS, transistor ; a drain of the NMOS transistor is coupled to a drain of the PMOS transistor; and a source of the NMOS transistor is coupled to a source of the PMOS transistor.
Tube (T) for the passage of a fluid, comprising: - an inner layer of extendible material, - a reinforcing layer surrounding the inner layer , this reinforcing layer extending about a longitudinal axis (X) and having greater elongation capabilities in one direction than in the other with respect to the longitudinal axis (X), and - an outer layer surrounding the reinforcing layer , wherein the inner layer and the outer layer are each produced from an extendible material, and the reinforcing layer comprises punctiform orifices through which a material of the inner and outer layers merge, over the whole length of the tube, to form punctiform material links between the inner layer and the outer layer. - an inner layer of extendible material, - a reinforcing layer surrounding the inner layer , this reinforcing layer extending about a longitudinal axis (X) and having greater elongation capabilities in one direction than in the other with respect to the longitudinal axis (X), and - an outer layer surrounding the reinforcing layer ,
A method of controlling a fire detection system comprising a heat detector and a smoke detector , each being configured to monitor a fire detection volume associated with the fire detection system, the method comprising: determining the presence of at least one person within the fire detection volume using an occupancy sensor or by the reception of data relating to the presence of at least one person within the fire detection volume from an auxiliary system associated with the fire detection volume; monitoring for the presence of a fire within the fire detection volume using the heat detector and the smoke detector responsive to determining that the fire detection volume is unoccupied; and monitoring for the presence of a fire within the fire detection volume using the heat detector and not using the smoke detector responsive to determining that the fire detection volume is occupied. determining the presence of at least one person within the fire detection volume using an occupancy sensor or by the reception of data relating to the presence of at least one person within the fire detection volume from an auxiliary system associated with the fire detection volume; monitoring for the presence of a fire within the fire detection volume using the heat detector and the smoke detector responsive to determining that the fire detection volume is unoccupied; and monitoring for the presence of a fire within the fire detection volume using the heat detector and not using the smoke detector responsive to determining that the fire detection volume is occupied.
A system for removing magnetic beads from a fluid stream comprising cells, the system comprising: a bag comprising a fluid pathway for flowing the fluid stream, wherein the fluid pathway comprises an indirect pathway in the bag , the indirect pathway not being in a substantially straight line between an inlet and an outlet of the bag , wherein the bag is made of sheets of polymeric material that include a texture; a flow cell comprising: a stationary portion with a housing ; and a slidable portion with a plate and rails that engage tracks inside the housing to allow the plate to slide in and out of the housing , wherein the plate includes a magnet that creates a magnetic field adjacent the bag ; and a pump for moving fluid through the fluid pathway. a bag comprising a fluid pathway for flowing the fluid stream, wherein the fluid pathway comprises an indirect pathway in the bag , the indirect pathway not being in a substantially straight line between an inlet and an outlet of the bag , wherein the bag is made of sheets of polymeric material that include a texture; a flow cell comprising: a stationary portion with a housing ; and a slidable portion with a plate and rails that engage tracks inside the housing to allow the plate to slide in and out of the housing , wherein the plate includes a magnet that creates a magnetic field adjacent the bag ; and a pump for moving fluid through the fluid pathway. a stationary portion with a housing ; and a slidable portion with a plate and rails that engage tracks inside the housing to allow the plate to slide in and out of the housing , wherein the plate includes a magnet that creates a magnetic field adjacent the bag ; and a pump for moving fluid through the fluid pathway.
A system, comprising: a refill cartridge ; and a pump dispenser , comprising: a body defining a hollow interior and having a rim comprising one or more notches and defining an opening through which at least a portion of a refill cartridge containing a flowable substance is receivable into the hollow interior ; a lid for closing the opening of the body ; and a pump for pumping the flowable substance from the refill cartridge when the portion of the refill cartridge is in the hollow interior and the lid closes the opening of the body ; wherein the lid comprises a dip tube with a lumen fluidly connected to the pump, the dip tube having a tapered end that is located in the hollow interior of the body when the lid closes the opening of the body ; characterized in that the refill cartridge comprises one or more projections to cooperate with the one or more notches to prevent rotation of the refill cartridge when the portion of the refill cartridge is in the hollow interior . a refill cartridge ; and a pump dispenser , comprising: a body defining a hollow interior and having a rim comprising one or more notches and defining an opening through which at least a portion of a refill cartridge containing a flowable substance is receivable into the hollow interior ; a lid for closing the opening of the body ; and a pump for pumping the flowable substance from the refill cartridge when the portion of the refill cartridge is in the hollow interior and the lid closes the opening of the body ; a body defining a hollow interior and having a rim comprising one or more notches and defining an opening through which at least a portion of a refill cartridge containing a flowable substance is receivable into the hollow interior ; a lid for closing the opening of the body ; and a pump for pumping the flowable substance from the refill cartridge when the portion of the refill cartridge is in the hollow interior and the lid closes the opening of the body ; wherein the lid comprises a dip tube with a lumen fluidly connected to the pump, the dip tube having a tapered end that is located in the hollow interior of the body when the lid closes the opening of the body ; characterized in that the refill cartridge comprises one or more projections to cooperate with the one or more notches to prevent rotation of the refill cartridge when the portion of the refill cartridge is in the hollow interior .
A surgical instrument , comprising: an end effector , comprising: a proximal end; a distal end; a longitudinal axis extending between said proximal end and said distal end; an anvil ; a staple cartridge channel ; and a staple cartridge positioned in said staple cartridge channel, comprising: a cartridge body comprising a longitudinal slot ; staple cavities defined in said cartridge body; staples removably stored in said staple cavities; a sled movable relative to said longitudinal slot during a staple firing stroke; an RFID tag mounted to said staple cartridge in a tag plane; and an RFID reader comprising an induction coil receiver, characterized in that said induction coil receiver is mounted to a sidewall of said staple cartridge channel in a receiver plane, wherein said receiver plane is substantially parallel to said tag plane, and wherein said receiver plane is substantially parallel to said longitudinal axis. an end effector , comprising: a proximal end; a distal end; a longitudinal axis extending between said proximal end and said distal end; an anvil ; a staple cartridge channel ; and a staple cartridge positioned in said staple cartridge channel, comprising: a cartridge body comprising a longitudinal slot ; staple cavities defined in said cartridge body; staples removably stored in said staple cavities; a sled movable relative to said longitudinal slot during a staple firing stroke; an RFID tag mounted to said staple cartridge in a tag plane; and a proximal end; a distal end; a longitudinal axis extending between said proximal end and said distal end; an anvil ; a staple cartridge channel ; and a staple cartridge positioned in said staple cartridge channel, comprising: a cartridge body comprising a longitudinal slot ; staple cavities defined in said cartridge body; staples removably stored in said staple cavities; a sled movable relative to said longitudinal slot during a staple firing stroke; an RFID tag mounted to said staple cartridge in a tag plane; and a cartridge body comprising a longitudinal slot ; staple cavities defined in said cartridge body; staples removably stored in said staple cavities; a sled movable relative to said longitudinal slot during a staple firing stroke; an RFID tag mounted to said staple cartridge in a tag plane; and an RFID reader comprising an induction coil receiver, characterized in that said induction coil receiver is mounted to a sidewall of said staple cartridge channel in a receiver plane, wherein said receiver plane is substantially parallel to said tag plane, and wherein said receiver plane is substantially parallel to said longitudinal axis.
An apparatus comprising a processor , a memory , and communication circuitry , the apparatus being connected to a network via its communication circuitry, the apparatus further comprising computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to perform operations comprising: receiving a configuration signal; and based on the configuration signal, determining a processor interrupt time unit to be used for timing of a medium access control, MAC, procedure, wherein the processor interrupt time unit is based on at least one of: a capability of the apparatus and a minimum slot duration associated with the apparatus. receiving a configuration signal; and based on the configuration signal, determining a processor interrupt time unit to be used for timing of a medium access control, MAC, procedure, wherein the processor interrupt time unit is based on at least one of: a capability of the apparatus and a minimum slot duration associated with the apparatus.
A selective Organic Cation Transporter 2 (OCT2) inhibitor for use in a method for reducing platinum drug-induced neurotoxicity in a subject in need thereof, the method comprising administering to the subject a platinum drug that is oxaliplatin; and administering to the subject an effective dose of the selective OCT2 inhibitor, wherein the subject has colorectal cancer or liver cancer; and wherein the selective OCT2 inhibitor is selected from the group consisting of buflomedil, a buflomedil salt, dolutegravir, and a dolutegravir salt.
A method performed by a central unit (CU)-control plane (CP) of a gNB in a wireless communication system, the method comprising: selecting (S1100) an encryption algorithm; generating a user plane security key for a CU-user plane (CU-UP) of the gNB based on the encryption algorithm; transmitting (S1110), to the CU-UP via E1 interface, the generated user plane security key during a User Plane, UP, setup procedure; and receiving (S1130), from the CU-UP via the E1 interface, a response to confirm the setup of the UP, wherein the CU-CP is a logical node constituting the gNB, that hosts a radio resource control (RRC) protocol and a packet data convergence protocol (PDCP)-C protocol, and wherein the CU-UP is a logical node constituting the gNB, that hosts a PDCP-U protocol. selecting (S1100) an encryption algorithm; generating a user plane security key for a CU-user plane (CU-UP) of the gNB based on the encryption algorithm; transmitting (S1110), to the CU-UP via E1 interface, the generated user plane security key during a User Plane, UP, setup procedure; and receiving (S1130), from the CU-UP via the E1 interface, a response to confirm the setup of the UP, wherein the CU-CP is a logical node constituting the gNB, that hosts a radio resource control (RRC) protocol and a packet data convergence protocol (PDCP)-C protocol, and wherein the CU-UP is a logical node constituting the gNB, that hosts a PDCP-U protocol.
Printing device for inkjet printing comprising a print bar and a cleaning belt for wiping a nozzle surface of the print bar , wherein a mechanism for creating a wiping movement (W) between the print bar and the cleaning belt is provided, the mechanism comprising a pressure element for pressing the cleaning belt against the print bar , and wherein the wiping movement (W) has a first component (x) and a second component (y) perpendicular to the first component, characterized in that during the wiping movement (W), the cleaning belt is continuously in contact with the nozzle surface , the pressure element and the cleaning belt jointly carry out the second component (y), and the pressure element is supported in an auxiliary frame and the mechanism has an oscillation device for moving the auxiliary frame to and fro to create the second component (y).