mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of providing a synthetic track to one or more observation devices , comprising: determining , by one or more computing devices , a location range and a time range for a synthetic track to be created by at least a subset of a plurality of platforms (102A-G); determining , by the one or more computing devices , an emission location (120A-G) and an emission time (122A-G) for at least the subset of platforms of the plurality of platforms (102A-G) based at least in part on the location range and the time range , wherein the emission location (120A-G) is indicative of a location at which the respective platform is to generate an emission (126A-G) and the emission time (122A-G) is indicative of a time at which the respective platform is to generate the emission (126A-G); and sending , by the one or more computing devices , a set of data (128A-G) to each of the platforms of at least the subset of platforms (102A-G), each respective set of data (128A-G) indicating the emission location (120A-G) and the emission time (122A-G) at which the respective platform is to generate the emission to create the synthetic track ; characterized in that the emissions (126A-G) are not generated in response to the platforms (102 A-G) receiving one or more signals from one or more observation devices . determining , by one or more computing devices , a location range and a time range for a synthetic track to be created by at least a subset of a plurality of platforms (102A-G); determining , by the one or more computing devices , an emission location (120A-G) and an emission time (122A-G) for at least the subset of platforms of the plurality of platforms (102A-G) based at least in part on the location range and the time range , wherein the emission location (120A-G) is indicative of a location at which the respective platform is to generate an emission (126A-G) and the emission time (122A-G) is indicative of a time at which the respective platform is to generate the emission (126A-G); and sending , by the one or more computing devices , a set of data (128A-G) to each of the platforms of at least the subset of platforms (102A-G), each respective set of data (128A-G) indicating the emission location (120A-G) and the emission time (122A-G) at which the respective platform is to generate the emission to create the synthetic track ; characterized in that the emissions (126A-G) are not generated in response to the platforms (102 A-G) receiving one or more signals from one or more observation devices .
An assembly including: a) a connection part comprising at least one region of weakness , and b) a disconnection device said disconnection device being intended to disconnect two electrochemical cells connected together by said connection part , said disconnection device comprising: i) microparticles capable of expanding when their temperature reaches a threshold value, said threshold value being less than 150°C, ii) a capsule surrounding all of the microparticles, said capsule being arranged so that, when the temperature of the microparticles reaches said threshold value, the expansion of the microparticles causes a deformation of the capsule, this deformation exerting a pressure in the vicinity of said at least one region of weakness, the pressure causing a tear in said at least one region of weakness, the tear leading to a break in the connection between said two electrochemical cells. a) a connection part comprising at least one region of weakness , and b) a disconnection device said disconnection device being intended to disconnect two electrochemical cells connected together by said connection part , said disconnection device comprising: i) microparticles capable of expanding when their temperature reaches a threshold value, said threshold value being less than 150°C, ii) a capsule surrounding all of the microparticles, i) microparticles capable of expanding when their temperature reaches a threshold value, said threshold value being less than 150°C, ii) a capsule surrounding all of the microparticles,
A printer comprising: a print head configured to move relative to a print media and to selectively convey light-curable ink toward the print media to generate an image; a cure light configured to move relative to the print media and to project cure illumination toward the print media ; and a controller configured to move the print head relative to the print media to print a given image, to move the cure light relative to the print media at a cure speed in response to the cure light passing over a printed portion of the given image to cure the ink of the printed portion of the given image, and to move the cure light at an index speed with respect to the print media in response to the cure light passing over a non-printed portion of the given image, wherein the index speed is greater than the cure speed; wherein in response to the given image occupying a portion of the print media biased toward a first edge of the print media , the given image extending less than half way across the print media toward a second edge of the print media , and the first edge positioned between the position of the cure light and the second edge, the controller is further configured to initiate a first move of the cure light at a cure speed in a first direction toward the second edge to cure the given image, to truncate the first move at a position less than half way between the first edge and the second edge, and retract the cure light toward the first edge at the index speed. a print head configured to move relative to a print media and to selectively convey light-curable ink toward the print media to generate an image; a cure light configured to move relative to the print media and to project cure illumination toward the print media ; and a controller configured to move the print head relative to the print media to print a given image, to move the cure light relative to the print media at a cure speed in response to the cure light passing over a printed portion of the given image to cure the ink of the printed portion of the given image, and to move the cure light at an index speed with respect to the print media in response to the cure light passing over a non-printed portion of the given image, wherein the index speed is greater than the cure speed; wherein in response to the given image occupying a portion of the print media biased toward a first edge of the print media , the given image extending less than half way across the print media toward a second edge of the print media , and the first edge positioned between the position of the cure light and the second edge, the controller is further configured to initiate a first move of the cure light at a cure speed in a first direction toward the second edge to cure the given image, to truncate the first move at a position less than half way between the first edge and the second edge, and retract the cure light toward the first edge at the index speed.
A method of fault detection of a belt or rope comprising: interconnecting two cords of the belt or rope , the cords including a plurality of wires, to form a bridge circuit , wherein the cords are electrically connected to a fault detection unit in a Wheatstone bridge configuration with two fixed resistors ; subjecting the bridge circuit to an excitation voltage; outputting a signal voltage from the bridge circuit , the bridge circuit structure suppressing environmental noise to increase signal to noise ratio of the signal voltage; and monitoring the signal voltage to detect a fault condition of the rope; wherein two legs of the bridge circuit each comprise a fixed resistor and characterized in that two legs of the bridge circuit each comprise only one cord, wherein the fault detection unit compares the complex impedance of the cords to the impedance of the fixed resistors . interconnecting two cords of the belt or rope , the cords including a plurality of wires, to form a bridge circuit , wherein the cords are electrically connected to a fault detection unit in a Wheatstone bridge configuration with two fixed resistors ; subjecting the bridge circuit to an excitation voltage; outputting a signal voltage from the bridge circuit , the bridge circuit structure suppressing environmental noise to increase signal to noise ratio of the signal voltage; and monitoring the signal voltage to detect a fault condition of the rope; wherein two legs of the bridge circuit each comprise a fixed resistor and characterized in that two legs of the bridge circuit each comprise only one cord, wherein the fault detection unit compares the complex impedance of the cords to the impedance of the fixed resistors .
A leadless pacemaker device configured to provide for an intra-cardiac pacing, the leadless pacemaker device comprising: a housing ; an electrode arrangement arranged on the housing and configured to receive electrical signals; and a processing circuitry enclosed in the housing and operatively connected to the electrode arrangement, wherein the processing circuitry comprises a first processing channel having a first gain (G1) for processing a first processing signal derived from electrical signals received via the electrode arrangement and a second processing channel having a second gain (G2) for processing a second processing signal derived from electrical signals received via the electrode arrangement, the second gain (G2) being higher than the first gain (G1), wherein the second processing channel comprises a processing stage that is configured to differentiate one wave portion from another wave portion in the second processing signal and apply, to the second processing signal, a blanking window for excluding a portion of the second processing signal from further processing; and wherein the second processing channel comprises an amplification stage for amplifying the second processing signal, wherein the amplification stage is switched off during said blanking window (Tblank). a housing ; an electrode arrangement arranged on the housing and configured to receive electrical signals; and a processing circuitry enclosed in the housing and operatively connected to the electrode arrangement, wherein the processing circuitry comprises a first processing channel having a first gain (G1) for processing a first processing signal derived from electrical signals received via the electrode arrangement and a second processing channel having a second gain (G2) for processing a second processing signal derived from electrical signals received via the electrode arrangement, the second gain (G2) being higher than the first gain (G1), wherein the second processing channel comprises a processing stage that is configured to differentiate one wave portion from another wave portion in the second processing signal and apply, to the second processing signal, a blanking window for excluding a portion of the second processing signal from further processing; and wherein the second processing channel comprises an amplification stage for amplifying the second processing signal, wherein the amplification stage is switched off during said blanking window (Tblank).
A battery assembly comprising a main body , a circuit board mounted in the main body and a button assembly , wherein the main body is provided with an avoidance hole the button assembly comprises a button cap and a button contact , the button contact is fixedly mounted in the main body and is electrically connected with the circuit board , and the button cap is slidably mounted in the avoidance hole , wherein an elastic member is further provided between the button cap and the button contact , one of the button cap and the button contact is fixedly connected with the elastic member , and the other elastically abuts against the elastic member ; characterized in that : the main body is provided with at least one stopper and when the button cap slides to squeeze the button contact , the button cap abuts against the stopper to form a trigger position where the button cap triggers the button contact to transmit a control signal to the circuit board , and the elastic member is further provided with an extending part , when the button cap slides to the trigger position, the extending part elastically abuts against aside structure of the circuit board . the main body is provided with at least one stopper and when the button cap slides to squeeze the button contact , the button cap abuts against the stopper to form a trigger position where the button cap triggers the button contact to transmit a control signal to the circuit board , and the elastic member is further provided with an extending part , when the button cap slides to the trigger position, the extending part elastically abuts against aside structure of the circuit board .
A heat source unit for a refrigeration apparatus, the heat source unit comprising: a box-shaped casing having a back surface and one side surface each having an inlet , and a front surface having an outlet ; a partition plate provided inside the casing to face the one side surface of the casing , the partition plate defining an air passage (A) that allows the inlet and the outlet to communicate with each other; a heat exchanger provided in the air passage (A) and having a first portion along the back surface of the casing and a second portion along the one side surface of the casing ; and a propeller fan provided in the air passage (A) to blow air toward the outlet of the casing , a first distance S1 and a second distance S2 satisfying a relationship "6 ≤ S1/S2," where the first distance S1 is a shortest distance between an outer peripheral circle (V) of the propeller fan and the second portion of the heat exchanger , and the second distance S2 is a shortest distance between the outer peripheral circle (V) of the propeller fan and the partition plate , characterized in that the second distance S2 being longer than or equal to 10 mm and being shorter than or equal to 40 mm. a box-shaped casing having a back surface and one side surface each having an inlet , and a front surface having an outlet ; a partition plate provided inside the casing to face the one side surface of the casing , the partition plate defining an air passage (A) that allows the inlet and the outlet to communicate with each other; a heat exchanger provided in the air passage (A) and having a first portion along the back surface of the casing and a second portion along the one side surface of the casing ; and a propeller fan provided in the air passage (A) to blow air toward the outlet of the casing , a first distance S1 and a second distance S2 satisfying a relationship "6 ≤ S1/S2," where the first distance S1 is a shortest distance between an outer peripheral circle (V) of the propeller fan and the second portion of the heat exchanger , and the second distance S2 is a shortest distance between the outer peripheral circle (V) of the propeller fan and the partition plate , characterized in that the second distance S2 being longer than or equal to 10 mm and being shorter than or equal to 40 mm.
Reconstructing software for performing back projection computations to project radiographic data of an object (M) acquired in each scan position back to a reconstruction area (B), said software being operable on a CPU having a cache memory, said reconstructing software, when run on said CPU, causing said CPU to perform the step of: causing the back projection computations to be performed, for each unit area (BK) including pixels adjacent one another up and down and right and left on a reconstruction image and formed by dividing said reconstruction area (B) wherein said unit area (BK) has a shape set in view of a size of said cache memory, for projecting said radiographic data acquired in each scan position, or data resulting from filtering of said radiographic data, back to a two-dimensional or three-dimensional reconstruction area (B) virtually set to a region of interest of said object (M), said radiographic data being acquired by causing a radiation source and a detector arranged opposite each other across said object (M) to scan said object (M) synchronously, or to scan said object (M) synchronously with rotation of said object (M), said radiation source irradiating said object (M) with electromagnetic waves capable of penetrating said object (M), said detector detecting electromagnetic waves transmitted through said object (M), wherein the data used in the back projection computations represents a course of electromagnetic waves linking a focus of the radiation source and a respective center of each detector element of said detector, wherein, the reconstruction is performed on a block-by-block basis and a block is an unit area. causing the back projection computations to be performed, for each unit area (BK) including pixels adjacent one another up and down and right and left on a reconstruction image and formed by dividing said reconstruction area (B) wherein said unit area (BK) has a shape set in view of a size of said cache memory, for projecting said radiographic data acquired in each scan position, or data resulting from filtering of said radiographic data, back to a two-dimensional or three-dimensional reconstruction area (B) virtually set to a region of interest of said object (M), said radiographic data being acquired by causing a radiation source and a detector arranged opposite each other across said object (M) to scan said object (M) synchronously, or to scan said object (M) synchronously with rotation of said object (M), said radiation source irradiating said object (M) with electromagnetic waves capable of penetrating said object (M), said detector detecting electromagnetic waves transmitted through said object (M), wherein the data used in the back projection computations represents a course of electromagnetic waves linking a focus of the radiation source and a respective center of each detector element of said detector, wherein, the reconstruction is performed on a block-by-block basis and a block is an unit area.
A combination comprising: (a) (+)-5-amino-3-(2-(4-(2,4-difluoro-5-(2-(methylsulfinyl)ethoxy)phenyl)piperazin-1-yl)ethyl)-8-(furan-2-yl)thiazolo[5,4-e] triazolo[1,5-c]pyrimidin-2 -one or a pharmaceutically acceptable salt thereof; and (b) at least one anticancer agent, wherein the anticancer agent is selected from immunotherapeutic agents, chemotherapeutic agents, antiangiogenic agents, multidrug resistance-associated proteins inhibitors, radiotherapeutic agents, and any combination thereof, wherein the immunotherapeutic agent is selected from checkpoint inhibitors, checkpoint agonists, IDO inhibitors, PI3K inhibitors, adenosine receptor inhibitors, adenosine-producing enzymes inhibitors, CD40 agonists, IL2 variants, immune cells, therapeutic vaccines, or any combination thereof, and wherein the checkpoint inhibitor is an inhibitor of a checkpoint protein selected from PD-1, PD-L1 and CTLA-4. (a) (+)-5-amino-3-(2-(4-(2,4-difluoro-5-(2-(methylsulfinyl)ethoxy)phenyl)piperazin-1-yl)ethyl)-8-(furan-2-yl)thiazolo[5,4-e] triazolo[1,5-c]pyrimidin-2 -one or a pharmaceutically acceptable salt thereof; and (b) at least one anticancer agent, wherein the anticancer agent is selected from immunotherapeutic agents, chemotherapeutic agents, antiangiogenic agents, multidrug resistance-associated proteins inhibitors, radiotherapeutic agents, and any combination thereof, wherein
A screw tower for minimal invasive surgery, comprising: a distal end configured to engage a screw; a proximal end configured to engage instrumentation; a first half and a second half that are connected at the distal end and separately extend to the proximal end ; an instrument insertion feature disposed at the proximal end; a feature set at the distal end configured to engage a head of a screw, wherein the screw tower contains a larger segment and a shorter segment removably connectable to the larger segment by means of reusable tabs , and wherein the reusable tabs comprise flexible arms which contains chevrons configured to engage the screw for attachment of the tower to the screw, the feature set further including a breakpoint configured to allow the first half and the second half to break apart from each other. a distal end configured to engage a screw; a proximal end configured to engage instrumentation; a first half and a second half that are connected at the distal end and separately extend to the proximal end ; an instrument insertion feature disposed at the proximal end; a feature set at the distal end configured to engage a head of a screw, wherein the screw tower contains a larger segment and a shorter segment removably connectable to the larger segment by means of reusable tabs , and wherein the reusable tabs comprise flexible arms which contains chevrons configured to engage the screw for attachment of the tower to the screw, the feature set further including a breakpoint configured to allow the first half and the second half to break apart from each other.
A computer system for calibrating one or more sensors , comprising: a processor ; a communication interface operatively coupled to the processor , the communication interface configured to receive a calibration parameter set via a computer network; a plurality of calibration system bus interfaces operatively coupled to the processor to communicate with a plurality of calibration modules corresponding to each of the one or more sensors , wherein each of the calibration system bus interfaces transmits the received calibration parameter set to a particular one of the plurality of calibration modules of the one or more sensors , wherein each of the calibration system bus interfaces receives calibration output data from the respective one or more sensors , corresponding to the particular calibration module, in response to the calibration parameter set transmitted, and wherein the communications interface transmits the calibration output data to the computer network , thereby generating a new calibration parameter set. a processor ; a communication interface operatively coupled to the processor , the communication interface configured to receive a calibration parameter set via a computer network; a plurality of calibration system bus interfaces operatively coupled to the processor to communicate with a plurality of calibration modules corresponding to each of the one or more sensors , wherein each of the calibration system bus interfaces transmits the received calibration parameter set to a particular one of the plurality of calibration modules of the one or more sensors , wherein each of the calibration system bus interfaces receives calibration output data from the respective one or more sensors , corresponding to the particular calibration module, in response to the calibration parameter set transmitted, and wherein the communications interface transmits the calibration output data to the computer network , thereby generating a new calibration parameter set.
A mounting machine which is configured to mount a plurality of components of a plurality of types on a board using a mounting head , characterized by comprising: mounting control means which is configured to acquire a mounting order in which a component type in the plurality of component types that has a higher possibility of running out than another component type is preferentially mounted, to perform a mounting process which controls the mounting head such that the components are sequentially mounted on the board based on the acquired mounting order, and during the mounting process, when a component type of a subsequent mounting target in the mounting order runs out and a component type the mounting order of which is later than the component type does not run out, to control the mounting head such that the component type that does not run out is previously mounted on the board .