mhurhangee/patent-ind-claim-en huggingface dataset:
A data processing method for a client, comprising: acquiring protocol data from a server, wherein the protocol data is formed by encapsulating transmission data in a set protocol by the server; parsing the protocol data to obtain the set protocol; identifying a protocol header, a protocol body and a protocol exception-processing part of the set protocol; and processing the protocol data according to the protocol header, the protocol body and the protocol exception-processing part; characterized in that , wherein the processing comprises: determining, according to the protocol header, whether the set protocol is applicable to the client; processing the protocol data according to the protocol body in response to determining that the set protocol is applicable to the client according to the protocol header and not processing the protocol exception-processing part; and processing the protocol data according to the protocol exception-processing part in response to determining that the set protocol is inapplicable to the client according to the protocol header and not processing the protocol body. acquiring protocol data from a server, wherein the protocol data is formed by encapsulating transmission data in a set protocol by the server; parsing the protocol data to obtain the set protocol; identifying a protocol header, a protocol body and a protocol exception-processing part of the set protocol; and processing the protocol data according to the protocol header, the protocol body and the protocol exception-processing part; characterized in that , wherein the processing comprises: determining, according to the protocol header, whether the set protocol is applicable to the client; processing the protocol data according to the protocol body in response to determining that the set protocol is applicable to the client according to the protocol header and not processing the protocol exception-processing part; and processing the protocol data according to the protocol exception-processing part in response to determining that the set protocol is inapplicable to the client according to the protocol header and not processing the protocol body. determining, according to the protocol header, whether the set protocol is applicable to the client; processing the protocol data according to the protocol body in response to determining that the set protocol is applicable to the client according to the protocol header and not processing the protocol exception-processing part; and processing the protocol data according to the protocol exception-processing part in response to determining that the set protocol is inapplicable to the client according to the protocol header and not processing the protocol body.
A disk-shaped segment configured to be used in a multi-screw kneader including a plurality of kneading screws for kneading a kneading material in a barrel of the multi-screw kneader, wherein the disk-shaped segment is configured to be fixed and disposed in the barrel so as to partition an inside of the barrel such that the disk-shaped segment is disposed at an intermediate position of the kneading screw and on a downstream side of an input port of the multi-screw kneader for charging the kneading material into the barrel , the discshape segment comprising: a disk body punched with small holes , the small holes configured to serve as flow channels of the kneading material; characterized in that a plurality of roller bearings mounted on the disk body , the roller bearings being configured to serve as a plurality of shaft penetrating parts through which rotating shafts of the kneading screws rotatably pass. a disk body punched with small holes , the small holes configured to serve as flow channels of the kneading material; characterized in that a plurality of roller bearings mounted on the disk body , the roller bearings being configured to serve as a plurality of shaft penetrating parts through which rotating shafts of the kneading screws rotatably pass.
A purine base analog, for use in a method of radiation-free hematopoietic stem cell (HSC) transplantation, wherein the purine base analog is 6-thioguanine the method comprising: (a) administering to a mammalian subject one or two doses of 2 to 10 mg/kg body weight of the purine base analog, as a pre-conditioning step; (b) engrafting into the subject hypoxanthine-guanine phosphoribosyltransferase (HPRT)-deficient donor HSCs within 48 to 72 hours of the pre-conditioning step; and (c) administering to the subject about 1 to 5 mg/kg of the purine base analog every two to four days for two to eight weeks following the engrafting step; wherein the method is performed in the absence of pre-conditioning via radiation, and wherein the subject has a hereditary or genetic disorder, an acquired disease affecting lymphohematopoietic cells, or a lymphohematopoietic malignancy. (a) administering to a mammalian subject one or two doses of 2 to 10 mg/kg body weight of the purine base analog, as a pre-conditioning step; (b) engrafting into the subject hypoxanthine-guanine phosphoribosyltransferase (HPRT)-deficient donor HSCs within 48 to 72 hours of the pre-conditioning step; and (c) administering to the subject about 1 to 5 mg/kg of the purine base analog every two to four days for two to eight weeks following the engrafting step; wherein the method is performed in the absence of pre-conditioning via radiation, and wherein the subject has a hereditary or genetic disorder, an acquired disease affecting lymphohematopoietic cells, or a lymphohematopoietic malignancy.
A power tool comprising: a motor including a motor shaft configured to rotate about a shaft rotational axis , wherein the motor is configured to actuate a cutting tool to cut a workpiece; a sensor assembly configured to generate a differential voltage signal that is indicative of a distance between an individual and the cutting tool being less than a threshold distance and to produce a sensor assembly output that is based upon the differential voltage signal ; an analysis circuit configured to receive the sensor assembly output and to generate a trigger signal responsive to the sensor assembly output being outside a nominal sensor assembly output range; and a mechanical reaction mechanism configured to insulate the individual from the cutting tool responsive to receipt of the trigger signal , characterised in that the sensor assembly includes a bridge circuit configured to generate the differential voltage signal , wherein the bridge circuit includes a reference branch , which is configured to generate a reference branch signal at a reference branch voltage, and a detection branch , which is configured to generate a detection branch signal at a detection branch voltage, and further wherein the differential voltage signal includes a difference between the reference branch voltage and the detection branch voltage. a motor including a motor shaft configured to rotate about a shaft rotational axis , wherein the motor is configured to actuate a cutting tool to cut a workpiece; a sensor assembly configured to generate a differential voltage signal that is indicative of a distance between an individual and the cutting tool being less than a threshold distance and to produce a sensor assembly output that is based upon the differential voltage signal ; an analysis circuit configured to receive the sensor assembly output and to generate a trigger signal responsive to the sensor assembly output being outside a nominal sensor assembly output range; and a mechanical reaction mechanism configured to insulate the individual from the cutting tool responsive to receipt of the trigger signal , characterised in that the sensor assembly includes a bridge circuit configured to generate the differential voltage signal , wherein the bridge circuit includes a reference branch , which is configured to generate a reference branch signal at a reference branch voltage, and a detection branch , which is configured to generate a detection branch signal at a detection branch voltage, and further wherein the differential voltage signal includes a difference between the reference branch voltage and the detection branch voltage.
A method, performed by a first agent controlling computing resources in a first edge cloud , for enabling a machine learning operation, the method comprising: - detecting that additional computing resources outside the first edge cloud are needed for the machine learning operation, - obtaining said additional computing resources from a second edge cloud , and - performing the machine learning operation by using computing resources in the first edge cloud and the additional computing resources obtained from the second edge cloud, wherein said obtaining comprises sending a request for the additional computing resources to a second agent controlling computing resources in the second edge cloud, and wherein said detecting comprises finding that performance of a learning model used in the machine learning operation is degraded. - detecting that additional computing resources outside the first edge cloud are needed for the machine learning operation, - obtaining said additional computing resources from a second edge cloud , and - performing the machine learning operation by using computing resources in the first edge cloud and the additional computing resources obtained from the second edge cloud, wherein said obtaining comprises sending a request for the additional computing resources to a second agent controlling computing resources in the second edge cloud, and wherein said detecting comprises finding that performance of a learning model used in the machine learning operation is degraded. wherein said obtaining comprises sending a request for the additional computing resources to a second agent controlling computing resources in the second edge cloud, and wherein said detecting comprises finding that performance of a learning model used in the machine learning operation is degraded.
A memory device , comprising: a plurality of wordlines connected to a plurality of memory cells , wherein the memory cells are static random-access memory (SRAM) cells; wordline logic connected between the plurality of wordlines and a plurality of driver interconnects ; power logic connected to a voltage source and the plurality of driver interconnects, characterised in that the power logic includes a network of interconnects that electrically connect the plurality of driver interconnects together to form a virtual power network, wherein, in response to a memory request, the power logic is configured to connect the voltage source with the virtual power network to store an electric charge within the virtual power network by using a capacitance of the network of interconnects and the plurality of driver interconnects that form the virtual power network, and wherein the wordline logic is configured to under-drive a requested wordline of the plurality of wordlines associated with the memory request by connecting the requested wordline with the virtual power network to share the electric charge stored in the virtual power network with the requested wordline, and wherein the wordline logic is configured to under-drive a voltage of the requested wordline to be lower than a source voltage provided by the voltage source. a plurality of wordlines connected to a plurality of memory cells , wherein the memory cells are static random-access memory (SRAM) cells; wordline logic connected between the plurality of wordlines and a plurality of driver interconnects ; power logic connected to a voltage source and the plurality of driver interconnects, characterised in that the power logic includes a network of interconnects that electrically connect the plurality of driver interconnects together to form a virtual power network, wherein, in response to a memory request, the power logic is configured to connect the voltage source with the virtual power network to store an electric charge within the virtual power network by using a capacitance of the network of interconnects and the plurality of driver interconnects that form the virtual power network, and wherein the wordline logic is configured to under-drive a requested wordline of the plurality of wordlines associated with the memory request by connecting the requested wordline with the virtual power network to share the electric charge stored in the virtual power network with the requested wordline, and wherein the wordline logic is configured to under-drive a voltage of the requested wordline to be lower than a source voltage provided by the voltage source.
Longitudinal member for a heavy goods vehicle structure, said longitudinal member comprising a front end , intended to be oriented towards the front of the heavy goods vehicle structure, said front end being provided with a hinge element for attaching the longitudinal member in an articulated manner to a heavy goods vehicle body , and a rear end , intended to be oriented towards the rear of the heavy goods vehicle structure, said rear end comprising an attachment element for attaching the longitudinal member in a non-permanent manner to the heavy goods vehicle body , the longitudinal member comprising a front part extending from the front end to an intermediate area of the longitudinal member and a rear part extending from the intermediate area to the rear end of the longitudinal member, characterized in that the product (P F ) of the wall thickness (t F ) of the front part by the yield strength (Ys F ) of the material of the front part is greater than the product (P R ) of the wall thickness (t R ) of the rear part by the yield strength (Ys R ) of the material of the rear part .
A radio frequency, RF, ablation system comprising: a plurality of electrodes configured to be positioned at respective tissue sites within a patient's body; a ground pad configured to be positioned on the patient's body to provide a ground path from the patient's body; and a signal generator coupled to the ground pad and further coupled to the plurality of electrodes via corresponding channels , the corresponding channels including a selected channel and a plurality of unselected channels , the signal generator configured to: control switching circuits for the corresponding channels to close the selected channel and to open the plurality of unselected channels; measure a first impedance over the selected channel; control the switching circuits to close the selected channel and the plurality of unselected channels; measure a second impedance over the selected channel; compute a difference between the first impedance and the second impedance; and determine the ground pad has at least a poor electrical connection to the patient's body when the difference exceeds a threshold. a plurality of electrodes configured to be positioned at respective tissue sites within a patient's body; a ground pad configured to be positioned on the patient's body to provide a ground path from the patient's body; and a signal generator coupled to the ground pad and further coupled to the plurality of electrodes via corresponding channels , the corresponding channels including a selected channel and a plurality of unselected channels , the signal generator configured to: control switching circuits for the corresponding channels to close the selected channel and to open the plurality of unselected channels; measure a first impedance over the selected channel; control the switching circuits to close the selected channel and the plurality of unselected channels; measure a second impedance over the selected channel; compute a difference between the first impedance and the second impedance; and determine the ground pad has at least a poor electrical connection to the patient's body when the difference exceeds a threshold. control switching circuits for the corresponding channels to close the selected channel and to open the plurality of unselected channels; measure a first impedance over the selected channel; control the switching circuits to close the selected channel and the plurality of unselected channels; measure a second impedance over the selected channel; compute a difference between the first impedance and the second impedance; and determine the ground pad has at least a poor electrical connection to the patient's body when the difference exceeds a threshold.
Elevator system comprising a device which is arranged within an elevator shaft for creating a temporary protective space (30', 30"), the elevator system having a travel body which can be moved along an entire movement path in a normal operating mode of the elevator system , the device comprising: a fastening element which is fixed in the elevator shaft , a supporting element which is connected, preferably directly, to the fastening element , the supporting element , in a maintenance position of the device , being arranged or being able to be arranged within the elevator shaft such that the movement path of the travel body is limited in order to form the temporary protective space (30', 30"), and an impact element which is connected to the supporting element and which, in the maintenance position of the device , is provided for direct mechanical contact with the travel body , the impact element being pivotably mounted on the supporting element , characterized in that the supporting element can be detached from the fastening element such that the device can be transferred from its maintenance position to its operating position by means of this detachment. a fastening element which is fixed in the elevator shaft , a supporting element which is connected, preferably directly, to the fastening element , the supporting element , in a maintenance position of the device , being arranged or being able to be arranged within the elevator shaft such that the movement path of the travel body is limited in order to form the temporary protective space (30', 30"), and an impact element which is connected to the supporting element and which, in the maintenance position of the device , is provided for direct mechanical contact with the travel body , the impact element being pivotably mounted on the supporting element , characterized in that the supporting element can be detached from the fastening element such that the device can be transferred from its maintenance position to its operating position by means of this detachment.
Electrical machine for submerged applications, which electrical machine includes an external stator consisting of a complete laminated core and winding for providing a multiple-phase AC output voltage, an internal rotor consisting of rotor back iron and permanent magnets , a stator and rotor support structure, and fastening means arranged to fix the stator to the stator and rotor support structure, wherein - the stator , including both laminated core and windings , is separately encapsulated in composites or a polymer, - the fastening means arranged to fix the stator to the stator and rotor support structure comprising a plurality of threaded pins arranged radially outward from the windings at equidistant places around the stator, each traversing the laminated core and the encapsulated material in axial direction and traversing a pair of nuts , disposed in the encapsulating material , the treaded pins protruding at both axial sides from the encapsulated material , and - the rotor is separately either encapsulated in composites or a polymer, or the magnets of the rotor are fixed on the back iron and covered by a protective casing made of stainless steel, or the magnets have corrosion-proof surface and are additionally protected by special paint, wherein a gap between the stator and the rotor is open to surrounding fluid. an internal rotor consisting of rotor back iron and permanent magnets , a stator and rotor support structure, and fastening means arranged to fix the stator to the stator and rotor support structure, - the stator , including both laminated core and windings , is separately encapsulated in composites or a polymer, - the fastening means arranged to fix the stator to the stator and rotor support structure comprising a plurality of threaded pins arranged radially outward from the windings at equidistant places around the stator, each traversing the laminated core and the encapsulated material in axial direction and traversing a pair of nuts , disposed in the encapsulating material , the treaded pins protruding at both axial sides from the encapsulated material , and - the rotor is separately either encapsulated in composites or a polymer, or the magnets of the rotor are fixed on the back iron and covered by a protective casing made of stainless steel, or the magnets have corrosion-proof surface and are additionally protected by special paint, wherein a gap between the stator and the rotor is open to surrounding fluid.
A load handling device for lifting and moving storage containers stacked in a grid framework structure comprising: a first set of parallel rails or tracks and a second set of parallel rails or tracks extending substantially perpendicularly to the first set of rails or tracks in a substantially horizontal plane to form a grid pattern comprising a plurality of grid spaces, wherein the grid is supported by a set of uprights to form a plurality of vertical storage locations beneath the grid for containers to be stacked between and be guided by the uprights in a vertical direction through the plurality of grid spaces, the load handling device comprising: a body mounted on a first set of wheels being arranged to engage with the first set of parallel tracks and a second set of wheels being arranged to engage with the second set of parallel tracks , and a drive assembly for driving the load handling device in a first direction along the first set of parallel tracks or driving the load handling device in a second direction along the second set of parallel tracks, the load handling device being characterised in that the drive assembly comprises: at least two motors for driving respective wheels of the first set of wheels; at least two motors for driving respective wheels of the second set of wheels, wherein each motor is positioned such that its drive shaft is parallel and non-coaxially arranged with respect to the axis of rotation of its respective wheel; and, a number of gear arrangements corresponding to the number of motors for transferring drive from the motors to their respective wheels. the load handling device comprising: a body mounted on a first set of wheels being arranged to engage with the first set of parallel tracks and a second set of wheels being arranged to engage with the second set of parallel tracks , and a drive assembly for driving the load handling device in a first direction along the first set of parallel tracks or driving the load handling device in a second direction along the second set of parallel tracks, the load handling device being characterised in that the drive assembly comprises: at least two motors for driving respective wheels of the first set of wheels; at least two motors for driving respective wheels of the second set of wheels, wherein each motor is positioned such that its drive shaft is parallel and non-coaxially arranged with respect to the axis of rotation of its respective wheel; and, a number of gear arrangements corresponding to the number of motors for transferring drive from the motors to their respective wheels. at least two motors for driving respective wheels of the first set of wheels; at least two motors for driving respective wheels of the second set of wheels, wherein each motor is positioned such that its drive shaft is parallel and non-coaxially arranged with respect to the axis of rotation of its respective wheel; and, a number of gear arrangements corresponding to the number of motors for transferring drive from the motors to their respective wheels.