mhurhangee/patent-ind-claim-en huggingface dataset:
An enclosure for housing ends of a connector, wherein the enclosure is configured to interface with a robot , comprising: a housing having a first end and a second end opposite the first end , the housing having a first connector receptacle at the first end , the housing having a surface defining a robot-engaging mechanism that allows a robot to consistently interface in a certain orientation; a hook extending from the second end of the housing ; a securement mechanism at the second end of the housing ; wherein the enclosure is securable to a location through both the hook and the securement mechanism or is moveable by the robot when the robot engages the enclosure . a housing having a first end and a second end opposite the first end , the housing having a first connector receptacle at the first end , the housing having a surface defining a robot-engaging mechanism that allows a robot to consistently interface in a certain orientation; a hook extending from the second end of the housing ; a securement mechanism at the second end of the housing ; wherein the enclosure is securable to a location through both the hook and the securement mechanism or is moveable by the robot when the robot engages the enclosure .
A method for selecting and identifying a powered dolly vehicle among a group of powered dolly vehicles (30A to 30N) in a geographical area for forming a vehicle combination with a primary vehicle and one or more trailers (40A to 40N), the method being implemented by one or more processors of a wireless control system , each one of the powered dolly vehicles having an associated distinguishable identification information and an operational characteristic, wherein the method comprises: - receiving (S10) a request from the primary vehicle to select a powered dolly vehicle among the group of powered dolly vehicles based at least in part on a mission-characteristic for the vehicle combination; - evaluating (S20) the operational characteristic of each one of the powered dolly vehicles based on said mission-characteristic; - selecting (S30) a powered dolly vehicle among the group of powered dolly vehicles based at least in part on said evaluation; - locating (S40) the selected powered dolly vehicle in the geographical area based at least in part on the identification information; and - communicating (S50) the location of the selected powered dolly vehicle to the primary vehicle or operating the powered dolly vehicle to the primary vehicle. - receiving (S10) a request from the primary vehicle to select a powered dolly vehicle among the group of powered dolly vehicles based at least in part on a mission-characteristic for the vehicle combination; - evaluating (S20) the operational characteristic of each one of the powered dolly vehicles based on said mission-characteristic; - selecting (S30) a powered dolly vehicle among the group of powered dolly vehicles based at least in part on said evaluation; - locating (S40) the selected powered dolly vehicle in the geographical area based at least in part on the identification information; and - communicating (S50) the location of the selected powered dolly vehicle to the primary vehicle or operating the powered dolly vehicle to the primary vehicle.
A load cell, wherein the load cell comprises: four strain gauges, comprising a first strain gauge (SG1), a second strain gauge (SG2), a third strain gauge (SG3) and a fourth strain gauge (SG4), the four strain gauges being mounted on a surface of a cell deformation part and located in a force measurement region of the cell deformation part, and the four strain gauges being connected to form a Wheatstone bridge and then form a strain bridge with a temperature sensing element; a digital-to-analog conversion chip circuit, containing a reference voltage end (Vref), a grounding end (GND), a plurality of input channels and a digital output end (Dout), the digital-to-analog conversion circuit incenting the strain bridge via the reference voltage end (Vref) and the grounding end (GND), and receiving feedback signals of the strain bridge respectively via the plurality of input channels, and the feedback signals being output via the digital output end (Dout); and a signal processor, receiving the feedback signals from the output end (Dout) of the digital-to-analog conversion circuit, characterized by the signal processor comprising a load stress calculation unit and a state information matrix calculation unit, the load stress calculation unit obtaining a load stress value through calculation according to the feedback signals, and the state information matrix calculation unit obtaining a state information matrix through calculation according to the feedback signals. four strain gauges, comprising a first strain gauge (SG1), a second strain gauge (SG2), a third strain gauge (SG3) and a fourth strain gauge (SG4), the four strain gauges being mounted on a surface of a cell deformation part and located in a force measurement region of the cell deformation part, and the four strain gauges being connected to form a Wheatstone bridge and then form a strain bridge with a temperature sensing element; a digital-to-analog conversion chip circuit, containing a reference voltage end (Vref), a grounding end (GND), a plurality of input channels and a digital output end (Dout), the digital-to-analog conversion circuit incenting the strain bridge via the reference voltage end (Vref) and the grounding end (GND), and receiving feedback signals of the strain bridge respectively via the plurality of input channels, and the feedback signals being output via the digital output end (Dout); and a signal processor, receiving the feedback signals from the output end (Dout) of the digital-to-analog conversion circuit, characterized by the signal processor comprising a load stress calculation unit and a state information matrix calculation unit, the load stress calculation unit obtaining a load stress value through calculation according to the feedback signals, and the state information matrix calculation unit obtaining a state information matrix through calculation according to the feedback signals.
A ball collecting drum , which is configured to roll on a surface to collect a plurality of balls (B) on the surface, the ball collecting drum comprising: a plurality of discs ; an annular multi-row groove comprising a plurality of annular grooves formed between adjacent discs of the plurality of discs ; and ball pockets formed, on an outer periphery of each of the plurality of discs , in each annular groove formed between the adjacent plurality of discs , wherein each of the ball pockets is configured to have elasticity to possible entry and exit of a ball (B) and be continuously formed, each of the ball pockets is configured to have a size to hold only one ball (B) therein, and the ball pockets formed in the adjacent annular grooves being formed at positions deviated from each other in a circumferential direction of the annular grooves . a plurality of discs ; an annular multi-row groove comprising a plurality of annular grooves formed between adjacent discs of the plurality of discs ; and ball pockets formed, on an outer periphery of each of the plurality of discs , in each annular groove formed between the adjacent plurality of discs , wherein each of the ball pockets is configured to have elasticity to possible entry and exit of a ball (B) and be continuously formed, each of the ball pockets is configured to have a size to hold only one ball (B) therein, and the ball pockets formed in the adjacent annular grooves being formed at positions deviated from each other in a circumferential direction of the annular grooves . each of the ball pockets is configured to have a size to hold only one ball (B) therein, and the ball pockets formed in the adjacent annular grooves being formed at positions deviated from each other in a circumferential direction of the annular grooves .
A method of transmitting an uplink data signal by a user equipment, UE, in a narrowband wireless communication system, the method comprising: receiving, from a base station, a downlink control signal including resource allocation information about virtual physical resource blocks, PRBs, contiguously allocated for the uplink data signal among allocable virtual PRBs; and transmitting the uplink data signal to the base station based on the contiguously allocated PRBs indicated by the resource allocation information, wherein the allocable virtual PRBs are virtually contiguous PRBs excluding a center PRB from a system bandwidth, wherein based on the allocated virtual PRBs including PRBs on both sides of the center PRB, the uplink data signal is transmitted using the contiguously allocated PRBs including the center PRB, and wherein the resource allocation information is determined based on a fixed number of the allocable virtual PRBs. receiving, from a base station, a downlink control signal including resource allocation information about virtual physical resource blocks, PRBs, contiguously allocated for the uplink data signal among allocable virtual PRBs; and transmitting the uplink data signal to the base station based on the contiguously allocated PRBs indicated by the resource allocation information, wherein the allocable virtual PRBs are virtually contiguous PRBs excluding a center PRB from a system bandwidth, wherein based on the allocated virtual PRBs including PRBs on both sides of the center PRB, the uplink data signal is transmitted using the contiguously allocated PRBs including the center PRB, and wherein the resource allocation information is determined based on a fixed number of the allocable virtual PRBs.
Kit for producing polymerisable bone cements, characterised in that it comprises component A and component B, whereby component A is present as a powder and comprises (a.1) at least one powder-like polymethylmethacrylate copolymer, whereby the powder-like polymethylmethacrylate copolymer comprises at least one particulate polymethylmethacrylate copolymer with a molar mass Mn of more than / equal to 200,000 g/mol to 1,000,000 g/mol, and the polymethylmethacrylate copolymer can be obtained through polymerisation of a mixture of more than / equal to 90.0% by weight methylmethacrylate and less than / equal to 10.0% by weight to more than / equal to 1% by weight of one or more co-monomers, and the total composition with respect to this mixture corresponds to 100% by weight; (a.2) at least one powder-like radiopaquer; and (a.3) at least one polymerisation initiator; and component B is present as a liquid and comprises (b.1) at least one monomer for radical polymerisation; (b.2) optionally, at least one polymerisation accelerator; and (b.3) optionally, at least one stabiliser; and whereby component A is present in the internal space of a cartridge , whereby the cartridge comprise a cartridge connector with internal thread on its one end and a dispensing plunger on its other, opposite end; whereby a mixing rod can be attached or is arranged on a mixing facility on the inside of the cartridge through a feedthrough in the dispensing plunger , whereby the mixing facility can be operated from outside by moving the mixing rod along an axis of the internal space ; and; whereby component B is contained in a monomer container for single or repeated use, whereby component B is present in a glass ampoule with an ampoule head that can be broken off, whereby the glass ampoule, the cartridge and/or a dosing facility, which is arranged between the monomer container and the cartridge, comprise markers, whereby scale divisions of the markers can be used to read the amount of component B to be added in order to adjust the weight ratio or the volume ratio corresponding to the weight ratio of component A comprising the polymethylmethacrylate copolymer and component B comprising the monomer for radical polymerisation to approximately 2.0 to 3.4 to 1.0. (a.1) at least one powder-like polymethylmethacrylate copolymer, whereby the powder-like polymethylmethacrylate copolymer comprises at least one particulate polymethylmethacrylate copolymer with a molar mass Mn of more than / equal to 200,000 g/mol to 1,000,000 g/mol, and the polymethylmethacrylate copolymer can be obtained through polymerisation of a mixture of more than / equal to 90.0% by weight methylmethacrylate and less than / equal to 10.0% by weight to more than / equal to 1% by weight of one or more co-monomers, and the total composition with respect to this mixture corresponds to 100% by weight; (a.2) at least one powder-like radiopaquer; and (a.3) at least one polymerisation initiator; and (b.1) at least one monomer for radical polymerisation; (b.2) optionally, at least one polymerisation accelerator; and (b.3) optionally, at least one stabiliser; and
A computer-implemented method comprising: receiving one or more input medical images of a vessel of a patient; performing a plurality of vessel assessment tasks for assessing the vessel using a machine learning based model trained using multi-task learning based on shared features extracted from the one or more input medical images, the plurality of vessel assessment tasks comprising segmentation of reference walls of the vessel from the one or more input medical images and segmentation of lumen of the vessel from the one or more input medical images, wherein the machine learning based model comprises an encoder for encoding the one or more input medical images into the shared features and a plurality of decoders each for decoding the shared features to perform a respective one of the plurality of vessel assessment tasks , and wherein the reference walls of the vessel refer to the walls of the vessel when healthy, excluding any disease or abnormalities on the walls of the vessel; and outputting results of the plurality of vessel assessment tasks, wherein the machine learning based model is trained for the segmentation of the reference wall of the vessel and the segmentation of the lumen of the vessel based on regularization for consistency between ground truth stenosis grading and stenosis grading based on results of the segmentation of the reference walls of the vessel and results of the segmentation of the lumen. receiving one or more input medical images of a vessel of a patient; performing a plurality of vessel assessment tasks for assessing the vessel using a machine learning based model trained using multi-task learning based on shared features extracted from the one or more input medical images, the plurality of vessel assessment tasks comprising segmentation of reference walls of the vessel from the one or more input medical images and segmentation of lumen of the vessel from the one or more input medical images, wherein the machine learning based model comprises an encoder for encoding the one or more input medical images into the shared features and a plurality of decoders each for decoding the shared features to perform a respective one of the plurality of vessel assessment tasks , and wherein the reference walls of the vessel refer to the walls of the vessel when healthy, excluding any disease or abnormalities on the walls of the vessel; and outputting results of the plurality of vessel assessment tasks, wherein the machine learning based model is trained for the segmentation of the reference wall of the vessel and the segmentation of the lumen of the vessel based on regularization for consistency between ground truth stenosis grading and stenosis grading based on results of the segmentation of the reference walls of the vessel and results of the segmentation of the lumen.
A method, by a wireless device , comprising: receiving one or more configuration parameters indicating periodic resources of a configured grant for an uplink bandwidth part, BWP, and a timer value for a downlink BWP inactivity timer; monitoring a physical downlink control channel, PDCCH, of an active BWP during a discontinuous reception, DRX, active time; switching, in response to receiving an indication of BWP switching, to a non-default downlink BWP as the active BWP during the DRX active time; in response to the switching: monitoring a first PDCCH of the non-default downlink BWP; starting the downlink BWP inactivity timer; and activating the configured grant; transmitting a packet via a transmission interval of the periodic resources; restarting the downlink BWP inactivity timer in response to the transmitting and in response to an expiration of the downlink BWP inactivity timer switching to a default downlink BWP as the active BWP during the DRX active time. receiving one or more configuration parameters indicating periodic resources of a configured grant for an uplink bandwidth part, BWP, and a timer value for a downlink BWP inactivity timer; monitoring a physical downlink control channel, PDCCH, of an active BWP during a discontinuous reception, DRX, active time; switching, in response to receiving an indication of BWP switching, to a non-default downlink BWP as the active BWP during the DRX active time; in response to the switching: monitoring a first PDCCH of the non-default downlink BWP; starting the downlink BWP inactivity timer; and activating the configured grant; monitoring a first PDCCH of the non-default downlink BWP; starting the downlink BWP inactivity timer; and activating the configured grant; transmitting a packet via a transmission interval of the periodic resources; restarting the downlink BWP inactivity timer in response to the transmitting and in response to an expiration of the downlink BWP inactivity timer switching to a default downlink BWP as the active BWP during the DRX active time.
An antifuse-type OTP memory cell (cx), comprising: an antifuse transistor (Tax), wherein a first drain/source terminal of the antifuse transistor (Tax) is connected with a bit line (BL), and a gate terminal of the antifuse transistor (Tax) is connected with an antifuse control line (AFx); and an isolation transistor (Tix), wherein a first drain/source terminal of the isolation transistor (Tix) is connected with a second drain/source terminal of the antifuse transistor (Tax), and a gate terminal of the isolation transistor (Tix) is connected with an isolation control line (ISx), wherein a gate oxide layer at the gate terminal of the antifuse transistor (Tax) is divided into a first part and a second part, wherein the first part is closer to the first drain/source terminal of the antifuse transistor (Tax), the second part is closer to the second drain/source terminal of the antifuse transistor (Tax), and the first part is thicker than the second part. an antifuse transistor (Tax), wherein a first drain/source terminal of the antifuse transistor (Tax) is connected with a bit line (BL), and a gate terminal of the antifuse transistor (Tax) is connected with an antifuse control line (AFx); and an isolation transistor (Tix), wherein a first drain/source terminal of the isolation transistor (Tix) is connected with a second drain/source terminal of the antifuse transistor (Tax), and a gate terminal of the isolation transistor (Tix) is connected with an isolation control line (ISx), wherein a gate oxide layer at the gate terminal of the antifuse transistor (Tax) is divided into a first part and a second part, wherein the first part is closer to the first drain/source terminal of the antifuse transistor (Tax), the second part is closer to the second drain/source terminal of the antifuse transistor (Tax), and the first part is thicker than the second part.
An implantable lead comprising: at least one conductive pathway; and a protective element surrounding at least a portion of the at least one conductive pathway, wherein a stiffness of the protective element varies along a length of the protective element, and characterised in that the protective element is selected from the group consisting of a first helically-wound wire, two helically-wound wires, a perforated tube, and a patterned mesh. at least one conductive pathway; and a protective element surrounding at least a portion of the at least one conductive pathway, wherein a stiffness of the protective element varies along a length of the protective element, and characterised in that the protective element is selected from the group consisting of a first helically-wound wire, two helically-wound wires, a perforated tube, and a patterned mesh.
Connection arrangement for fluid lines, having a charge-air pipe and at least one connector piece which is produced by plastic injection moulding and which is designed as a separate component which is able to be welded at least to a charge-air pipe end , characterized in that , in the interior , the connector piece has radially arranged support ribs .
A fluid ejection assembly comprising: an address line for communicating a set of addresses; a set of data lines; a number of primitives, each primitive including a plurality of controllable activation devices, each activation device being coupled to the address line, each activation device corresponding to at least one address of the set of addresses, each address corresponding to one of a number of primitive functions, wherein each activation device of a primitive is coupled to the same data line, and each primitive is coupled to a different data line; a buffer to: receive a series of data packets, each data packet including address bits representative of one address of the set of addresses and a set of print data bits, direct the address bits of the data packet to address logic, and place the data bits from the print data portion of the data packets onto corresponding data lines; and an address logic to receive the address bits from the buffer, wherein, for each data packet, the address logic is to encode the address represented by the address bits onto the address line, and wherein the at least one activation device corresponding to the encoded address is to activate the primitive function corresponding to the address based on the encoded address being on the address line, print data being present on the corresponding data line and a fire pulse being active. an address line for communicating a set of addresses; a set of data lines; a number of primitives, each primitive including a plurality of controllable activation devices, each activation device being coupled to the address line, each activation device corresponding to at least one address of the set of addresses, each address corresponding to one of a number of primitive functions, wherein each activation device of a primitive is coupled to the same data line, and each primitive is coupled to a different data line; a buffer to: receive a series of data packets, each data packet including address bits representative of one address of the set of addresses and a set of print data bits, direct the address bits of the data packet to address logic, and place the data bits from the print data portion of the data packets onto corresponding data lines; and an address logic to receive the address bits from the buffer, wherein, for each data packet, the address logic is to encode the address represented by the address bits onto the address line, and wherein the at least one activation device corresponding to the encoded address is to activate the primitive function corresponding to the address based on the encoded address being on the address line, print data being present on the corresponding data line and a fire pulse being active.
A method for recovering volatile anaesthetic agent from a material, the method comprises the step of subjecting the material to a supercritical fluid, thereby forming a supercritical solution, the anaesthetic agent is dissolved in the supercritical fluid to form the supercritical solution which carries the anaesthetic agent from the material, in which the supercritical fluid is carbon dioxide or nitrous oxide, characterised in that supercritical temperature is between 30°C and 100°C.