mhurhangee/patent-ind-claim-en huggingface dataset:
A device for flying an aircraft , comprising: a vehicle management computer configured to position a plurality of control surfaces of the aircraft to control the aircraft, wherein the vehicle management computer is configured to receive pilot commands ; a first actuator control unit configured to receive commands from the vehicle management computer to control one or more actuators for controlling the aircraft ; a high performance computer being configured to execute one or more high level intelligence algorithms to selectively operate the aircraft autonomously in an autonomous flight mode; a piloting input and a separately installable actuator coupled to the piloting input, wherein the piloting input controls an aspect of the aircraft and is selected from the group consisting of a switch, a throttle control, a landing gear lever, a flap, and a power lever; and a second actuator control unit configured to receive commands from the vehicle management computer to actuate the actuator coupled to the piloting input to move the piloting input from a first position to a second position and such that the piloting input remains in the second position when the autonomous flight mode is disabled. a vehicle management computer configured to position a plurality of control surfaces of the aircraft to control the aircraft, wherein the vehicle management computer is configured to receive pilot commands ; a first actuator control unit configured to receive commands from the vehicle management computer to control one or more actuators for controlling the aircraft ; a high performance computer being configured to execute one or more high level intelligence algorithms to selectively operate the aircraft autonomously in an autonomous flight mode; a piloting input and a separately installable actuator coupled to the piloting input, wherein the piloting input controls an aspect of the aircraft and is selected from the group consisting of a switch, a throttle control, a landing gear lever, a flap, and a power lever; and a second actuator control unit configured to receive commands from the vehicle management computer to actuate the actuator coupled to the piloting input to move the piloting input from a first position to a second position and such that the piloting input remains in the second position when the autonomous flight mode is disabled.
An electronic apparatus comprising: a substrate including a plurality of electrodes arranged to be in contact with at least part of electrodes of a plurality of micro LEDs disposed on a transparent substrate at a first pitch , wherein the plurality of electrodes are disposed on the substrate at a second pitch and configured to apply a current to micro LEDs of the plurality of micro LEDs disposed at the second pitch , and wherein the second pitch is a multiple of the first pitch; a camera disposed opposite to the substrate based on the transparent substrate; and a processor configured to: apply a current to the plurality of electrodes on the substrate, control the camera to capture an image of the plurality of LEDs including a micro LED which emits light by the current applying, obtain characteristic information of the light-emitting micro LED based on the captured image, and determine a target substrate (500-1, 500-2) on which each of the plurality of micro LEDs is disposed based on the obtained characteristic information; wherein the second pitch is in proportion to resolving power of the camera, wherein the resolving power refers to a shortest distance to distinguish two adjacent points. a substrate including a plurality of electrodes arranged to be in contact with at least part of electrodes of a plurality of micro LEDs disposed on a transparent substrate at a first pitch , wherein the plurality of electrodes are disposed on the substrate at a second pitch and configured to apply a current to micro LEDs of the plurality of micro LEDs disposed at the second pitch , and wherein the second pitch is a multiple of the first pitch; a camera disposed opposite to the substrate based on the transparent substrate; and a processor configured to: apply a current to the plurality of electrodes on the substrate, control the camera to capture an image of the plurality of LEDs including a micro LED which emits light by the current applying, obtain characteristic information of the light-emitting micro LED based on the captured image, and determine a target substrate (500-1, 500-2) on which each of the plurality of micro LEDs is disposed based on the obtained characteristic information; wherein the second pitch is in proportion to resolving power of the camera, wherein the resolving power refers to a shortest distance to distinguish two adjacent points. apply a current to the plurality of electrodes on the substrate, control the camera to capture an image of the plurality of LEDs including a micro LED which emits light by the current applying, obtain characteristic information of the light-emitting micro LED based on the captured image, and determine a target substrate (500-1, 500-2) on which each of the plurality of micro LEDs is disposed based on the obtained characteristic information; wherein the second pitch is in proportion to resolving power of the camera, wherein the resolving power refers to a shortest distance to distinguish two adjacent points.
An augmented neural network system for processing a sequence of system inputs to generate a sequence of system outputs, the sequence of system inputs comprising a sequence of images or features that have been extracted from images and the sequence of system outputs comprising a sequence of scores for each of a set of object categories, with each score representing an estimated likelihood that the image contains an image of an object belonging to the category; the augmented neural network system comprising: a neural network, wherein the neural network is configured to receive neural network inputs and process each of the neural network inputs to generate a respective neural network output for each neural network input; and a sequence processing subsystem, wherein the sequence processing subsystem is configured to perform operations comprising, for each of the system inputs in the sequence of system inputs: receiving the system input; generating an initial neural network input from the system input; causing the neural network to process the initial neural network input to generate an initial neural network output for the system input; and determining, from a first portion of the initial neural network output for the system input, whether or not to cause the neural network to generate one or more additional neural network outputs for the system input; causing the neural network to generate one or more additional neural network outputs based on the determining. a neural network, wherein the neural network is configured to receive neural network inputs and process each of the neural network inputs to generate a respective neural network output for each neural network input; and a sequence processing subsystem, wherein the sequence processing subsystem is configured to perform operations comprising, for each of the system inputs in the sequence of system inputs: receiving the system input; generating an initial neural network input from the system input; causing the neural network to process the initial neural network input to generate an initial neural network output for the system input; and determining, from a first portion of the initial neural network output for the system input, whether or not to cause the neural network to generate one or more additional neural network outputs for the system input; causing the neural network to generate one or more additional neural network outputs based on the determining. receiving the system input; generating an initial neural network input from the system input; causing the neural network to process the initial neural network input to generate an initial neural network output for the system input; and determining, from a first portion of the initial neural network output for the system input, whether or not to cause the neural network to generate one or more additional neural network outputs for the system input;
A method comprising: configuring (S202) a plurality of nodes (301-1, 301-2), included in a server cluster to be expanded , as one or more server units , each server unit of the one or more server units including at least two nodes (301-1, 301-2) and being configured to perform a session synchronization between the at least two nodes included in each server unit; determining whether a performance parameter of the server cluster is greater than a preset performance parameter threshold, the performance parameter being determined based on the number of sessions and/or load pressure on the one or more server units; in response to determining that the performance parameter of the server cluster is greater than the preset performance parameter threshold: adding a plurality of nodes (501-1, 501-2) into the server cluster as newly added nodes (501-1, 501-2), and configuring (S204) the newly added nodes (501-1, 501-2) as at least one newly added server unit in the server cluster , each newly added server unit including at least two nodes (501-1, 501-2); and posting (S206) routing information of the at least one newly added server unit . configuring (S202) a plurality of nodes (301-1, 301-2), included in a server cluster to be expanded , as one or more server units , each server unit of the one or more server units including at least two nodes (301-1, 301-2) and being configured to perform a session synchronization between the at least two nodes included in each server unit; determining whether a performance parameter of the server cluster is greater than a preset performance parameter threshold, the performance parameter being determined based on the number of sessions and/or load pressure on the one or more server units; in response to determining that the performance parameter of the server cluster is greater than the preset performance parameter threshold: adding a plurality of nodes (501-1, 501-2) into the server cluster as newly added nodes (501-1, 501-2), and configuring (S204) the newly added nodes (501-1, 501-2) as at least one newly added server unit in the server cluster , each newly added server unit including at least two nodes (501-1, 501-2); and posting (S206) routing information of the at least one newly added server unit . adding a plurality of nodes (501-1, 501-2) into the server cluster as newly added nodes (501-1, 501-2), and configuring (S204) the newly added nodes (501-1, 501-2) as at least one newly added server unit in the server cluster , each newly added server unit including at least two nodes (501-1, 501-2); and posting (S206) routing information of the at least one newly added server unit .
An apparatus for measuring bioelectrical impedance of a patient , comprising : a portable device for measuring bioelectrical impedance provided with a controller, an electrical energy accumulator and a wireless data receiving and transmitting unit , a first pair of electrodes and a second pair of electrodes , a first band having a conformation suitable for fitting on a hand of a patient and incorporating said first pair of electrodes and at least a first motion sensor , a second band having a conformation suitable for fitting on a foot of the patient and incorporating said second pair of electrodes and at least a second motion sensor , first connecting means of said first pair of electrodes with said portable device , and second connecting means of said second pair of electrodes with said portable device , said first connecting means comprising a first electric cable having a terminal connector removably connected to an electrical connector of said first band , said second connecting means comprising a second electric cable having a terminal connector removably connected to an electrical connector of said second band , said first band is made of a soft material and has a rigid insert housing said first pair of electrodes and said first motion sensor , said second band is made of a soft material and has a rigid insert housing said second pair of electrodes and second motion sensor , each rigid insert having an elongated box-like conformation and being applied to a longitudinal section of the respective band , each insert having an exposed base wall on which the respective provided electrodes in the form of longitudinal strips are positioned, and an exposed lateral wall, on which the respective electrical connector is positioned.
A method of estimating a quantity of mobile terminals per quality of service class identifier that have buffered data for transmission to a base station , the method comprising receiving buffer status reports from one or more mobile terminals served by the base station , calculating an estimated quantity of active mobile terminals for a quality of service class identifier based on the received buffer status reports, characterised in that the calculating is further based on semi-persistent scheduling grants associated with mobile terminals served by the base station , wherein the calculations are further based on considering each data radio bearer that is not assigned to a logical channel group to be active if the last received data for that data radio bearer had no padding.
Stator for an electric rotating machine , which has a laminated stator core with coil bars and at least one stator winding head board with an insulating main body , wherein the coil bars in each case have multiple subconductors , wherein conducting tracks are integrated into the insulating main body , wherein the at least one stator winding head board abuts an end face of the laminated stator core , wherein the conducting tracks are connected to the subconductors of the coil bars in a material-bonded manner and wherein each subconductor is connected in each case to at least one separate conducting track .
A method of at least partly restoring functional capacity of at least one ceramic membrane (2b;31) for filtering or separating a flow of liquid particle mixture (L), wherein the at least one ceramic membrane (2b; 31) is situated in a membrane housing (2a;32) having at least a feed inlet and a permeate outlet for produced permeate, and wherein the flow of liquid particle mixture (L) is provided in a filtering direction (A2) of the at least one ceramic membrane (2b; 31) and after a filtering period draining the membrane housing (2a;32) at least partly of liquid particle mixture (L) via an emptying outlet prior to injection of an ozone gas or when the ozone gas is injected, characterized in that the method comprises subjecting the at least one ceramic membrane (2b;31) to a membrane regeneration step in a regeneration period in which ozone gas at a concentration of at least 120 g/Nm 3 , where a normal cubic meter (Nm 3 ) is defined as one cubic meter of gas at a temperature of 0°C, and a pressure of 1.01325 bar, is injected into the membrane housing (2a;32) via an ozone inlet and passed through the at least one ceramic membrane (2b;31) in an ozone injection direction (A4), which is opposite the filtering direction (A2), and re-circulating used ozone gas between an ozone outlet of the membrane housing (2b;31) and the ozone inlet of the membrane housing (2b;31) during the membrane regeneration step.
A drill bit including: - a main body portion including three legs extending therefrom, the three legs arranged around a periphery of the main body portion ; - a base region comprised in a general region where the legs meet the main body portion ; - a conical cutter rotatably mounted on each leg , the conical cutters positioned to allow a clearance between the conical cutters and the main body portion ; and - one or more air outlets located on the base region , the or each air outlet located in a region between two adjacent legs and configured to direct air toward the conical cutters ; - a protrusion extending from the main body portion into the clearance, the drill bit characterised in that - the protrusion includes a sloping surface including a plurality of sloping faces converging at an apex , the sloping surface continuing through the base region and emerging at an outer surface of the main body portion; and - the sloping faces are concave, such that ridges are defined between the concave portions of adjacent sloping faces , the legs and the one or more air outlets being positioned within the ridges , the sloping faces then forming channels , limited by the ridges for drill cuttings to flow there through, the channels passing between the legs and the one or more air outlets , and continuing through to the outside surface of the main body portion , so as to guide the cuttings to pass unobstructed past the legs and the air outlets . - a main body portion including three legs extending therefrom, the three legs arranged around a periphery of the main body portion ; - a base region comprised in a general region where the legs meet the main body portion ; - a conical cutter rotatably mounted on each leg , the conical cutters positioned to allow a clearance between the conical cutters and the main body portion ; and - one or more air outlets located on the base region , the or each air outlet located in a region between two adjacent legs and configured to direct air toward the conical cutters ; - a protrusion extending from the main body portion into the clearance, the drill bit characterised in that - the protrusion includes a sloping surface including a plurality of sloping faces converging at an apex , the sloping surface continuing through the base region and emerging at an outer surface of the main body portion; and - the sloping faces are concave, such that ridges are defined between the concave portions of adjacent sloping faces , the legs and the one or more air outlets being positioned within the ridges , the sloping faces then forming channels , limited by the ridges for drill cuttings to flow there through, the channels passing between the legs and the one or more air outlets , and continuing through to the outside surface of the main body portion , so as to guide the cuttings to pass unobstructed past the legs and the air outlets .
A support bracket comprising a lateral support and being configured to adjustably attach the lateral support to a backrest of a seat, wherein the lateral support is configured to provide postural support to a person using the seat, and wherein the support bracket comprises: a first portion extending in a first direction, wherein the first portion is rotatably attached to the lateral support via a first pivot bracket to enable the lateral support to rotate about a longitudinal axis of the first portion to provide the support with an adjustable angle of tilt; a second portion ; and a third portion extending in a second direction that is substantially opposite the first direction, wherein the second portion is connected to both the first and third portions and extends at an angle to the first and third portions ; characterised in that the third portion is rotatably and slidably received within an aperture of a second pivot bracket that is configured to attach to the backrest, such that the support bracket is rotatable about a longitudinal axis of the third portion and slidable along the longitudinal axis of the third portion . a first portion extending in a first direction, wherein the first portion is rotatably attached to the lateral support via a first pivot bracket to enable the lateral support to rotate about a longitudinal axis of the first portion to provide the support with an adjustable angle of tilt; a second portion ; and a third portion extending in a second direction that is substantially opposite the first direction, wherein the second portion is connected to both the first and third portions and extends at an angle to the first and third portions ;
A computer-implemented method comprising: accessing a record corresponding to a particular traversable map element, the record comprising a computer-executable instruction embedded therein; receiving sensor data from one or more sensors, the sensor data corresponding to map data of the particular traversable map element; and executing , by a processor, the computer-executable instruction, wherein the computer-executable instruction is configured, when executed, to cause analysis of at least a portion of the sensor data for updating the record. accessing a record corresponding to a particular traversable map element, the record comprising a computer-executable instruction embedded therein; receiving sensor data from one or more sensors, the sensor data corresponding to map data of the particular traversable map element; and executing , by a processor, the computer-executable instruction, wherein the computer-executable instruction is configured, when executed, to cause analysis of at least a portion of the sensor data for updating the record.
Cushioning wrap material , comprising: an elongate layer of expanded sheet material comprising an array of openings , the expanded sheet material being expanded in length and thickness relative to an unexpanded form; and an elongate layer of interleaf material mechanically secured to the layer of expanded sheet material in face-to-face relationship, wherein the layer of interleaf material is mechanically secured to the layer of expanded sheet material via a plurality of tabs extending from the layer of interleaf material that interlock with a respective plurality of openings in the array. an elongate layer of expanded sheet material comprising an array of openings , the expanded sheet material being expanded in length and thickness relative to an unexpanded form; and an elongate layer of interleaf material mechanically secured to the layer of expanded sheet material in face-to-face relationship, wherein the layer of interleaf material is mechanically secured to the layer of expanded sheet material via a plurality of tabs extending from the layer of interleaf material that interlock with a respective plurality of openings in the array.