mhurhangee/ep-ind-claims huggingface dataset:
An active imaging system comprising: at least one light source, configured to emit a series of light pulses toward a region of interest; at least one image sensor comprising an array of photodetectors, configured to receive reflections of said pulses reflected from objects located in at least one depth of field to be imaged, and to convert said reflections into an image, wherein each frame of said image comprises a plurality of gating cycles, each of said gating cycles comprising the emission of a respective pulse of said series of light pulses, and the reception of reflections of said respective pulse by said image sensor, and wherein a delay-time (T DELAY) is defined as the duration between the end of an exposure period of said image sensor in one gating cycle (T G-cycleN) and the beginning of the next exposure period of said sensor in a subsequent gating cycle (T G-cycleN+1); and a controller, coupled with said light source and with said image sensor, characterized in that said controller is configured to control the operation of said light source and of said image sensor, and to minimize said delay-time (T DELAY) with respect to at least two successive gating cycles of an image frame, wherein said delay-time (T DELAY) is adaptively determined in accordance with at least one system parameter or environmental condition. at least one light source, configured to emit a series of light pulses toward a region of interest; at least one image sensor comprising an array of photodetectors, configured to receive reflections of said pulses reflected from objects located in at least one depth of field to be imaged, and to convert said reflections into an image, wherein each frame of said image comprises a plurality of gating cycles, each of said gating cycles comprising the emission of a respective pulse of said series of light pulses, and the reception of reflections of said respective pulse by said image sensor, and wherein a delay-time (T DELAY) is defined as the duration between the end of an exposure period of said image sensor in one gating cycle (T G-cycleN) and the beginning of the next exposure period of said sensor in a subsequent gating cycle (T G-cycleN+1); and a controller, coupled with said light source and with said image sensor, characterized in that said controller is configured to control the operation of said light source and of said image sensor, and to minimize said delay-time (T DELAY) with respect to at least two successive gating cycles of an image frame, wherein said delay-time (T DELAY) is adaptively determined in accordance with at least one system parameter or environmental condition.
An electronic device comprising: a housing including a first surface facing a first direction and a second surface facing a second direction that is opposite to the first direction; a display interposed between the first surface and the second surface and exposed through the first surface; a touch sensor interposed between the first surface and the second surface and configured to sense a touch of an external object on the display; a force sensor interposed between the first surface and the second surface and configured to sense pressure by the touch; a processor electrically connected with the display, the touch sensor, and the force sensor; and a memory electrically connected with the processor, characterized in that the memory stores instructions that, when executed, cause the processor to: deactivate at least part of the touch sensor if the display is turned off or while the display operates in a low-power mode; activate at least part of the force sensor in a specified area of the display while the display is turned off or while the display operates in a low-power mode; perform a first function if pressure of a first level by the touch is sensed in the at least part of the force sensor, while the display is turned off or while the display operates in a low-power mode; perform a second function associated with the first function if pressure of a second level by the touch is sensed in the force sensor while the first function is performed; and activate the at least part of the touch sensor if the pressure of the first level or the pressure of the second level is sensed in the at least part of the force sensor. a housing including a first surface facing a first direction and a second surface facing a second direction that is opposite to the first direction; a display interposed between the first surface and the second surface and exposed through the first surface; a touch sensor interposed between the first surface and the second surface and configured to sense a touch of an external object on the display; a force sensor interposed between the first surface and the second surface and configured to sense pressure by the touch; a processor electrically connected with the display, the touch sensor, and the force sensor; and a memory electrically connected with the processor, deactivate at least part of the touch sensor if the display is turned off or while the display operates in a low-power mode; activate at least part of the force sensor in a specified area of the display while the display is turned off or while the display operates in a low-power mode; perform a first function if pressure of a first level by the touch is sensed in the at least part of the force sensor, while the display is turned off or while the display operates in a low-power mode; perform a second function associated with the first function if pressure of a second level by the touch is sensed in the force sensor while the first function is performed; and activate the at least part of the touch sensor if the pressure of the first level or the pressure of the second level is sensed in the at least part of the force sensor.
A circuit breaker comprising a single pole breaking unit including a housing, a movable contact provided in the housing, a fixed contact provided in the housing and contacting or separated from the movable contact, an extinction unit provided in the housing and configured to extinguish an arc generated when the movable contact and the fixed contact are separated, a detection mechanism unit to detect a fault current, and at least one arc gas discharge passage (113, 113', 113", 113"') that is formed in the housing to allow an arc gas generated when the movable contact and the fixed contact are separated to be discharged, characterized in that: the at least one arc gas discharge passage includes an inlet hole (113a-1, 113a'-1, 113"-1, 113"'-1) that is formed at the extinction unit to allow the arc gas to be introduced and a discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) that is formed at the detection mechanism unit to allow the arc gas to be discharged, and the circuit breaker is tripped as the arc gas discharged through the discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) rotates an armature of the detection mechanism unit. the at least one arc gas discharge passage includes an inlet hole (113a-1, 113a'-1, 113"-1, 113"'-1) that is formed at the extinction unit to allow the arc gas to be introduced and a discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) that is formed at the detection mechanism unit to allow the arc gas to be discharged, and the circuit breaker is tripped as the arc gas discharged through the discharge hole (113c-1, 113d'-1, 113d"-1, 113c"'-1) rotates an armature of the detection mechanism unit.
Iron-silicon oxide particles, characterized in that a) the particles comprise those of spherical and/or spheroidal shape, having two portions, one portion consisting essentially of amorphous silicon dioxide and the other portion consisting essentially of iron oxide, b) the particles have a voltage U of 40 kV and an amperage I of 40 mA in the X-ray diffractogram, which is created by means of a diffractometer using CuK alpha radiation, b1) and have a diffraction reflex 1, having a maximum signal height 1 at a diffraction angle 2 Θ = 32 to 34° b2) and have a diffraction reflex 2 having a maximum signal height 2 at a diffraction angle 2 Θ = 34.5 to 36.5°, wherein b3) q ≥ 1, where q is defined as the maximum signal height 2/maximum signal height 1. a) the particles comprise those of spherical and/or spheroidal shape, having two portions, one portion consisting essentially of amorphous silicon dioxide and the other portion consisting essentially of iron oxide, b) the particles have a voltage U of 40 kV and an amperage I of 40 mA in the X-ray diffractogram, which is created by means of a diffractometer using CuK alpha radiation, b1) and have a diffraction reflex 1, having a maximum signal height 1 at a diffraction angle 2 Θ = 32 to 34° b2) and have a diffraction reflex 2 having a maximum signal height 2 at a diffraction angle 2 Θ = 34.5 to 36.5°, wherein b3) q ≥ 1, where q is defined as the maximum signal height 2/maximum signal height 1. b1) and have a diffraction reflex 1, having a maximum signal height 1 at a diffraction angle 2 Θ = 32 to 34° b2) and have a diffraction reflex 2 having a maximum signal height 2 at a diffraction angle 2 Θ = 34.5 to 36.5°, wherein b3) q ≥ 1, where q is defined as the maximum signal height 2/maximum signal height 1.
A pharmaceutical composition, comprising an RNase P inhibitor compound selected from the group consisting of: or a pharmaceutically acceptable salt thereof, and mupirocin.
An aircraft comprising: a skin surrounding a cabin of the aircraft; a passenger module positioned within the skin; characterised by an ejector for ejecting the passenger module through the skin in response to an ejection command issued by a controller, and by the passenger module further comprising at least one cutting element configured to aid penetration of the passenger module through the skin of the aircraft during ejection of the passenger module. a skin surrounding a cabin of the aircraft; a passenger module positioned within the skin; characterised by an ejector for ejecting the passenger module through the skin in response to an ejection command issued by a controller, and by
An apparatus for moving objects, in particular portions which each comprise at least one slice cut off from a food product, having a plurality of individually movable transport movers for a respective at least one object; having a path system for the transport movers in which the transport movers are movable in a transport direction along at least one predefined path; and having a control device for controlling the movements of the transport movers in the path system, wherein at least one transport mover has at least one support which is free of a frame at all times or at least at times for at least a part of a receiver, in particular a bowl-like receiver, for receiving at least one object to be moved, in particular for a packaging or for a part of a packaging, preferably for a tray for receiving at least one portion; wherein the transport movers each comprise at least one runner cooperating with the path system, with at least one, and in particular each, transport mover comprising at least one carrier attached to the runner, said carrier forming the frame-free support or being connected to the frame-free support; and wherein fixing means are provided in addition to the support which are configured for an at least time-wise fixing of the receiver on the support, characterized in that the support is at least temporarily located in a protruding position in which at least a support region of the support for the receiver laterally protrudes; and in that at least one pair of cooperating transport movers is provided which form, together with their support regions, a common, laterally protruding support region for the receiver, with the support region being arranged laterally offset from a stator of the path system, from a runner of the transport mover and/or from a guide for the runner, and with the two transport movers being movable relative to one another for the delivery of receivers such that the support regions are movable away beneath the receivers.
A pneumatic tire comprising a pair of bead portions, wherein each bead portion of the pair of the bead portions comprising a bead core, and a chafer rubber arranged axially inside the bead core and extending outward in a tire radial direction from a bead toe along a tire inner cavity surface, and the chafer rubber is formed of a rubber composition not containing fiber material for reinforcement, wherein a second bead width Wb is 18.0 mm or less, wherein the second bead width (Wb) is a width in the tire axial direction from the bead toe to an axially outer side surface of said each bead portion, wherein the pneumatic tire further comprises a carcass ply (6A or 6B) extending between the pair of the bead portions, characterised in that a shortest distance between the bead toe and the carcass ply (6A and 6B) is 6.0 mm or less. wherein each bead portion of the pair of the bead portions comprising a bead core, and a chafer rubber arranged axially inside the bead core and extending outward in a tire radial direction from a bead toe along a tire inner cavity surface, and the chafer rubber is formed of a rubber composition not containing fiber material for reinforcement, wherein a second bead width Wb is 18.0 mm or less, wherein the second bead width (Wb) is a width in the tire axial direction from the bead toe to an axially outer side surface of said each bead portion, wherein the pneumatic tire further comprises a carcass ply (6A or 6B) extending between the pair of the bead portions, characterised in that a shortest distance between the bead toe and the carcass ply (6A and 6B) is 6.0 mm or less.
A method of managing a drive mode for a mobile electronic device associated with a vehicle hosting a wireless node, the method comprising: determining, by the mobile electronic device, a status of the mobile electronic device as driven or not driven based on a status of a connection between the mobile electronic device and the wireless node, and based on physical data collected from a sensor hub of the mobile electronic device; the method characterised by further comprising: switching, by the mobile electronic device, into or out of the drive mode responsive to determining that the status of the mobile electronic device has changed and has remained changed for a period longer than a wait period, wherein a duration of the wait period is derived based on the status of the connection between the mobile electronic device and the wireless node. determining, by the mobile electronic device, a status of the mobile electronic device as driven or not driven based on a status of a connection between the mobile electronic device and the wireless node, and based on physical data collected from a sensor hub of the mobile electronic device; the method characterised by further comprising: switching, by the mobile electronic device, into or out of the drive mode responsive to determining that the status of the mobile electronic device has changed and has remained changed for a period longer than a wait period, wherein a duration of the wait period is derived based on the status of the connection between the mobile electronic device and the wireless node. switching, by the mobile electronic device, into or out of the drive mode responsive to determining that the status of the mobile electronic device has changed and has remained changed for a period longer than a wait period, wherein a duration of the wait period is derived based on the status of the connection between the mobile electronic device and the wireless node.
A lithium-containing garnet crystal, having a chemical composition represented by Li 7-x La 3 Zr 2-x Ta x O 12 (0.2 ≤ x ≤ 1), having a relative density of 99% or higher, belonging to a cubic system, having a lattice constant a of 1.28 nm ≤ a ≤ 1.30 nm, and having a garnet-related structure, wherein lithium ions occupy only 96h-sites in a crystal structure of the lithium-containing garnet crystal.
Electrical connection terminal with an actuating device, wherein - the electrical connection terminal comprises a contact frame, arranged in a housing made of insulating material, with a conductor terminal connection for an electrical conductor, and - the actuating device comprises an actuating element in the form of a pusher which is integrally connected to the housing made of insulating material; - the conductor terminal connection is formed on the contact frame by at least one spring element, the free end of which forms a clamping edge which is directed toward the electrical conductor and to which a clamping force is applied; - the conductor terminal connection can be opened by action of the pusher on the at least one spring element by a force being applied to the spring element by the pusher counter to the clamping force; - the pusher consists of a pusher arm; - the pusher arm is connected with one of its ends to the housing made of insulating material, and - the pusher arm extends along at least a partial section of two upper surfaces (18, 20) of the housing made of insulating material which are arranged at angle to each other, characterized in that the pusher arm is formed by a first pusher arm part which matches the course of a rear side of the housing, and a second pusher arm part which matches the course of a surface of the housing, and the pusher arm is arranged inside a recess of the housing made from insulating material, and that, in the mounted and unactivated state of the housing made from an insulating material and the contact frame, the pusher arm is subject to pretensioning. - the electrical connection terminal comprises a contact frame, arranged in a housing made of insulating material, with a conductor terminal connection for an electrical conductor, and - the actuating device comprises an actuating element in the form of a pusher which is integrally connected to the housing made of insulating material; - the conductor terminal connection is formed on the contact frame by at least one spring element, the free end of which forms a clamping edge which is directed toward the electrical conductor and to which a clamping force is applied; - the conductor terminal connection can be opened by action of the pusher on the at least one spring element by a force being applied to the spring element by the pusher counter to the clamping force; - the pusher consists of a pusher arm; - the pusher arm is connected with one of its ends to the housing made of insulating material, and - the pusher arm extends along at least a partial section of two upper surfaces (18, 20) of the housing made of insulating material which are arranged at angle to each other, characterized in that the pusher arm is formed by a first pusher arm part which matches the course of a rear side of the housing, and a second pusher arm part which matches the course of a surface of the housing, and the pusher arm is arranged inside a recess of the housing made from insulating material, and that, in the mounted and unactivated state of the housing made from an insulating material and the contact frame, the pusher arm is subject to pretensioning.
An arrangement for generating addresses for interleaving/de-interleaving sequences including a given number K of items, the value of said given number of items K being comprised in a given range of possible values, characterized in that it comprises a first memory unit having stored therein a plurality of records, each record being indicative of a respective set of interleaving/de-interleaving parameters R, C, p and v for constructing a RxC matrix, wherein R,C,p,v denote the number of rows of the matrix, the number of columns of the matrix, a prime number and a primitive root, respectively, for arranging said sequences and for affecting intra-row and inter-row permutation of said matrix to generate a permuted output matrix for generating said addresses, wherein said memory unit has a number of said records stored therein that is smaller than said given range of possible values, and in that each said record in said memory unit is identified by a respective pointer and associated with said memory unit is a pointer retrieval circuit configured for generating for each value of said given number of items K in said given range a corresponding pointer pointing to a respective record in said memory unit.
A method for estimating a load acting on a rotor blade of a wind turbine and for operating the wind turbine, the method comprising: - measuring, via one or more sensors (48, 50), a plurality of operating parameters of the wind turbine, - estimating, via a processor of a controller of the wind turbine, an out-of-plane and in-plane force acting on the rotor blade based at least partially on the plurality of operating parameters; - determining, via the controller, an application point of the out-of-plane and in-plane force on a span of the rotor blade as a function of a tip-speed ratio and a pitch angle of the rotor blade; - estimating, via the controller, an out-of-plane moment of the rotor blade based at least partially on the out-of-plane force and the out-of-plane application point; - estimating, via the controller, an in-plane blade moment of the rotor blade based at least partially on the in-plane force and the in-plane application point; - calculating, via the controller, the load acting on the rotor blade based at least partially on the out-of-plane moment and the in-plane moment; and - implementing, via the controller, a control action based on the calculated load, the control action comprising at least one of pitching the rotor blade, yawing a nacelle of the wind turbine, derating the wind turbine, or uprating the wind turbine. - measuring, via one or more sensors (48, 50), a plurality of operating parameters of the wind turbine, - estimating, via a processor of a controller of the wind turbine, an out-of-plane and in-plane force acting on the rotor blade based at least partially on the plurality of operating parameters; - determining, via the controller, an application point of the out-of-plane and in-plane force on a span of the rotor blade as a function of a tip-speed ratio and a pitch angle of the rotor blade; - estimating, via the controller, an out-of-plane moment of the rotor blade based at least partially on the out-of-plane force and the out-of-plane application point; - estimating, via the controller, an in-plane blade moment of the rotor blade based at least partially on the in-plane force and the in-plane application point; - calculating, via the controller, the load acting on the rotor blade based at least partially on the out-of-plane moment and the in-plane moment; and - implementing, via the controller, a control action based on the calculated load, the control action comprising at least one of pitching the rotor blade, yawing a nacelle of the wind turbine, derating the wind turbine, or uprating the wind turbine.