mhurhangee/ep-ind-claims huggingface dataset:
A method of starting a circuit, the method comprising: receiving a first voltage at a drain node of a start-up circuit comprising a first gallium nitride, GaN, transistor (M 1) having a drain coupled to the drain node, a second GaN transistor (M 2 A) having a drain coupled to the drain node and a gate coupled to a reference node, and a first capacitor coupled between the gate and a source of the second GaN transistor (M 2 A); charging the first capacitor via the second GaN transistor (M 2 A); providing energy from the first capacitor to a driver circuit coupled to a gate of the first GaN transistor; and turning-off the second GaN transistor (M2A) when a voltage of the first capacitor reaches a threshold; wherein the start-up circuit further comprises: a third GaN transistor (M 2 B) having a drain coupled to the gate of the second GaN transistor (M 2 A), and a gate coupled to the reference node, wherein the gate of the second GaN transistor (M 2 A) is coupled to the reference node via a load path of the third GaN transistor (M2B); and a second capacitor coupled between a source of the third GaN transistor (M 2 B) and the reference node; and wherein the first GaN transistor (M 1) is a normally-off transistor and the second and third GaN transistors (M 2 A, M 2 B) are normally-on transistors. receiving a first voltage at a drain node of a start-up circuit comprising a first gallium nitride, GaN, transistor (M 1) having a drain coupled to the drain node, a second GaN transistor (M 2 A) having a drain coupled to the drain node and a gate coupled to a reference node, and a first capacitor coupled between the gate and a source of the second GaN transistor (M 2 A); charging the first capacitor via the second GaN transistor (M 2 A); providing energy from the first capacitor to a driver circuit coupled to a gate of the first GaN transistor; and turning-off the second GaN transistor (M2A) when a voltage of the first capacitor reaches a threshold; wherein the start-up circuit further comprises: a third GaN transistor (M 2 B) having a drain coupled to the gate of the second GaN transistor (M 2 A), and a gate coupled to the reference node, wherein the gate of the second GaN transistor (M 2 A) is coupled to the reference node via a load path of the third GaN transistor (M2B); and a second capacitor coupled between a source of the third GaN transistor (M 2 B) and the reference node; and wherein the first GaN transistor (M 1) is a normally-off transistor and the second and third GaN transistors (M 2 A, M 2 B) are normally-on transistors. a third GaN transistor (M 2 B) having a drain coupled to the gate of the second GaN transistor (M 2 A), and a gate coupled to the reference node, wherein the gate of the second GaN transistor (M 2 A) is coupled to the reference node via a load path of the third GaN transistor (M2B); and a second capacitor coupled between a source of the third GaN transistor (M 2 B) and the reference node; and wherein the first GaN transistor (M 1) is a normally-off transistor and the second and third GaN transistors (M 2 A, M 2 B) are normally-on transistors.
A valve assembly (145; 150) for operation within a valve body of a pump for drilling operations, the valve assembly comprising: an axial centerline; a poppet guide; a poppet guide mounting system engaging the poppet guide; and a poppet slidingly coupled to the poppet guide and movable with the poppet guide, characterised in that the poppet guide mounting system is configured to elastically support the poppet guide and elastically respond to lateral and/or axial translation movement of the poppet guide relative to the axial centerline. an axial centerline; a poppet guide; a poppet guide mounting system engaging the poppet guide; and a poppet slidingly coupled to the poppet guide and movable with the poppet guide, characterised in that the poppet guide mounting system is configured to elastically support the poppet guide and elastically respond to lateral and/or axial translation movement of the poppet guide relative to the axial centerline.
A method of controlling the trajectory of a vehicle that includes a plurality of path planning systems (10, 12, 14), the method comprising: determining an activation state of each of the path planning systems (10, 12, 14); selecting a first one of the active path planning systems (10, 12, 14) for controlling the trajectory of the vehicle based on a ranking index that includes a relative ranking of the path planning systems (10, 12, 14); controlling the trajectory of the vehicle based on a first path determined by the selected path planning system (10, 12, 14); checking if a condition for switching to another one of the path planning systems (10, 12, 14) is triggered; and in dependence on the switching condition being triggered: selecting a second one of the active path planning systems (10, 12, 14) for controlling the trajectory of the vehicle; and switching from controlling the trajectory of the vehicle based on the first path to controlling the trajectory of the vehicle based on a second path determined by the second one of the path planning systems (10, 12, 14); characterised in that the method further comprises selecting the ranking index from a plurality of ranking indexes, prior to selecting the first one of the active path planning systems (10, 12, 14), wherein each ranking index is associated with a corresponding geographical location, the selection of the ranking index being based on the geographical location of the vehicle. determining an activation state of each of the path planning systems (10, 12, 14); selecting a first one of the active path planning systems (10, 12, 14) for controlling the trajectory of the vehicle based on a ranking index that includes a relative ranking of the path planning systems (10, 12, 14); controlling the trajectory of the vehicle based on a first path determined by the selected path planning system (10, 12, 14); checking if a condition for switching to another one of the path planning systems (10, 12, 14) is triggered; and in dependence on the switching condition being triggered: selecting a second one of the active path planning systems (10, 12, 14) for controlling the trajectory of the vehicle; and switching from controlling the trajectory of the vehicle based on the first path to controlling the trajectory of the vehicle based on a second path determined by the second one of the path planning systems (10, 12, 14); characterised in that selecting a second one of the active path planning systems (10, 12, 14) for controlling the trajectory of the vehicle; and switching from controlling the trajectory of the vehicle based on the first path to controlling the trajectory of the vehicle based on a second path determined by the second one of the path planning systems (10, 12, 14); characterised in that the method further comprises selecting the ranking index from a plurality of ranking indexes, prior to selecting the first one of the active path planning systems (10, 12, 14), wherein each ranking index is associated with a corresponding geographical location, the selection of the ranking index being based on the geographical location of the vehicle.
Processing line for peeling shrimps sequentially comprising a feeder, a conveyor line, a detector for detecting the positional orientation of the shrimps on the conveyor line, and an apparatus to reposition and/or remove the shrimps from the conveyor line which may be actuated depending on the result of the detected positional orientation of the shrimps, and a peeling apparatus for peeling the shrimps, characterized in that the feeder is a centrifugal vibrating feeder that is provided with a cone shaped inner periphery with dividers that define a lane or lanes through which the shrimps move due to the vibration of the feeder to ensure that the shrimps are sequentially supplied one by one to the peeling apparatus.
A manufacturing method for a pressed component configured including an elongated top plate, ridge line portions (3a, 3b) at both short direction ends of the top plate, and vertical walls (4a, 4b) that face each other in a state extending from the ridge line portions (3a, 3b), the manufacturing method comprising: employing a die and a punch to curve a blank into a convex profile bowing from the punch side toward the die side in a state in which a punch is caused to contact a first portion of the blank where the two end ridge line portions (3a, 3b) are to be formed, and to sandwich a second portion of the blank where the top plate is to be formed between the die and the punch, and indent the second portion from the die side toward the punch side, characterized in that the second portion is sandwiched between the die and the punch and the second portion is indented from the die side toward the punch side such that the second portion has a radius of curvature R (mm) that satisfies Equation t ⋅ E ⋅ 1000 2 σ s − σ m × 0.5 ≤ R ≤ t ⋅ E ⋅ 1000 2 σ s − σ m × 4 wherein each parameter in Equation is as follows: t is a plate thickness (mm) of the blank; σ s is a short direction bend outer surface stress (MPa) of the portion of the blank to form the top plate; σ m is an average stress in cross section of short direction (MPa) of the portion of the blank to form the top plate; and E is a Young's Modulus (GPa) of sheet steel configuring the blank. employing a die and a punch to curve a blank into a convex profile bowing from the punch side toward the die side in a state in which a punch is caused to contact a first portion of the blank where the two end ridge line portions (3a, 3b) are to be formed, and to sandwich a second portion of the blank where the top plate is to be formed between the die and the punch, and indent the second portion from the die side toward the punch side, curve a blank into a convex profile bowing from the punch side toward the die side in a state in which a punch is caused to contact a first portion of the blank where the two end ridge line portions (3a, 3b) are to be formed, and to sandwich a second portion of the blank where the top plate is to be formed between the die and the punch, and indent the second portion from the die side toward the punch side, characterized in that the second portion is sandwiched between the die and the punch and the second portion is indented from the die side toward the punch side such that the second portion has a radius of curvature R (mm) that satisfies Equation t is a plate thickness (mm) of the blank; σ s is a short direction bend outer surface stress (MPa) of the portion of the blank to form the top plate; σ m is an average stress in cross section of short direction (MPa) of the portion of the blank to form the top plate; and E is a Young's Modulus (GPa) of sheet steel configuring the blank.
An aircraft landing gear assembly comprising a first structural member coupled to a second structural member via a mechanical coupling, the mechanical coupling comprising a bearing, wherein the bearing defines a first bearing surface arranged to contact a first counter-face of the coupling, the first bearing surface being defined by a first tubular layer of fibre reinforced polymer of a first type having an axis and containing synthetic fibres of a first type wound around and along the axis of the first tubular layer, the bearing further comprising a second tubular layer of fibre reinforced polymer of a second type containing synthetic fibres of a second type wound around and along the axis of the first tubular layer, characterised in that one of the first and second fibre reinforced polymers has greater compressive loading capability than the other and the other of the first and second fibre reinforced polymers contains dry lubricant particles improving its self lubrication properties in comparison to the other.
Conveyor device for conveying stunned or dead fowl between a stunning or killing installation and a carrier or processing device, which conveyor device imposes a distance between the stunned or dead fowl, which conveyor device comprises: a first belt conveyor for conveying the stunned or dead fowl or parts of fowl from the stunning or killing installation in a random orientation and local density in a first direction, a second belt conveyor which leads from the first belt conveyor, for conveying the slaughter animals or the parts thereof in a second direction, which is essentially perpendicular to the first direction, a third belt conveyor for conveying the slaughter animals or the parts thereof in a direction, which is essentially similar to the first direction, wherein the first, second and third belt conveyors (150; 152;154) are mounted on respective rollers (156;158,160;162), wherein a radiation source and a radiation receiver are provided, which radiation receiver is coupled to a control device, characterized in that the radiation source and radiation receiver are provided over the second belt conveyor, and in that the radiation receiver is coupled to a control device which is coupled to the drive of the second belt conveyor, such that the drive of the second belt conveyor can be stopped for a predetermined time. a first belt conveyor for conveying the stunned or dead fowl or parts of fowl from the stunning or killing installation in a random orientation and local density in a first direction, a second belt conveyor which leads from the first belt conveyor, for conveying the slaughter animals or the parts thereof in a second direction, which is essentially perpendicular to the first direction, a third belt conveyor for conveying the slaughter animals or the parts thereof in a direction, which is essentially similar to the first direction, wherein the first, second and third belt conveyors (150; 152;154) are mounted on respective rollers (156;158,160;162), wherein a radiation source and a radiation receiver are provided, which radiation receiver is coupled to a control device, characterized in that the radiation source and radiation receiver are provided over the second belt conveyor, and in that the radiation receiver is coupled to a control device which is coupled to the drive of the second belt conveyor, such that the drive of the second belt conveyor can be stopped for a predetermined time.
End terminal for a safety guardrail, said end terminal comprising an elongated beam which is on opposite ends connected to a ground anchor and to the safety guardrail, respectively, and further comprising a collision catcher which is slidably mounted on the beam, wherein the collision catcher connects to a sliding block with an aperture through which the beam is guided, characterized in that the end terminal is provided with a deflector, wherein the deflector is mounted on and extends below the elongated beam.
A hood latch assembly comprising; - a first member arranged to be mounted to a body member within an engine compartment of a vehicle, said first member comprising a lock mechanism, - a second member arranged to be mounted to the hood of the vehicle comprising a striker arranged to engage with said lock mechanism to retain the hood of the vehicle in the closed position, characterised in that the second member further comprises - a hood bracket arranged to be mounted to the hood of the vehicle, - a striker bracket comprising said striker, and - a mechanical lock (17, 21) arranged to lock said striker bracket to said hood bracket, said mechanical lock (17, 21) being arranged to allow unlocking by movement of an actuator. - a first member arranged to be mounted to a body member within an engine compartment of a vehicle, said first member comprising a lock mechanism, - a second member arranged to be mounted to the hood of the vehicle comprising a striker arranged to engage with said lock mechanism to retain the hood of the vehicle in the closed position, characterised in that the second member further comprises - a hood bracket arranged to be mounted to the hood of the vehicle, - a striker bracket comprising said striker, and - a mechanical lock (17, 21) arranged to lock said striker bracket to said hood bracket, said mechanical lock (17, 21) being arranged to allow unlocking by movement of an actuator.
A locking mechanism for an aerosol dispenser, wherein the locking mechanism comprises: a first body structure, a second body structure configured to be rotatably attached to the first body structure, a spindle configured to be rotatably attached to the second body structure, the spindle having an actuator configured to rotationally cooperate with the first body structure such that rotation of the first body structure relative to the second body structure causes rotation of the actuator and of the spindle, a movable element arranged around the spindle, the spindle being rotatable relative to the movable element, wherein rotation of the spindle causes movement of the movable element along the spindle from an initial position to a final position, characterized in that the movable element is configured to engage with the first body structure in the final position to thereby prevent rotation of the first body structure relative to the second body structure; and wherein the movable element has an axially extending end portion (15'a) configured to engage with an axial recess (3'a) of the first body structure when the movable element is in the final position to prevent rotation of the first body structure relative to the second body structure. a first body structure, a second body structure configured to be rotatably attached to the first body structure, a spindle configured to be rotatably attached to the second body structure, the spindle having an actuator configured to rotationally cooperate with the first body structure such that rotation of the first body structure relative to the second body structure causes rotation of the actuator and of the spindle, a movable element arranged around the spindle, the spindle being rotatable relative to the movable element, wherein rotation of the spindle causes movement of the movable element along the spindle from an initial position to a final position, characterized in that the movable element is configured to engage with the first body structure in the final position to thereby prevent rotation of the first body structure relative to the second body structure; and a movable element arranged around the spindle, the spindle being rotatable relative to the movable element, wherein rotation of the spindle causes movement of the movable element along the spindle from an initial position to a final position, characterized in that the movable element is configured to engage with the first body structure in the final position to thereby prevent rotation of the first body structure relative to the second body structure; and wherein the movable element has an axially extending end portion (15'a) configured to engage with an axial recess (3'a) of the first body structure when the movable element is in the final position to prevent rotation of the first body structure relative to the second body structure.
Voltage sensing device for sensing an elevated voltage of a power conductor in a power distribution network of a national grid, comprising a) a sensored insulation plug comprising - a voltage sensor for sensing the elevated voltage, comprising a high-voltage contact for electrical connection to the power conductor; - a plug mating portion, shaped to mate the sensored insulation plug with a corresponding socket mating portion of a separable connector, wherein the high-voltage contact is arranged in the plug mating portion such that the high-voltage contact can be connected to the elevated voltage of the separable connector when the sensored insulation plug is mated with the separable connector; characterized in that the voltage sensing device further comprises b) a tubular insulating sleeve, comprising a socket mating portion shaped as a socket mating portion of the separable connector and mated with the plug mating portion of the insulation plug; c) a conductive rod having a first end portion for electrical connection to the power conductor, and an opposed second end portion, electrically connected to the high-voltage contact and arranged in the insulating sleeve. a) a sensored insulation plug comprising - a voltage sensor for sensing the elevated voltage, comprising a high-voltage contact for electrical connection to the power conductor; - a plug mating portion, shaped to mate the sensored insulation plug with a corresponding socket mating portion of a separable connector, wherein the high-voltage contact is arranged in the plug mating portion such that the high-voltage contact can be connected to the elevated voltage of the separable connector when the sensored insulation plug is mated with the separable connector; characterized in that the voltage sensing device further comprises - a voltage sensor for sensing the elevated voltage, comprising a high-voltage contact for electrical connection to the power conductor; - a plug mating portion, shaped to mate the sensored insulation plug with a corresponding socket mating portion of a separable connector, wherein the high-voltage contact is arranged in the plug mating portion such that the high-voltage contact can be connected to the elevated voltage of the separable connector when the sensored insulation plug is mated with the separable connector; b) a tubular insulating sleeve, comprising a socket mating portion shaped as a socket mating portion of the separable connector and mated with the plug mating portion of the insulation plug; c) a conductive rod having a first end portion for electrical connection to the power conductor, and an opposed second end portion, electrically connected to the high-voltage contact and arranged in the insulating sleeve.
A method for subscribing to a radio link failure, RLF, report, comprising: configuring, by an integration reference point manager, IRPManager, a subscription condition for an RLF report, for an integration reference point agent, IRPAgent; and obtaining, by the IRPManager, the RLF report that is sent by the IRPAgent and satisfies the subscription condition; wherein the configuring, by the IRPManager, the subscription condition for the RLF report, for the IRPAgent comprises: invoking, by the IRPManager, an Activate Signaling Trace Job operation for the IRPAgent, for requesting the IRPAgent to generate a signaling trace job, wherein an input parameter of the Activate Signaling Trace Job operation is a value of an attribute corresponding to the subscription condition; wherein a job type of the signaling trace job is RLF reporting only; wherein the attribute corresponding to the subscription condition comprises: area scope; wherein when the attribute is the area scope, the value of the attribute comprises at least one of the following: an identifier of one or more cells, or a tracking area identifier, or a routing area identifier, or a location area identifier; wherein the subscription condition corresponding to the attribute is: when an RLF occurs on a UE in an area indicated by the attribute, an RLF report needs to be reported. configuring, by an integration reference point manager, IRPManager, a subscription condition for an RLF report, for an integration reference point agent, IRPAgent; and obtaining, by the IRPManager, the RLF report that is sent by the IRPAgent and satisfies the subscription condition;