mhurhangee/ep-ind-claims huggingface dataset:
An add-on device for managing an electronic control unit of a vehicle having one or more of said ECU, a communication network linked thereto for circulating data related to the one or more ECU, and a user interface being integrated in the vehicle and communicating with the communication network, the vehicle further having a vehicle interface communicating with the communication network, the add-on device comprising: - a transceiver adapted to cooperate with the vehicle interface for communicating with the communication network; and - a controller being communicatively connected to the transceiver, and adapted to generate a user-interface control signal addressed to said user interface, in order to manipulate the user interface of the vehicle and to present thereon command options prompting a user to enter a command selection in response thereto, the command selection being representative of an operation to be executed with respect to a targeted one of the one or more ECU (52 A), the controller being further adapted to receive the command selection from the user interface, and to generate in response thereto, an ECU control signal to be sent via the transceiver, to the communication network for executing said operation, in order to manage the targeted ECU (52 A) from the user interface of the vehicle. - a transceiver adapted to cooperate with the vehicle interface for communicating with the communication network; and - a controller being communicatively connected to the transceiver, and adapted to generate a user-interface control signal addressed to said user interface, in order to manipulate the user interface of the vehicle and to present thereon command options prompting a user to enter a command selection in response thereto, the command selection being representative of an operation to be executed with respect to a targeted one of the one or more ECU (52 A), the controller being further adapted to receive the command selection from the user interface, and to generate in response thereto, an ECU control signal to be sent via the transceiver, to the communication network for executing said operation, in order to manage the targeted ECU (52 A) from the user interface of the vehicle.
A robotic surgical system comprising: a surgical tool; a manipulator supporting said surgical tool and comprising a plurality of joints (22, J1-J6) and a plurality of joint actuators; and a controller being in communication with said manipulator and being configured to simulate dynamics of said surgical tool in a virtual simulation by representing said surgical tool as a virtual rigid body having a virtual mass; said controller being configured to determine an expected joint torque for said at least one joint (22, J1-J6), compare said expected joint torque to an actual joint torque of said at least one joint (22, J1-J6) to determine a joint torque difference, characterized in that the virtual mass of the virtual rigid body representing the surgical tool in the virtual simulation has an inertia about at least one of said joints (22, J1-J6), and the controller is further configured to determine said inertia of said virtual mass about said at least one joint (22, J1-J6), compute an angular acceleration about said at least one joint (22, JH1-J6) using said joint torque difference and said inertia, project said angular acceleration to said virtual mass to determine an external force, simulate dynamics of said surgical tool in said virtual simulation in response to said external force, and command action of said joint actuators in accordance with said virtual simulation. a surgical tool; a manipulator supporting said surgical tool and comprising a plurality of joints (22, J1-J6) and a plurality of joint actuators; and a controller being in communication with said manipulator and being configured to simulate dynamics of said surgical tool in a virtual simulation by representing said surgical tool as a virtual rigid body having a virtual mass; said controller being configured to determine an expected joint torque for said at least one joint (22, J1-J6), compare said expected joint torque to an actual joint torque of said at least one joint (22, J1-J6) to determine a joint torque difference, characterized in that the virtual mass of the virtual rigid body representing the surgical tool in the virtual simulation has an inertia about at least one of said joints (22, J1-J6), and the controller is further configured to determine said inertia of said virtual mass about said at least one joint (22, J1-J6), compute an angular acceleration about said at least one joint (22, JH1-J6) using said joint torque difference and said inertia, project said angular acceleration to said virtual mass to determine an external force, simulate dynamics of said surgical tool in said virtual simulation in response to said external force, and command action of said joint actuators in accordance with said virtual simulation.
A refrigerator comprising: a body; a storage compartment (20, 30) formed in the body; an inner door comprising an opening corresponding to the storage compartment (20, 30), an inner plate, an outer plate in which a foaming space between the outer plate and the inner plate is formed, and a heat insulating material that foams in the foaming space, the inner door rotatably combined with the body; a plurality of door guards disposed in the opening; and an outer door rotatably combined with the body so as to open or close the opening, wherein the inner plate comprises a plurality of inner sidewalls that constitute the opening and support the plurality of door guards, the plurality of inner sidewalls are flat from an inlet of the opening to an outlet of the opening, and a distance between the plurality of inner sidewalls is uniform from the inlet of the opening to the outlet of the opening, characterized in that the inner plate is integrally injection-molded, and the inner door further comprises a door trim combined in a space between the inner plate and the outer plate so as to prevent a foaming solution in the foaming space from leaking toward the opening. a body; a storage compartment (20, 30) formed in the body; an inner door comprising an opening corresponding to the storage compartment (20, 30), an inner plate, an outer plate in which a foaming space between the outer plate and the inner plate is formed, and a heat insulating material that foams in the foaming space, the inner door rotatably combined with the body; a plurality of door guards disposed in the opening; and an outer door rotatably combined with the body so as to open or close the opening, wherein the inner plate comprises a plurality of inner sidewalls that constitute the opening and support the plurality of door guards, the plurality of inner sidewalls are flat from an inlet of the opening to an outlet of the opening, and a distance between the plurality of inner sidewalls is uniform from the inlet of the opening to the outlet of the opening, characterized in that the inner plate is integrally injection-molded, and the inner door further comprises a door trim combined in a space between the inner plate and the outer plate so as to prevent a foaming solution in the foaming space from leaking toward the opening.
A drill tool comprising: a drive source accommodated in a tool body; a bit drive shaft rotation-driven by the drive source and projecting from a front end of the drill body; a vibrating apparatus configured to generate vibrating force in an axial direction of the bit drive shaft and vibrating moment in a rotational direction of the bit drive shaft, wherein a magnitude of the vibrating force pulsates and a magnitude of the vibrating moment pulsates, characterized by further comprising a diamond bit attached to a front end of the bit drive shaft; wherein the vibrating apparatus comprises: two eccentric weights (15, 16) arranged on the same axial line orthogonal to an axial line of the bit drive shaft and opposite to each other in substantially symmetrical positions about the axial line of the bit drive shaft; and an eccentric weight drive part configured to drive the two eccentric weights (15, 16) in rotational directions reverse to each other. a drive source accommodated in a tool body; a bit drive shaft rotation-driven by the drive source and projecting from a front end of the drill body; a vibrating apparatus configured to generate vibrating force in an axial direction of the bit drive shaft and vibrating moment in a rotational direction of the bit drive shaft, wherein a magnitude of the vibrating force pulsates and a magnitude of the vibrating moment pulsates, two eccentric weights (15, 16) arranged on the same axial line orthogonal to an axial line of the bit drive shaft and opposite to each other in substantially symmetrical positions about the axial line of the bit drive shaft; and an eccentric weight drive part configured to drive the two eccentric weights (15, 16) in rotational directions reverse to each other.
A slave control apparatus (120, 130, 140), comprising: a receiver configured to receive a sensed physical quantity of a battery (121, 131, 141) and a sensed output physical quantity of a converter corresponding to the battery; and a controller configured to determine state information of the battery based on the sensed physical quantity and the sensed output physical quantity, transmit the state information to a master control apparatus, and control the converter based on output information from the master control apparatus that corresponds to the state information, characterized in that the output information is based on a required physical quantity of a low voltage load. a receiver configured to receive a sensed physical quantity of a battery (121, 131, 141) and a sensed output physical quantity of a converter corresponding to the battery; and a controller configured to determine state information of the battery based on the sensed physical quantity and the sensed output physical quantity, transmit the state information to a master control apparatus, and control the converter based on output information from the master control apparatus that corresponds to the state information, characterized in that the output information is based on a required physical quantity of a low voltage load.
An electric pump device comprising: a fluid pump that discharges fluid; an electric motor that drives the fluid pump; and a control unit that controls the value of current supplied to the electric motor to control rotation of the electric motor, thereby controlling the flow rate of fluid discharged from the fluid pump, wherein at startup of the electric motor, until the rotational speed of the electric motor comes near to a target rotational speed set beforehand, the control unit drives the electric motor by open loop control that restricts the value of current supplied to the electric motor to lower than a predetermined upper limit, and when the rotational speed of the electric motor has come near to the target rotational speed, the control unit drives the electric motor by feedback control that keeps the rotational speed at a steady rotational speed, characterized in that: a plurality of specified rotational speeds for the electric motor are set beforehand in the control unit for the open loop control, and in the open loop control, the rotational speed of the electric motor is increased stepwise by controlling supply current to the electric motor using the plurality of specified rotational speeds. a fluid pump that discharges fluid; an electric motor that drives the fluid pump; and a control unit that controls the value of current supplied to the electric motor to control rotation of the electric motor, thereby controlling the flow rate of fluid discharged from the fluid pump, wherein at startup of the electric motor, until the rotational speed of the electric motor comes near to a target rotational speed set beforehand, the control unit drives the electric motor by open loop control that restricts the value of current supplied to the electric motor to lower than a predetermined upper limit, and when the rotational speed of the electric motor has come near to the target rotational speed, the control unit drives the electric motor by feedback control that keeps the rotational speed at a steady rotational speed, characterized in that: a plurality of specified rotational speeds for the electric motor are set beforehand in the control unit for the open loop control, and in the open loop control, the rotational speed of the electric motor is increased stepwise by controlling supply current to the electric motor using the plurality of specified rotational speeds. a plurality of specified rotational speeds for the electric motor are set beforehand in the control unit for the open loop control, and in the open loop control, the rotational speed of the electric motor is increased stepwise by controlling supply current to the electric motor using the plurality of specified rotational speeds.
Arrangement for controlling a synchronous generator having a stator comprising at least one stator winding and having a rotor with an electromagnet driven by a field current, the rotor being rotatable relative to the stator, the electromagnet being inductively coupled to the stator winding, the arrangement comprising: a measurement system adapted to measure at least one quantity (167, 165, 168, 169, 171); a controller adapted to cause shutting down the field current, if the quantity satisfies at least one criterion associated with at least one malfunction, wherein the at least one quantity (167, 165, 168, 169, 171) includes at least one quantity (169, 171) indicative of a operating condition of a rectifier circuit connected to the output terminal of the stator winding, wherein the at least one quantity (167, 165, 168, 169, 171) further includes a stator current and an output current measured for the stator winding to obtain a current difference for providing differential current protection for the stator winding. a measurement system adapted to measure at least one quantity (167, 165, 168, 169, 171); a controller adapted to cause shutting down the field current, if the quantity satisfies at least one criterion associated with at least one malfunction, wherein the at least one quantity (167, 165, 168, 169, 171) includes at least one quantity (169, 171) indicative of a operating condition of a rectifier circuit connected to the output terminal of the stator winding, wherein the at least one quantity (167, 165, 168, 169, 171) further includes a stator current and an output current measured for the stator winding to obtain a current difference for providing differential current protection for the stator winding.
An aircraft comprising a wing defining an aerofoil surface, the wing comprising a drooped leading edge flap, the drooped leading edge flap being moveable between a stowed position and a deployed position, wherein the wing is so arranged that, at least during certain flight conditions when the drooped leading edge flap is in the deployed position, air flows through an opening in the wing and exits onto the upper surface of the wing, the opening being defined by a gap between the drooped leading edge flap and an adjacent portion of the wing, and characterised in that the drooped leading edge flap is so arranged that, when the drooped leading edge flap is in its deployed position, during certain flight conditions, aerodynamic loads causes at least in part, the opening of the opening, and during other certain flight conditions, substantially no air flows through the opening, the opening being substantially closed or no opening is defined.
A device for filling a dispensing tip with a material, the device comprising: a vacuum manifold comprising at least one port; a vacuum source for creating a negative pressure in the vacuum manifold; and at least one dispensing tip having an axial bore therethrough and configured for air-tight attachment to the at least one port of the vacuum manifold via a proximal end of the at least one dispensing tip; the device being characterized in that each dispensing tip includes a plunger having a distal end being a stop, the plunger being moveable within the axial bore of the dispensing tip, wherein the negative pressure is sufficient to pull the material into the axial bore of the at least one dispensing tip to a level within the dispensing tip defined by the axial position of the stop; wherein the material is a powdered material and a clearance between an outer surface of the stop and an inner wall of the axial bore at the distal end of the dispensing tip is less than a diameter of individual grains of the powdered material or wherein the material is a liquid material, the viscosity of the liquid preventing passage of the liquid through the clearance past the stop. a vacuum manifold comprising at least one port; a vacuum source for creating a negative pressure in the vacuum manifold; and at least one dispensing tip having an axial bore therethrough and configured for air-tight attachment to the at least one port of the vacuum manifold via a proximal end of the at least one dispensing tip; the device being characterized in that each dispensing tip includes a plunger having a distal end being a stop, the plunger being moveable within the axial bore of the dispensing tip, wherein the negative pressure is sufficient to pull the material into the axial bore of the at least one dispensing tip to a level within the dispensing tip defined by the axial position of the stop; wherein the material is a powdered material and a clearance between an outer surface of the stop and an inner wall of the axial bore at the distal end of the dispensing tip is less than a diameter of individual grains of the powdered material or wherein the material is a liquid material, the viscosity of the liquid preventing passage of the liquid through the clearance past the stop.
Magnetic rotary slide fluid valve comprising a valve housing having a cylindrical housing can and a bell-shaped housing cover with a valve chamber, a valve body mounted within the valve chamber rotatably about an axis of rotation, a magnetic coupling with an output rotor mounted to the valve body and having at least one output rotor permanent magnet (35 1 -35 4), and with a drive rotor arranged outside the valve chamber and having at least one drive rotor permanent magnet (42 1 -42 4), wherein the drive rotor and the output rotor are coupled by magnetic forces and are separated from each other in a fluid-tight manner, for coupling the valve body to a valve drive, wherein the output rotor is alternately magnetized along the circumference on the radial outside, the drive rotor is alternately magnetized along the circumference on the radially inner side, and the drive rotor is designed annular and encloses the output rotor at least partially in the axial direction, characterized in that the magnetic rotary slide fluid valve comprises a magnetic field sensor for the detection of the angular position of the valve body, the magnetic field sensor being arranged outside the valve chamber in an actuator housing set on the housing cover, wherein a permanently magnetized sensor magnet is mounted on the valve body in a bearing pin formed at an axial end of the valve body directed to the housing cover, and the magnetic field sensor detects the magnetic field generated by the sensor magnet.
A method for performing a listen before talk, LBT, by a user equipment, UE, in a wireless access system supporting multiple unlicensed carriers, the method comprising: receiving, from a base station, two or more uplink, UL, grants for scheduling UL channel transmissions on a carrier group, wherein the two or more UL grants comprise a first UL grant indicating a first LBT for a first carrier of the carrier group and a second UL grant indicating the first LBT on remaining carriers of the carrier group; randomly selecting the first carrier for the first LBT from the carrier group, wherein the first LBT is a procedure for sensing a channel on the first carrier based on random backoff; performing, on the first carrier, the first LBT; performing, on each of the remaining carriers in the carrier group, a second LBT without the random backoff, even though the second UL grant indicates the first LBT, wherein the second LBT is a procedure for sensing a channel to be idle on each of the remaining carriers during a predetermined time period. receiving, from a base station, two or more uplink, UL, grants for scheduling UL channel transmissions on a carrier group, wherein the two or more UL grants comprise a first UL grant indicating a first LBT for a first carrier of the carrier group and a second UL grant indicating the first LBT on remaining carriers of the carrier group; randomly selecting the first carrier for the first LBT from the carrier group, wherein the first LBT is a procedure for sensing a channel on the first carrier based on random backoff; performing, on the first carrier, the first LBT; performing, on each of the remaining carriers in the carrier group, a second LBT without the random backoff, even though the second UL grant indicates the first LBT, wherein the second LBT is a procedure for sensing a channel to be idle on each of the remaining carriers during a predetermined time period.
Cap or closure made from a resin composition comprising: - at least one polyethylene having a density of at least 0.940 g/cm 3 when measured following the ISO 1183-2 method at 23 °C; - at least 400 ppm based on the total weight of the resin composition of erucamide; and - at least 700 ppm based on the total weight of the resin composition of at least one ultraviolet absorber selected from the hydroxyphenylbenzotriazole class. - at least one polyethylene having a density of at least 0.940 g/cm 3 when measured following the ISO 1183-2 method at 23 °C; - at least 400 ppm based on the total weight of the resin composition of erucamide; and - at least 700 ppm based on the total weight of the resin composition of at least one ultraviolet absorber selected from the hydroxyphenylbenzotriazole class.
A compound represented by the following Formula or a pharmaceutically acceptable salt thereof: in the formula, each substituent group is defined as follows: R 1: a hydrogen atom, a hydroxy group, a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, a halogeno C1-C6 alkyl group, a halogeno C1-C6 alkoxy group, or an aryl group, R 2a and R 2b: identical or different from each other, a hydrogen atom, a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, a halogeno C1-C6 alkyl group, a halogeno C1-C6 alkoxy group, or a cyano group, R 3: a C1-C6 alkyl group or a halogeno C1-C6 alkyl group, A: a single bond, a substituted phenylene group, or a vinylene group, B: a single bond, an oxygen atom, or a sulfur atom, Ar: an aryl group which is optionally substituted by group(s) selected from the group consisting of a halogen atom, a cyano group, a C1-C6 alkyl group, a C1-C6 alkoxy group, a halogeno C1-C6 alkyl group, and a halogeno C1-C6 alkoxy group, Z: -COOH, -SO 2 NHR z, or a tetrazolyl group, R z: a hydrogen atom or a C1-C6 alkyl group, m: 0, 1, 2, 3, 4, 5, or 6, and n: 0 or 1. R 1: a hydrogen atom, a hydroxy group, a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, a halogeno C1-C6 alkyl group, a halogeno C1-C6 alkoxy group, or an aryl group, R 2a and R 2b: identical or different from each other, a hydrogen atom, a halogen atom, a C1-C6 alkyl group, a C1-C6 alkoxy group, a halogeno C1-C6 alkyl group, a halogeno C1-C6 alkoxy group, or a cyano group, R 3: a C1-C6 alkyl group or a halogeno C1-C6 alkyl group, A: a single bond, a substituted phenylene group, or a vinylene group, B: a single bond, an oxygen atom, or a sulfur atom, Ar: an aryl group which is optionally substituted by group(s) selected from the group consisting of a halogen atom, a cyano group, a C1-C6 alkyl group, a C1-C6 alkoxy group, a halogeno C1-C6 alkyl group, and a halogeno C1-C6 alkoxy group, Z: -COOH, -SO 2 NHR z, or a tetrazolyl group, R z: a hydrogen atom or a C1-C6 alkyl group, m: 0, 1, 2, 3, 4, 5, or 6, and n: 0 or 1.