mhurhangee/patent-ind-claim-en huggingface dataset:
A fault localization system configured for locating a fault in a gas-insulated switchgear , the fault localization system comprising at least one transceiver and a controller connected to each transceiver , each transceiver being configured to be arranged within the gas-insulated switchgear , each transceiver being configured to output a detection signal corresponding to a received electromagnetic wave, generated by the fault ; the controller being configured, for each transceiver , to compute a time reversed signal by performing time reversal based on the corresponding detection signal, and to input, to the transceiver , an associated probe signal that is dependent on the corresponding time reversed signal; each transceiver being further configured to radiate, at an emission time, a probe electromagnetic wave based on the corresponding probe signal, and to output a response signal associated to a response electromagnetic wave corresponding to a response of the environment of the transceiver to the probe electromagnetic wave, and received at a reception time, the controller being further configured to determine information relating to the location of the fault based on a time difference between the emission time and the reception time. each transceiver being configured to be arranged within the gas-insulated switchgear , each transceiver being configured to output a detection signal corresponding to a received electromagnetic wave, generated by the fault ; the controller being configured, for each transceiver , to compute a time reversed signal by performing time reversal based on the corresponding detection signal, and to input, to the transceiver , an associated probe signal that is dependent on the corresponding time reversed signal; each transceiver being further configured to radiate, at an emission time, a probe electromagnetic wave based on the corresponding probe signal, and to output a response signal associated to a response electromagnetic wave corresponding to a response of the environment of the transceiver to the probe electromagnetic wave, and received at a reception time, the controller being further configured to determine information relating to the location of the fault based on a time difference between the emission time and the reception time.
Fish feed-in device which is configured and designed to supply fish to a plurality of fish-processing devices and comprises: a transverse conveyor designed to convey the fish transversely to their head-tail orientation in a transverse conveying direction , wherein the transverse conveyor comprises a plurality of receptacles each designed to individually hold one of the fish , and the transverse conveyor has a controllable drive unit , at least one feeder device which is designed to supply fish to the receptacles of the transverse conveyor , a plurality of transfer devices which are designed to selectively transfer the fish from the transverse conveyor to the longitudinal conveyors arranged upstream of the respective fish-processing devices, wherein the longitudinal conveyors are designed to convey the fish in their head-tail orientation to the fish-processing machines, and a control device, which is designed to control the at least one feeder device , the transfer devices and the conveying speed of the transverse conveyor on the basis of at least one predefined distribution specification, characterised in that the at least one feeder device comprises at least one clocking flap element which is movable under control and configured, by means of a clocking control signal generated by the control device, to control the infeed of fish to one of the receptacles at a preselected output time. a transverse conveyor designed to convey the fish transversely to their head-tail orientation in a transverse conveying direction , wherein the transverse conveyor comprises a plurality of receptacles each designed to individually hold one of the fish , and the transverse conveyor has a controllable drive unit , at least one feeder device which is designed to supply fish to the receptacles of the transverse conveyor , a plurality of transfer devices which are designed to selectively transfer the fish from the transverse conveyor to the longitudinal conveyors arranged upstream of the respective fish-processing devices, wherein the longitudinal conveyors are designed to convey the fish in their head-tail orientation to the fish-processing machines, and a control device, which is designed to control the at least one feeder device , the transfer devices and the conveying speed of the transverse conveyor on the basis of at least one predefined distribution specification, characterised in that the at least one feeder device comprises at least one clocking flap element which is movable under control and configured, by means of a clocking control signal generated by the control device, to control the infeed of fish to one of the receptacles at a preselected output time.
A spray drying apparatus comprising a spray drying chamber ; a liquid feed atomizer ; a drying gas disperser (5, 6; 25, 26); a perforated bottom ; at least one plenum chamber below the perforated bottom ; and an outlet of said plenum chamber , wherein said plenum chamber has a perforated ceiling, which is provided by an underside of said perforated bottom , and a bottom , characterized in that at least one guide plate is provided in the at least one plenum chamber to direct gas, which is passing through the perforated bottom into the plenum chamber , towards the bottom of the plenum chamber , said guide plate having a lower edge and a longitudinal extent extending across an outlet direction towards the outlet , said guide plate through the longitudinal extent thereof extending on average down to at least half-way between the perforated ceiling and the bottom of the plenum chamber .
An apparatus for wireless communications at a user equipment, UE, comprising: a memory; and one or more processors coupled to the memory, the memory and the one or more processors configured to: transmit a scheduling request for requesting a resource allocation on which to transmit information to a base station, the scheduling request includes information associated with an artificial intelligence module of a plurality of artificial intelligence modules of the UE, wherein the information comprise one or more weights and/or parameters for encoding uplink communications of the UE by means of an encoder neural network associated with a respective set of weights and/or parameters; and receive an uplink grant for the requested resource allocation via downlink control information, DCI, wherein the requested resource allocation has a size corresponding to the set of weights and/or parameters of the encoder neural network of the artificial intelligence module indicated by the scheduling request. a memory; and one or more processors coupled to the memory, the memory and the one or more processors configured to: transmit a scheduling request for requesting a resource allocation on which to transmit information to a base station, the scheduling request includes information associated with an artificial intelligence module of a plurality of artificial intelligence modules of the UE, wherein the information comprise one or more weights and/or parameters for encoding uplink communications of the UE by means of an encoder neural network associated with a respective set of weights and/or parameters; and receive an uplink grant for the requested resource allocation via downlink control information, DCI, wherein the requested resource allocation has a size corresponding to the set of weights and/or parameters of the encoder neural network of the artificial intelligence module indicated by the scheduling request. transmit a scheduling request for requesting a resource allocation on which to transmit information to a base station, the scheduling request includes information associated with an artificial intelligence module of a plurality of artificial intelligence modules of the UE, wherein the information comprise one or more weights and/or parameters for encoding uplink communications of the UE by means of an encoder neural network associated with a respective set of weights and/or parameters; and receive an uplink grant for the requested resource allocation via downlink control information, DCI, wherein the requested resource allocation has a size corresponding to the set of weights and/or parameters of the encoder neural network of the artificial intelligence module indicated by the scheduling request.
A finger-grip device for a syringe or cartridge with a cylindrical barrel and a plunger, said device comprising: • a bottom part , and • a top part ; wherein said parts ( 9 ; 1 ) have different sizes and are mutually connected to each other to form a lodging area ( c ) between said bottom part and said top part for the placement of a flange of the cylindrical barrel of said syringe or cartridge, and wherein said top part presents means ( 4 ; 2 ) that allows anchoring of the device to the flange by a snapping and locking movement so that said device does not block or hinder the run of the plunger within the cylindrical barrel of the syringe or cartridge during injection or withdrawal operations, characterized in that : • the bottom part has an elliptical open shape and the top part has a pseudo square open shape, said both parts ( 9 ; 1 ) having a respective coaxial circular open cavity ( 10 ; 3 ); • the bottom part presents anti-slip means which is in the form of multiple high relief means, and • said device allows removal of the plunger from the syringe or cartridge even when the device is anchored on the cylindrical barrel. • a bottom part , and • a top part ; • the bottom part has an elliptical open shape and the top part has a pseudo square open shape, said both parts ( 9 ; 1 ) having a respective coaxial circular open cavity ( 10 ; 3 ); • the bottom part presents anti-slip means which is in the form of multiple high relief means, and • said device allows removal of the plunger from the syringe or cartridge even when the device is anchored on the cylindrical barrel.
A heavy vehicle comprising a frame structure comprising frame beams extending in a longitudinal direction of the vehicle, at least a first rear wheel , an independent wheel suspension for said at least first rear wheel and a load carrying structure for carrying a load applied to the vehicle, wherein the independent wheel suspension comprises a first spring or spring and damper arrangement and wheel suspension rods , characterized in that the first spring or spring and damper arrangement is connected to the load carrying structure via a chassis component ; that the chassis component comprises a body, having a main portion and an upper portion mounted on top of the main portion ( ; that the main portion is arranged to be connected to the frame structure , forming a transverse cross-member connecting the frame beams; that the upper portion is arranged to support the main portion and the frame structure connected to the main portion ; that the upper portion is configured for being connected to the load carrying structure , that the first spring or spring and damper arrangement at a first end is connected to the load carrying structure via the upper portion in a position above or beside said frame structure and which at a second end is connected to the first rear wheel ; and that the wheel suspension rods are connected to the main portion at a first end and to the first rear wheel at a second end; wherein the load (F) supported by the first rear wheel is distributed from the load carrying structure to the wheel via said first spring or spring and damper arrangement bypassing said frame structure .
Pump body of a high pressure fuel pump of a fuel injection equipment of an internal combustion engine, said pump body being provided with a bore extending along a pumping axis (Z) between a lower end opening in a lower face of the body and an upper end partially defining a compression chamber and wherein, the body has at least a first outer face and a second outer face ; the first outer face being provided with first recess extending along a first axis (A1), said first recess having a lateral face and, the bottom of the first recess being in fluid communication with said compression chamber , the second outer face being provided with a second recess extending along a second axis (A2), said second recess having a lateral face and, the bottom of the second recess being also in fluid communication with said compression chamber , a between-recesses-conduit extending between said first recess where it opens in its lateral face and said second recess where it also opens in its lateral face so that said recesses are in permanent fluid communication with one another and, an inlet channel in which, in use, a fuel at a low pressure enters the pump, said inlet channel opening in said between-recesses-conduit at a location between the first recess and the second recess wherein, the first recess and the second recess have identical cross-section and depth, an inlet valve assembly being arranged in one of the two recesses and, an outlet valve assembly being arranged in the other recess. the first outer face being provided with first recess extending along a first axis (A1), said first recess having a lateral face and, the bottom of the first recess being in fluid communication with said compression chamber , the second outer face being provided with a second recess extending along a second axis (A2), said second recess having a lateral face and, the bottom of the second recess being also in fluid communication with said compression chamber , a between-recesses-conduit extending between said first recess where it opens in its lateral face and said second recess where it also opens in its lateral face so that said recesses are in permanent fluid communication with one another and, an inlet channel in which, in use, a fuel at a low pressure enters the pump, said inlet channel opening in said between-recesses-conduit at a location between the first recess and the second recess wherein, the first recess and the second recess have identical cross-section and depth, an inlet valve assembly being arranged in one of the two recesses and, an outlet valve assembly being arranged in the other recess.
A method to check if a connector system is provided with a CPA member in closed position, the method comprises: - providing a first connector and a second connector configured to be mated with the first connector , wherein the first connector or the second connector is provided with a far-field antenna ; - providing a CPA member which includes an integrated circuit and a near-field antenna electrically connected to the integrated circuit , the CPA member being configured to have an open position and a closed position, wherein in the closed position the CPA member confirms a proper connection of the first connector and the second connector and prevents the first connector and the second connector from accidental un-mating; - mating of the first connector and the second connector ; - moving the connection position assurance member to the closed position, wherein in the closed position of the CPA member the near-field antenna is inductively coupled with the far-field antenna such that communication with the integrated circuit of the CPA member is now possible in the far field of RFID communication; - providing an RFID-tag reader wherein the RFID-tag reader is positioned to the integrated circuit at such a distance D that enables far-field RFID communication and does not permit near-field RFID communication between the RFID-tag reader and the integrated circuit ; and - checking the readability of the integrated circuit with the RFID-tag reader . - providing a first connector and a second connector configured to be mated with the first connector , wherein the first connector or the second connector is provided with a far-field antenna ; - providing a CPA member which includes an integrated circuit and a near-field antenna electrically connected to the integrated circuit , the CPA member being configured to have an open position and a closed position, wherein in the closed position the CPA member confirms a proper connection of the first connector and the second connector and prevents the first connector and the second connector from accidental un-mating; - mating of the first connector and the second connector ; - moving the connection position assurance member to the closed position, wherein in the closed position of the CPA member the near-field antenna is inductively coupled with the far-field antenna such that communication with the integrated circuit of the CPA member is now possible in the far field of RFID communication; - providing an RFID-tag reader wherein the RFID-tag reader is positioned to the integrated circuit at such a distance D that enables far-field RFID communication and does not permit near-field RFID communication between the RFID-tag reader and the integrated circuit ; and - checking the readability of the integrated circuit with the RFID-tag reader .
A sealing assembly, comprising: a first component that includes a first inner air seal and at least partially defines a first cavity ; a second component that includes a second inner air seal and at least partially defines a second cavity ; a first carrier that supports the first inner air seal ; a second carrier that supports the second inner air seal ; a first stator platform that defines the first cavity together with the first carrier ; a second stator platform that defines the second cavity together with the second carrier ; and a seal that is received within both the first cavity and the second cavity ; the seal comprising: a plug body to limit flow through an axially extending interface between the first component and a second component , the plug body to limit flow when positioned within both the cavity of the first component and the cavity of the second component , the seal further including a fin extending radially from the plug body ; characterized in that : the first component comprises a stator having a circumferential length (L), and the amount of the plug body received within the cavity of the first component is half of the circumferential length (L). a first component that includes a first inner air seal and at least partially defines a first cavity ; a second component that includes a second inner air seal and at least partially defines a second cavity ; a first carrier that supports the first inner air seal ; a second carrier that supports the second inner air seal ; a first stator platform that defines the first cavity together with the first carrier ; a second stator platform that defines the second cavity together with the second carrier ; and a seal that is received within both the first cavity and the second cavity ; the seal comprising: a plug body to limit flow through an axially extending interface between the first component and a second component , the plug body to limit flow when positioned within both the cavity of the first component and the cavity of the second component , the seal further including a fin extending radially from the plug body ; characterized in that : the first component comprises a stator having a circumferential length (L), and the amount of the plug body received within the cavity of the first component is half of the circumferential length (L).
An aircraft (100, 100', 100") comprising a wing (110, 110', 110") extending along a main axis from a root attached to a fuselage of the aircraft, to an opposite end of the root, and a propulsion assembly (1, 1', 1") for an aircraft comprising: - at least two electric motors disposed in the wing of the aircraft and each comprising a rotor having a motor shaft movable about a motor axis (X), - at least one propeller borne by a propeller shaft movable about a propeller axis (A) and mechanically coupled to the motor shaft of the at least two electric motors , the propeller axis (A) being perpendicular to the motor axis (X) of the at least two electric motors , wherein the motor shaft of each of the electric motors bears a motor bevel pinion , and the propeller shaft bears at least one propeller bevel pinion meshing with the motor bevel pinion borne by the motor shaft of each of the electric motors , and wherein the motor axis (X) of the at least two electric motors is parallel to the main axis of the wing. - at least two electric motors disposed in the wing of the aircraft and each comprising a rotor having a motor shaft movable about a motor axis (X), - at least one propeller borne by a propeller shaft movable about a propeller axis (A) and mechanically coupled to the motor shaft of the at least two electric motors , the propeller axis (A) being perpendicular to the motor axis (X) of the at least two electric motors , wherein the motor shaft of each of the electric motors bears a motor bevel pinion , and the propeller shaft bears at least one propeller bevel pinion meshing with the motor bevel pinion borne by the motor shaft of each of the electric motors , and wherein the motor axis (X) of the at least two electric motors is parallel to the main axis of the wing.