mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical connector adapted to be arranged at the end of an electrical cable (C) for complementary connection of an electro-actuator , said connector having a connector body and several electrical terminals for electrically connecting pins protruding from a connector block of said electro-actuator, the connector body defining a passage for the cable (C) and a recess for arranging the terminals and wherein, the connector further comprises two opposing resilient arms extending from a base of the connector body to define a space therebetween, and a hook adapted to mechanically engage with the connector block , wherein the space comprises the recess and a downward portion for receiving the connector block , the downward portion being wider than the recess ; and each arm defines at its end a spur oriented toward the opposite arm and having a sloped outer face configured such that the distance (H0) between the opposing outer faces is smaller than a width of the connector block , the spurs defining the hook , wherein during engagement of the connector said resilient arms deflect from a rest position and, when the connector is fully engaged said resilient arms self-return to said rest position; characterized in that the electro-actuator is arranged in a body provided with an aperture for inserting the connector body , the connector further comprising a seal member adapted to seal said aperture once the connector is fully inserted. the space comprises the recess and a downward portion for receiving the connector block , the downward portion being wider than the recess ; and each arm defines at its end a spur oriented toward the opposite arm and having a sloped outer face configured such that the distance (H0) between the opposing outer faces is smaller than a width of the connector block , the spurs defining the hook , wherein during engagement of the connector said resilient arms deflect from a rest position and, when the connector is fully engaged said resilient arms self-return to said rest position;
An information processing device comprising: a distance obtaining unit that obtains a first horizontal distance and a first vertical distance which are respectively a component in a horizontal direction and a component in a vertical direction among distances from the unmanned aerial vehicle to a surface of a particular place where elevation gradually increases or decreases along a horizontal direction; the information processing device being characterised in that it further comprises: a decision unit that decides, based on a ratio of the first horizontal distance to the first vertical distance, a movement amount by which the unmanned aerial vehicle is to be moved simultaneously in the horizontal direction and the vertical direction; and a movement control unit that moves the unmanned aerial vehicle based on the movement amount. a distance obtaining unit that obtains a first horizontal distance and a first vertical distance which are respectively a component in a horizontal direction and a component in a vertical direction among distances from the unmanned aerial vehicle to a surface of a particular place where elevation gradually increases or decreases along a horizontal direction; the information processing device being characterised in that it further comprises: a decision unit that decides, based on a ratio of the first horizontal distance to the first vertical distance, a movement amount by which the unmanned aerial vehicle is to be moved simultaneously in the horizontal direction and the vertical direction; and a movement control unit that moves the unmanned aerial vehicle based on the movement amount. a decision unit that decides, based on a ratio of the first horizontal distance to the first vertical distance, a movement amount by which the unmanned aerial vehicle is to be moved simultaneously in the horizontal direction and the vertical direction; and a movement control unit that moves the unmanned aerial vehicle based on the movement amount.
Sensor signal processing unit having the following features: - an interface for reading in a first sensor signal and a second sensor signal , wherein the first sensor signal and the second sensor signal represent an identical physical variable, and wherein the first sensor signal has a maximum for a first value of the physical variable and the second sensor signal has a maximum for a second value of the physical variable that differs from the first value; - a sensor signal conditioning unit which is designed to determine a sensor signal evaluation variable (610, α) on the basis of a first component and a second component, wherein the first component of the sensor signal evaluation variable (610, α) is formed by a signal value of the first sensor signal and the second component of the sensor signal evaluation variable (610, α) is formed by a signal value of the second sensor signal , wherein the first and second signal values were recorded at an identical time, wherein the sensor signal evaluation variable represents a sensor signal evaluation point in a sensor signal space as a tuple of at least two values which together represent a mapping point in a two-dimensional plane or a multidimensional space; and - a sensor signal evaluation unit which is designed to determine the physical variable on which the first sensor signal and the second sensor signal are based using the sensor signal evaluation variable (610, α). - an interface for reading in a first sensor signal and a second sensor signal , wherein the first sensor signal and the second sensor signal represent an identical physical variable, and wherein the first sensor signal has a maximum for a first value of the physical variable and the second sensor signal has a maximum for a second value of the physical variable that differs from the first value; - a sensor signal conditioning unit which is designed to determine a sensor signal evaluation variable (610, α) on the basis of a first component and a second component, wherein the first component of the sensor signal evaluation variable (610, α) is formed by a signal value of the first sensor signal and the second component of the sensor signal evaluation variable (610, α) is formed by a signal value of the second sensor signal , wherein the first and second signal values were recorded at an identical time, wherein the sensor signal evaluation variable represents a sensor signal evaluation point in a sensor signal space as a tuple of at least two values which together represent a mapping point in a two-dimensional plane or a multidimensional space; and - a sensor signal evaluation unit which is designed to determine the physical variable on which the first sensor signal and the second sensor signal are based using the sensor signal evaluation variable (610, α).
A method of allocating network resources to a network service in a communication network, wherein the communication network comprises network resources (71-77, 81-87) capable of providing the network service specified in a service request issued by a client , wherein the network resources are dynamically loaded on physical devices in the communication network, wherein the service request comprises a direct part and an indirect part , and wherein the indirect part comprises network resources for future use and at least one allocation condition, the method comprising: - unconditionally allocating, in response to the direct part of the service request, one or more network resources to the network service, wherein unconditionally allocated network resources are prevented from being unconditionally or conditionally allocated to another network service, and - conditionally allocating, in response to the indirect part of the service request, one or more additional network resources to the network service, wherein conditionally allocated network resources are capable of being unconditionally allocated to the network service in response to the direct part of a further service request of the client and are available for allocation to another network service depending on the at least one allocation condition. wherein the communication network comprises network resources (71-77, 81-87) capable of providing the network service specified in a service request issued by a client , wherein the network resources are dynamically loaded on physical devices in the communication network, wherein the service request comprises a direct part and an indirect part , and wherein the indirect part comprises network resources for future use and at least one allocation condition, - unconditionally allocating, in response to the direct part of the service request, one or more network resources to the network service, wherein unconditionally allocated network resources are prevented from being unconditionally or conditionally allocated to another network service, and - conditionally allocating, in response to the indirect part of the service request, one or more additional network resources to the network service, wherein conditionally allocated network resources are capable of being unconditionally allocated to the network service in response to the direct part of a further service request of the client and are available for allocation to another network service depending on the at least one allocation condition.
An aircraft propulsion system comprising: an aircraft structure ; a propulsor assembly disposed in the aircraft structure ; an inlet duct for communicating airflow to the propulsor assembly ; a first heat exchanger assembly disposed in the inlet duct and in thermal transfer communication with an inlet airflow through the inlet duct ; and a skin heat exchanger assembly disposed along and in thermal communication with a bottom facing outer surface of the aircraft structure , wherein the skin heat exchanger assembly is offset relative to the inlet duct and the first heat exchanger assembly and the skin heat exchanger assembly is in fluid communication with the first heat exchanger such that a working fluid is communicated therebetween; characterised in that the inlet duct is open through the bottom facing outer surface. an aircraft structure ; a propulsor assembly disposed in the aircraft structure ; an inlet duct for communicating airflow to the propulsor assembly ; a first heat exchanger assembly disposed in the inlet duct and in thermal transfer communication with an inlet airflow through the inlet duct ; and a skin heat exchanger assembly disposed along and in thermal communication with a bottom facing outer surface of the aircraft structure , wherein the skin heat exchanger assembly is offset relative to the inlet duct and the first heat exchanger assembly and the skin heat exchanger assembly is in fluid communication with the first heat exchanger such that a working fluid is communicated therebetween; characterised in that the inlet duct is open through the bottom facing outer surface.
Energy converter for isentropic conversion of thermal energy of a pressurized liquid working medium heated by contact with a heat source into potential energy, realizing partial flash evaporation according to a TLC2 process comprising at least the components: • A closed, thermally insulated, upward directed pipe system with an ascending pipe and a descending pipe , connected by pipe bends • A number of at least 10 pistons freely moving in the closed pipe system equipped with a seal, to form separate working areas above and below the pistons in the ascending pipe and a piston stack in the descending pipe • Insertion openings and an insertion device at the lower level of the pipe system for inserting the heated working medium into a working area (AB) between two pistons • Outlet openings in the pipe jacket at the upper level for discharging the remaining liquid and vaporized working medium from the pipe system • a separation device for separating the vaporized working medium from the cold working medium which has remained liquid. • A closed, thermally insulated, upward directed pipe system with an ascending pipe and a descending pipe , connected by pipe bends • A number of at least 10 pistons freely moving in the closed pipe system equipped with a seal, to form separate working areas above and below the pistons in the ascending pipe and a piston stack in the descending pipe • Insertion openings and an insertion device at the lower level of the pipe system for inserting the heated working medium into a working area (AB) between two pistons • Outlet openings in the pipe jacket at the upper level for discharging the remaining liquid and vaporized working medium from the pipe system • a separation device for separating the vaporized working medium from the cold working medium which has remained liquid.
An aircraft system for an aircraft , the aircraft system comprising a controller that is configured, during a take-off procedure, to: initiate automatic closing of a landing gear bay door of the aircraft from an open position towards a closed position, on the basis of a determination that a predetermined door-closing criterion has been met and a command to retract a landing gear has not been received, the landing gear being arranged to retract into a landing gear bay to be at least partially covered by the landing gear bay door when the landing gear bay door is in the closed position, characterised in that the controller is configured to initiate the automatic closing of the landing gear bay door in the event that the controller determines that the door-closing criterion is met and a one engine inoperative situation has occurred. initiate automatic closing of a landing gear bay door of the aircraft from an open position towards a closed position, on the basis of a determination that a predetermined door-closing criterion has been met and a command to retract a landing gear has not been received, the landing gear being arranged to retract into a landing gear bay to be at least partially covered by the landing gear bay door when the landing gear bay door is in the closed position, characterised in that the controller is configured to initiate the automatic closing of the landing gear bay door in the event that the controller determines that the door-closing criterion is met and a one engine inoperative situation has occurred.
A heat not burn device including a controller having a cyclic operating routine, wherein the controller is configured to, during each cycle of the cyclic operating routine, perform at least one function of the device ; and characterised in that a period of the cyclic operating routine is between 150 milliseconds and 500 milliseconds.
A nucleic acid vector encoding and expressing a meganuclease for use in a method for preventing, improving or curing a disease in the liver of a mammal, wherein the disease is caused by an infectious agent that presents a DNA intermediate, and wherein said meganuclease presents a recognition and cleavage site of 12 to 40 pb into said DNA intermediate.
A solar cell module comprising: a plurality of cell strings (ST1, ST2) including a plurality of solar cells (C1, C2, EC), each solar cell (C1, C2, EC) having a semiconductor substrate , and a first conductivity-type electrode and a second conductivity-type electrode provided on a first surface of the semiconductor substrate ; an interconnector electrically connecting a first conductivity-type electrode of a first solar cell (C1), among the plurality of solar cells (C1, C2, EC) included in the plurality of cell strings (ST1, ST2), and a second conductivity-type electrode of a second solar cell (C2) adjacent to the first solar cell in a first direction (x), to connect the first and second solar cells (C1, C2) in series; and a first shield , made of an opaque or translucent material, positioned on a front surface of the interconnector between the first and second solar cells (C1, C2), and extending in a second direction (y) crossing the first direction (x), wherein a width (Wb400a) of a first portion of the first shield positioned between chamfered areas of the semiconductor substrates of the first and second solar cells (C1, C2) is larger than a width (Wa400a) of a central portion positioned on an inner side of the first portion, characterized in that the first shield coheres to overlap a front edge area of the semiconductor substrate of the first solar cell (C1) and a front edge area of the semiconductor substrate of the second solar cell (C2). a plurality of cell strings (ST1, ST2) including a plurality of solar cells (C1, C2, EC), each solar cell (C1, C2, EC) having a semiconductor substrate , and a first conductivity-type electrode and a second conductivity-type electrode provided on a first surface of the semiconductor substrate ; an interconnector electrically connecting a first conductivity-type electrode of a first solar cell (C1), among the plurality of solar cells (C1, C2, EC) included in the plurality of cell strings (ST1, ST2), and a second conductivity-type electrode of a second solar cell (C2) adjacent to the first solar cell in a first direction (x), to connect the first and second solar cells (C1, C2) in series; and a first shield , made of an opaque or translucent material, positioned on a front surface of the interconnector between the first and second solar cells (C1, C2), and extending in a second direction (y) crossing the first direction (x), wherein a width (Wb400a) of a first portion of the first shield positioned between chamfered areas of the semiconductor substrates of the first and second solar cells (C1, C2) is larger than a width (Wa400a) of a central portion positioned on an inner side of the first portion, characterized in that the first shield coheres to overlap a front edge area of the semiconductor substrate of the first solar cell (C1) and a front edge area of the semiconductor substrate of the second solar cell (C2).
A fiber structure for a fiber-reinforced composite material , which includes a fiber structure of discontinuous fibers and matrix resin (Ma) impregnated into the fiber structure , the fiber structure comprising a section in which a width varies continuously along a central axis (L) in a plan view, the fiber structure being characterized in that in a section in which the width increases continuously along the central axis (L), discontinuous fibers are aligned radially such that discontinuous fibers near the central axis (L) extend along the central axis (L) and discontinuous fibers near sides of the fiber structure extend along the sides , respectively, and both a thickness of the fiber structure and a density of the discontinuous fibers are uniform.
A method for wireless communication, comprising: receiving control information in a first transmission time interval, TTI; receiving data in a second TTI; determining a voltage or clock speed for processing at least a portion of the data received in the second TTI based at least in part on the control information received in the first TTI, the voltage or clock speed being associated with a change in power consumption in the second TTI compared to the first TTI; and processing at least the portion of the data received in the second TTI using the determined voltage or clock speed. receiving control information in a first transmission time interval, TTI; receiving data in a second TTI; determining a voltage or clock speed for processing at least a portion of the data received in the second TTI based at least in part on the control information received in the first TTI, the voltage or clock speed being associated with a change in power consumption in the second TTI compared to the first TTI; and processing at least the portion of the data received in the second TTI using the determined voltage or clock speed.
A drug delivery device comprising - an outer body adapted to receive a cartridge with a needle , - a needle cap assembly adapted to be coupled to the outer body and to cover the needle and - a control mechanism for activating the drug delivery device , characterized in that the control mechanism comprises a control element (7.1) that is received within the outer body and axially and/or rotationally movable relative to the outer body between an initial position (P1), a first activating position (P2) and a second activating position (P3), wherein the control element (7.1) is coupled to the needle cap assembly and to the cartridge , wherein the control element (7.1) comprises one activating element (7.1.2) that is operable from an outside of the outer body due to protruding to the outside of the outer body , wherein the activating element (7.1.2) is adapted to move the control element (7.1) relative to the outer body in order to subsequently release the cap assembly from the outer body to expose the needle , wherein the needle cap assembly is retained on the outer body when the control element (7.1) is in the initial position (P1), wherein the needle cap assembly is released from the outer body and the needle is covered by the outer body due to a movement of the control element (7.1) from the initial position (P1) into the first activating position (P2), and wherein the needle is exposed due to a movement of the control element (7.1) from the first activating position (P2) in the second activating position (P3). - an outer body adapted to receive a cartridge with a needle , - a needle cap assembly adapted to be coupled to the outer body and to cover the needle and - a control mechanism for activating the drug delivery device , wherein the control element (7.1) is coupled to the needle cap assembly and to the cartridge , wherein the control element (7.1) comprises one activating element (7.1.2) that is operable from an outside of the outer body due to protruding to the outside of the outer body , wherein the activating element (7.1.2) is adapted to move the control element (7.1) relative to the outer body in order to subsequently release the cap assembly from the outer body to expose the needle , wherein the needle cap assembly is retained on the outer body when the control element (7.1) is in the initial position (P1), wherein the needle cap assembly is released from the outer body and the needle is covered by the outer body due to a movement of the control element (7.1) from the initial position (P1) into the first activating position (P2), and wherein the needle is exposed due to a movement of the control element (7.1) from the first activating position (P2) in the second activating position (P3).
A method for receiving, at a wireless device, a partial retransmission from a network node, the method comprising: receiving a control information message indicating a second transmission to be received in a Transmission Time Interval, TTI, comprising a plurality of symbols, the second transmission comprising retransmitted data in a subset of the plurality of symbols of the TTI, the retransmitted data comprising a retransmission of a portion of a first transmission; receiving the second transmission; determining , based on a mapping indicator indicating the subset of the plurality of symbols of the TTI, a location of the retransmitted data within the TTI of the second transmission, wherein the mapping indicator is comprised in the received control information message; and decoding the retransmitted data at the determined location. receiving a control information message indicating a second transmission to be received in a Transmission Time Interval, TTI, comprising a plurality of symbols, the second transmission comprising retransmitted data in a subset of the plurality of symbols of the TTI, the retransmitted data comprising a retransmission of a portion of a first transmission; receiving the second transmission; determining , based on a mapping indicator indicating the subset of the plurality of symbols of the TTI, a location of the retransmitted data within the TTI of the second transmission, wherein the mapping indicator is comprised in the received control information message; and decoding the retransmitted data at the determined location.