mhurhangee/ep-ind-claims huggingface dataset:
A power demand anticipation system for a rotorcraft comprising: an engine subsystem including an engine having a power output; one or more sensors including a cyclic control sensor, the one or more sensors operable to detect one or more flight parameters of the rotorcraft to form sensor data including a cyclic control position based on inputs at the cyclic control in multiple axes; a power demand anticipation module in data communication with the engine subsystem and the one or more sensors, the power demand anticipation module operable to anticipate a power demand of the engine using the sensor data to form a power demand anticipation signal, and one or more actuators each positionable between a plurality of actuator positions to move a portion of the rotorcraft based on the sensor data, wherein the power demand anticipation module is operable to anticipate the power demand of the engine using the actuator positions to form the power demand anticipation signal; wherein, the engine subsystem is operable to adjust the power output of the engine based on the power demand anticipation signal received from the power demand anticipation module. an engine subsystem including an engine having a power output; one or more sensors including a cyclic control sensor, the one or more sensors operable to detect one or more flight parameters of the rotorcraft to form sensor data including a cyclic control position based on inputs at the cyclic control in multiple axes; a power demand anticipation module in data communication with the engine subsystem and the one or more sensors, the power demand anticipation module operable to anticipate a power demand of the engine using the sensor data to form a power demand anticipation signal, and one or more actuators each positionable between a plurality of actuator positions to move a portion of the rotorcraft based on the sensor data, wherein the power demand anticipation module is operable to anticipate the power demand of the engine using the actuator positions to form the power demand anticipation signal; wherein, the engine subsystem is operable to adjust the power output of the engine based on the power demand anticipation signal received from the power demand anticipation module.
Soldering device for soldering flat assemblies, having a hood construction that covers a solder container and has an inlet protected against the ingress of ambient air by means of a flap (15, 15', 15", 15''', 15'''') and an outlet protected against the ingress of ambient air by means of a flap (15, 15', 15", 15''', 15''''), for flat assemblies that are to be guided through the hood construction and brought into contact with a solder rod inside the hood construction, and having a gas nozzle for introducing and distributing a shield gas into the hood construction, which gas novel comprises at least one nozzle body equipped with at least one outlet opening, characterized in that at least one flap (15, 15', 15", 15''', 15'''') is equipped with an integrated gas nozzle, wherein the nozzle body of the gas nozzle is arranged within a cavity of the flap (15, 15', 15", 15''', 15''''), and the cavity has at least one flow opening on a side surface that, in a closed state of the flap (15, 15', 15", 15''', 15''''), is oriented towards the interior of the hood construction.
A sensor for measuring a tightening force applied to a screw assembly member, comprising a ring having at least two opposite faces (23, 24) axially opposed the one to the other and a flat surface perpendicular to said two opposite faces (23, 24), the sensor comprising an electronic device including a longitudinal support web having two opposite ends (31, 32), said support web being provided on said flat surface, said electronic device comprising three circuits (41, 42, 43) mounted on said longitudinal support web for which: a first circuit is ready to generate a signal representative of a tightening force applied in a tightening direction to one of the two opposite faces (23, 24); a second circuit is ready to generate a signal representative of the distance of said applied force relatively to the center of ring in a first direction perpendicular to said tightening direction; and a third circuit is ready to generate another signal representative of the distance of said applied force relatively to the center of ring in a second direction perpendicular to said tightening direction. a first circuit is ready to generate a signal representative of a tightening force applied in a tightening direction to one of the two opposite faces (23, 24); a second circuit is ready to generate a signal representative of the distance of said applied force relatively to the center of ring in a first direction perpendicular to said tightening direction; and a third circuit is ready to generate another signal representative of the distance of said applied force relatively to the center of ring in a second direction perpendicular to said tightening direction.
A sole for an article of footwear, the sole comprising: a base portion including an upper surface; and a stud extending from the base portion and including a first end portion adjacent to the base portion, a second end portion disposed opposite the first end portion and configured to contact a ground surface, and an intermediate portion disposed between the first end portion and the second end portion, the first end portion configured to move substantially independently of the second end portion; wherein the stud includes an integral stud portion and a stud insert received within the intermediate portion, the stud insert having a greater flexibility than the integral stud portion; whereby the integral stud portion is hollowed out adjacent to the intermediate portion and the first end portion, so that the stud insert fills the hollow extending through the intermediate portion and the first end portion and is exposed on the upper surface of the base portion; characterized in that the stud is disposed at a medial side of the base portion and the stud insert is exposed on a medial side of the stud. a base portion including an upper surface; and a stud extending from the base portion and including a first end portion adjacent to the base portion, a second end portion disposed opposite the first end portion and configured to contact a ground surface, and an intermediate portion disposed between the first end portion and the second end portion, the first end portion configured to move substantially independently of the second end portion; wherein the stud includes an integral stud portion and a stud insert received within the intermediate portion, the stud insert having a greater flexibility than the integral stud portion; whereby the integral stud portion is hollowed out adjacent to the intermediate portion and the first end portion, so that the stud insert fills the hollow extending through the intermediate portion and the first end portion and is exposed on the upper surface of the base portion; characterized in that the stud is disposed at a medial side of the base portion and the stud insert is exposed on a medial side of the stud.
Effect pigment having a substrate which has a coating comprising a complex metal oxide containing copper, iron and manganese, where the complex metal oxide has a spinel structure.
Method for examining a security document, wherein the security document is an identity document, a visa, a birth certificate, a banknote, a document of value or a credit card, having the following steps: - detecting one or more pieces of first information of the security document by means of an AR system, in particular data goggles; - checking the one or more pieces of first information by comparison with a database, wherein the database is a central computer or a cloud made of a plurality of crosslinked, jointly calculating standalone computers; - storing one or more of the results of the check of the one or more pieces of first information and outputting one or more of the results of the check of the one or more pieces of first information by means of the AR system. - detecting one or more pieces of second information of the document holder, in particular a holder of the identity card, by means of the AR system, wherein, when checking the one or more pieces of first information, the one or more pieces of first information or one or more pieces of information from the database are compared to one or more of the pieces of second information; wherein, when checking the one or more pieces of first information, one or more pieces of additional information from the database is determined as at least one result of the examination; and wherein the one or more pieces of first information comprises information about the optical appearance of optically variable security features of the security document, which can be generated in an optically detectable manner by relief structures, in particular diffractive structures, zeroth order diffraction structures, blazed gratings, macrostructures, in particular lens structures or micro-prism structures, mirrored surfaces, matt structures, in particular anisotropic or isotropic matt structures or combinations of these structures. - detecting one or more pieces of first information of the security document by means of an AR system, in particular data goggles; - checking the one or more pieces of first information by comparison with a database, wherein the database is a central computer or a cloud made of a plurality of crosslinked, jointly calculating standalone computers; - storing one or more of the results of the check of the one or more pieces of first information and outputting one or more of the results of the check of the one or more pieces of first information by means of the AR system. - detecting one or more pieces of second information of the document holder, in particular a holder of the identity card, by means of the AR system, wherein, when checking the one or more pieces of first information, the one or more pieces of first information or one or more pieces of information from the database are compared to one or more of the pieces of second information;
A current measurement circuit, comprising: a first current sensor coupled to a first conductor, a second conductor, and a third conductor; a second current sensor coupled to the second conductor and the third conductor, wherein the first conductor conducts a first phase current, the second conductor conducts a second phase current, and the third conductor conducts a third phase current; and current computation circuitry coupled to the first current sensor and the second current sensor, and configured to: generate a measurement of the first phase current based an output of the first current sensor and an output of the second current sensor; generate a measurement of the second phase current based an output of the first current sensor and an output of the second current sensor; and generate a measurement of the third phase current based an output of the first current sensor and an output of the second current sensor, wherein the current computation circuitry is configured to determine the first phase current, the second phase current, and the third phase current by applying an inverse Clarke transform to the output of the first current sensor and the output of the second current sensor. a first current sensor coupled to a first conductor, a second conductor, and a third conductor; a second current sensor coupled to the second conductor and the third conductor, wherein the first conductor conducts a first phase current, the second conductor conducts a second phase current, and the third conductor conducts a third phase current; and current computation circuitry coupled to the first current sensor and the second current sensor, and configured to: generate a measurement of the first phase current based an output of the first current sensor and an output of the second current sensor; generate a measurement of the second phase current based an output of the first current sensor and an output of the second current sensor; and generate a measurement of the third phase current based an output of the first current sensor and an output of the second current sensor, wherein the current computation circuitry is configured to determine the first phase current, the second phase current, and the third phase current by applying an inverse Clarke transform to the output of the first current sensor and the output of the second current sensor. generate a measurement of the first phase current based an output of the first current sensor and an output of the second current sensor; generate a measurement of the second phase current based an output of the first current sensor and an output of the second current sensor; and generate a measurement of the third phase current based an output of the first current sensor and an output of the second current sensor, wherein the current computation circuitry is configured to determine the first phase current, the second phase current, and the third phase current by applying an inverse Clarke transform to the output of the first current sensor and the output of the second current sensor.
A packet processing method, wherein the method is applied to a Segment Routing, SR, network, and the method comprises: receiving, by an Ingress Label Switching Router, Ingress LSR, a first notification packet that is based on an Interior Gateway Protocol, IGP, and is flooded to the SR network by a first Egress Label Switching Router, Egress LSR, wherein the first notification packet is generated by the first Egress LSR, and the first notification packet comprises a first entropy label capability ELC flag; wherein the first ELC flag is used to indicate that the first Egress LSR has ELC, the Ingress LSR is an Ingress LSR of a first Multiprotocol Label Switching, MPLS, tunnel, and the first Egress LSR is an Egress LSR of the first MPLS tunnel; when the Ingress LSR learns from the first notification packet that the first Egress LSR has ELC, inserting, by the Ingress LSR, a label into a first packet that enters the first MPLS tunnel, to generate a second packet, wherein the label forms an MPLS label stack, the MPLS label stack comprises, from bottom to top, a first entropy label EL, a first Entropy Label Indicator, ELI, and a first tunnel label TL, and the first TL is a label that identifies the first MPLS tunnel, wherein the first TL uniquely identifies the first Egress LSR in the SR network; and sending the second packet to the first Egress LSR through the first MPLS tunnel. receiving, by an Ingress Label Switching Router, Ingress LSR, a first notification packet that is based on an Interior Gateway Protocol, IGP, and is flooded to the SR network by a first Egress Label Switching Router, Egress LSR, wherein the first notification packet is generated by the first Egress LSR, and the first notification packet comprises a first entropy label capability ELC flag; wherein the first ELC flag is used to indicate that the first Egress LSR has ELC, the Ingress LSR is an Ingress LSR of a first Multiprotocol Label Switching, MPLS, tunnel, and the first Egress LSR is an Egress LSR of the first MPLS tunnel; when the Ingress LSR learns from the first notification packet that the first Egress LSR has ELC, inserting, by the Ingress LSR, a label into a first packet that enters the first MPLS tunnel, to generate a second packet, wherein the label forms an MPLS label stack, the MPLS label stack comprises, from bottom to top, a first entropy label EL, a first Entropy Label Indicator, ELI, and a first tunnel label TL, and the first TL is a label that identifies the first MPLS tunnel, wherein the first TL uniquely identifies the first Egress LSR in the SR network; and sending the second packet to the first Egress LSR through the first MPLS tunnel.
Method, performed by at least one apparatus (2A, 2B, 2C, 4), the method comprising: - comparing (504, 603, 702, 706, 903) a first piece of positional information with at least a second piece of positional information, wherein the first piece of positional information is assigned to a first transport unit and wherein the second piece of positional information is assigned to a second transport unit, and - if as a result of the comparison a similarity between the first and the second piece of positional information is determined (505, 604, 703, 707, 904), automatically associating the first transport unit with the second transport unit (506, 507, 905) wherein a first data record is assigned to the first transport unit and a second data record is assigned to the second transport unit, wherein each of the data records comprises at least a piece of positional information of the assigned transport unit, and wherein the associating of the first transport unit with the second transport unit at least comprises the at least partial linking of the first data record with the second data record, characterized in that the at least partial linking of the first data record and the second data record comprises: - linking the first data record by a reference to the second data record or to a piece of positional information contained therein, or - at least partially combining the data records into a new data record. - comparing (504, 603, 702, 706, 903) a first piece of positional information with at least a second piece of positional information, wherein the first piece of positional information is assigned to a first transport unit and wherein the second piece of positional information is assigned to a second transport unit, and - if as a result of the comparison a similarity between the first and the second piece of positional information is determined (505, 604, 703, 707, 904), automatically associating the first transport unit with the second transport unit (506, 507, 905) wherein a first data record is assigned to the first transport unit and a second data record is assigned to the second transport unit, wherein each of the data records comprises at least a piece of positional information of the assigned transport unit, and wherein the associating of the first transport unit with the second transport unit at least comprises the at least partial linking of the first data record with the second data record, - linking the first data record by a reference to the second data record or to a piece of positional information contained therein, or - at least partially combining the data records into a new data record.
A terminal device that is configured to perform first communication with Evolved Universal Terrestrial Radio Access Network, second communication with a second terminal device directly, and belonging to a terminal device group, the terminal device comprising: a reception unit configured to and/or programmed to receive a second radio network temporary identifier, RNTI, using a higher layer signal in the first communication, the second RNTI common to the terminal device group, and receive first downlink control information, DCI, on a physical downlink control channel, PDCCH, from a base station apparatus in the first communication, the first DCI including an uplink grant for the first communication, and the first DCI attached with a first cyclic redundancy parity check, CRC, bit scrambled with a first RNTI; and a transmission unit configured to and/or programmed to perform transmission processing in the second communication; the reception unit is configured to receive second DCI on the PDCCH, a second CRC bit scrambled with the second RNTI is attached to the second DCI, and the second DCI includes resource allocation for the second communication and information to instruct to be a transmission terminal or a reception terminal in the terminal device group, the resource allocation indicating a bitmap, the bitmap, each bit of the bitmap corresponding to one subframe, indicating a periodicity and an offset for a number of a subframe reserved for the second communication, the subframe being a portion of an uplink subframe and an uplink pilot time slot for the first communication, and a payload size of the first DCI being the same as a second payload size of the second DCI. a reception unit configured to and/or programmed to receive a second radio network temporary identifier, RNTI, using a higher layer signal in the first communication, the second RNTI common to the terminal device group, and receive first downlink control information, DCI, on a physical downlink control channel, PDCCH, from a base station apparatus in the first communication, the first DCI including an uplink grant for the first communication, and the first DCI attached with a first cyclic redundancy parity check, CRC, bit scrambled with a first RNTI; and a transmission unit configured to and/or programmed to perform transmission processing in the second communication; the reception unit is configured to receive second DCI on the PDCCH, a second CRC bit scrambled with the second RNTI is attached to the second DCI, and the second DCI includes resource allocation for the second communication and information to instruct to be a transmission terminal or a reception terminal in the terminal device group, the resource allocation indicating a bitmap, the bitmap, each bit of the bitmap corresponding to one subframe, indicating a periodicity and an offset for a number of a subframe reserved for the second communication, the subframe being a portion of an uplink subframe and an uplink pilot time slot for the first communication, and a payload size of the first DCI being the same as a second payload size of the second DCI.
An improved atomizing electronic cigarette, comprising a power supply unit, a sensor, an atomizing core component and a liquid storage component, further comprising a housing containing the above components, an air facilitation inlet being arranged on the housing, one end of the housing being provided with an air suction port (a), wherein the atomizing core component comprises an electric heater, the electric heater atomizes liquid from the liquid storage component, characterised in that the liquid storage component internally has a channel through which the atomized gas flows, and the air facilitation inlet, the sensor and the air suction port (a) form an air circulation path.
An implant configured to be positioned within an aneurysm, comprising: a flattened, two-layer ribbon-shaped strand formed of a tubular mesh, the mesh being expandable and having a collapsed, elongated configuration and a deployed configuration, wherein, when the mesh is in the elongated configuration, the mesh is compressed and configured to be contained in a delivery device, and when the mesh is in the deployed configuration, the mesh has first and second wider portions (1320,1330) separated by a constricted portion. a flattened, two-layer ribbon-shaped strand formed of a tubular mesh, the mesh being expandable and having a collapsed, elongated configuration and a deployed configuration, wherein, when the mesh is in the elongated configuration, the mesh is compressed and configured to be contained in a delivery device, and when the mesh is in the deployed configuration, the mesh has first and second wider portions (1320,1330) separated by a constricted portion.