mhurhangee/ep-ind-claims huggingface dataset:
An aircraft defining a longitudinal direction and comprising: a fuselage extending between a forward end and an aft end along the longitudinal direction of the aircraft; and an aft engine mounted to the aft end of the fuselage and defining a centerline, the aft engine further comprising a nacelle extending around the fuselage at the aft end of the fuselage, characterized in that: the nacelle comprising a forward transition duct at a forward end of the nacelle, the forward transition duct defining a centerline, the centerline of the forward transition duct angled downward relative to the centerline of the aft engine; wherein the nacelle defines an inlet having a top half positioned above the centerline of the aft engine and a bottom half positioned below the centerline of the aft engine, wherein the top half of the inlet defines a top half inlet area, wherein the bottom half of the inlet defines a bottom half inlet area, and wherein the bottom half inlet area is greater than the top half inlet area. a fuselage extending between a forward end and an aft end along the longitudinal direction of the aircraft; and an aft engine mounted to the aft end of the fuselage and defining a centerline, the aft engine further comprising a nacelle extending around the fuselage at the aft end of the fuselage, the nacelle comprising a forward transition duct at a forward end of the nacelle, the forward transition duct defining a centerline, the centerline of the forward transition duct angled downward relative to the centerline of the aft engine; wherein the nacelle defines an inlet having a top half positioned above the centerline of the aft engine and a bottom half positioned below the centerline of the aft engine, wherein the top half of the inlet defines a top half inlet area, wherein the bottom half of the inlet defines a bottom half inlet area, and wherein the bottom half inlet area is greater than the top half inlet area.
A method of controlling a fuel cell system (10, 11) with a gas supplying device (2, 3) configured to supply fuel gas and oxidant gas to a fuel cell that is a solid oxide fuel cell and a combustor configured to heat the fuel gas to be supplied to the fuel cell by burning the fuel gas discharged from an anode of the fuel cell, comprising: a power generating operation step of performing a power generating operation for causing the fuel cell to generate power by controlling the fuel gas and the oxidant gas to be supplied to the fuel cell on the basis of a load required of the fuel cell, and being characterized by further comprising: an autonomous operation step (S920-S923, S930-S933) of performing an autonomous operation of the fuel cell when the load drops to or below a predetermined value, wherein: power supply from the fuel cell system (10, 11) to the load is stopped and the fuel gas is passed to the anode of the fuel cell in the autonomous operation, and in the autonomous operation step, the supply of the oxidant gas to the fuel cell is stopped when power supply from the fuel cell system (10, 11) to the load is stopped. a power generating operation step of performing a power generating operation for causing the fuel cell to generate power by controlling the fuel gas and the oxidant gas to be supplied to the fuel cell on the basis of a load required of the fuel cell, and being characterized by further comprising: an autonomous operation step (S920-S923, S930-S933) of performing an autonomous operation of the fuel cell when the load drops to or below a predetermined value, wherein: power supply from the fuel cell system (10, 11) to the load is stopped and the fuel gas is passed to the anode of the fuel cell in the autonomous operation, and in the autonomous operation step, the supply of the oxidant gas to the fuel cell is stopped when power supply from the fuel cell system (10, 11) to the load is stopped. power supply from the fuel cell system (10, 11) to the load is stopped and the fuel gas is passed to the anode of the fuel cell in the autonomous operation, and in the autonomous operation step, the supply of the oxidant gas to the fuel cell is stopped when power supply from the fuel cell system (10, 11) to the load is stopped.
A method for reducing the concentration of nitrogen oxides in waste gases released during the production of organic amino compounds, comprising: reacting an organic compound with NO x and/or nitric acid to form an organic nitro compound wherein an NO x -containing waste gas stream is formed and the organic nitro compound is converted to the organic amino compound by means of a hydrogen-containing reaction gas, the reaction of the organic nitro compound with the hydrogen-containing reduction gas taking place with the formation of a hydrogen-containing waste gas stream, combining the NO x -containing waste gas stream with the hydrogen-containing waste gas stream, and optionally an externally supplied hydrogen stream, and reacting the NO x -containing waste gas stream with the hydrogen-containing waste gas stream, and any externally supplied hydrogen stream, at a temperature of 1000 to 1700°C for the at least partial reduction of the NO x concentration. reacting an organic compound with NO x and/or nitric acid to form an organic nitro compound wherein an NO x -containing waste gas stream is formed and the organic nitro compound is converted to the organic amino compound by means of a hydrogen-containing reaction gas, the reaction of the organic nitro compound with the hydrogen-containing reduction gas taking place with the formation of a hydrogen-containing waste gas stream, combining the NO x -containing waste gas stream with the hydrogen-containing waste gas stream, and optionally an externally supplied hydrogen stream, and reacting the NO x -containing waste gas stream with the hydrogen-containing waste gas stream, and any externally supplied hydrogen stream, at a temperature of 1000 to 1700°C for the at least partial reduction of the NO x concentration.
A window member for a curved display device, comprising: a transparent window body including a flat portion A and a curved portion B, wherein the flat portion has a substantially uniform thickness and the curved portion is thicker than the flat portion; wherein a first radius of curvature of an inner surface of the curved portion is different from a second radius of curvature of an outer surface of the curved portion. a transparent window body including a flat portion A and a curved portion B, wherein the flat portion has a substantially uniform thickness and the curved portion is thicker than the flat portion; wherein a first radius of curvature of an inner surface of the curved portion is different from a second radius of curvature of an outer surface of the curved portion.
A power transmission system that transmits electric energy to a secondary resonator having a secondary resonator coil through an electromagnetic field of a predetermined frequency generated from a primary resonator having a primary resonator coil and that reduces noise using two noise cancellation resonators with one of the predetermined frequency and its higher harmonic component set as a noise reduction target frequency, the system characterized by comprising, as the two noise cancellation resonators: a first noise cancellation resonator that includes a first noise cancellation resonator coil and has a resonance frequency higher than the noise reduction target frequency by a first shift frequency determined according to a coupling degree between the primary resonator coil and the first noise cancellation resonator coil; and a second noise cancellation resonator that includes a second noise cancellation resonator coil and has a resonance frequency lower than the noise reduction target frequency by a second shift frequency determined according to a coupling degree between the primary resonator coil and the second noise cancellation resonator coil. a first noise cancellation resonator that includes a first noise cancellation resonator coil and has a resonance frequency higher than the noise reduction target frequency by a first shift frequency determined according to a coupling degree between the primary resonator coil and the first noise cancellation resonator coil; and a second noise cancellation resonator that includes a second noise cancellation resonator coil and has a resonance frequency lower than the noise reduction target frequency by a second shift frequency determined according to a coupling degree between the primary resonator coil and the second noise cancellation resonator coil.
Agricultural machine including a central frame and two work devices, the central frame being designed to be connected to a tractor so as to be towed by the latter, and being provided with wheels in contact with the ground, each work device being connected to the said central frame by a first articulation and being able to be moved between a transport position in which each work device extends in a plane substantially parallel to the direction of advance, and a work position in which each work device extends in a plane substantially perpendicular to the direction of advance, characterized in that the said central frame is composed of a front part, a rear part which carries the said wheels and an articulation device, that the said articulation device comprises at least one connecting-rod (15, 16, 26) articulated to the said front part and to the said rear part, that the said articulation device can pivot by means of a displacement device, in a plane which is substantially vertical and substantially parallel to the direction of advance with respect to the said front part and with respect to the said rear part, that each work device is connected directly to the said articulation device by the said first articulation, that the axis of the said first articulation extends in a plane which is substantially vertical and substantially parallel to the direction of advance, that in the said plane and in the said transport position, the axis of the said first articulation presents an inclination towards the ground following a direction opposite to the direction of advance, and that in the said transport position, each work device is folded towards the rear about the said first articulation.
Journal cross of a universal joint with four journals projecting from a base, at least one temperature sensor, which is fastened to the journal cross and has several sensor elements detecting temperature, each assigned to a journal of the journal cross, and a logic, which is mounted on the journal cross, coupled data-wise with the sensor elements and for processing the signals of the temperature sensor characterized in that the sensor elements are assigned to each of the journals and arranged in a lubricant channel that is recessed in the journal cross and that the sensor elements are connected data-wise via data lines to the logic, which are guided through the material forming the base in a sealed manner from the lubricant channel to the outside of the journal cross.
A method for identifying a pseudo base station, comprising: receiving, by a terminal device, a third measurement configuration sent by a network device, and reporting cell identification information of a first cell and/or a HASH value of system broadcast information of the first cell to the network device based on the third measurement configuration; wherein the cell identification information and/or the HASH value of the system broadcast information are/is used for the network device to determine whether the first cell is a pseudo base station cell; wherein the method is characterized in that the third measurement configuration further comprises a first bitmap, wherein the first bitmap comprises a plurality of bits, different bits of the plurality of bits correspond to different pieces of system broadcast information, and values of the bits are used for indicating whether to report HASH values of pieces of system broadcast information corresponding to the bits. receiving, by a terminal device, a third measurement configuration sent by a network device, and reporting cell identification information of a first cell and/or a HASH value of system broadcast information of the first cell to the network device based on the third measurement configuration; wherein the cell identification information and/or the HASH value of the system broadcast information are/is used for the network device to determine whether the first cell is a pseudo base station cell; wherein the method is characterized in that the third measurement configuration further comprises a first bitmap, wherein the first bitmap comprises a plurality of bits, different bits of the plurality of bits correspond to different pieces of system broadcast information, and values of the bits are used for indicating whether to report HASH values of pieces of system broadcast information corresponding to the bits.
Method for assigning the inductance or admittance to the rotor position of a synchronous machine, comprising a stator and a rotor with or without permanent magnets, the synchronous machine being driven by means of clocked terminal voltages and the inductance or admittance being calculated from these and the measured current response, the course of the inductance or admittance over the rotor rotation under the boundary condition of an unchanged, at least two-dimensional current vector in stator coordinates as key information for position assignment, characterized in that the isotropic component of the admittance ( Y Σ) or inductance is used for position estimation exclusively at a current magnitude greater than a threshold value, and at a current magnitude smaller than the threshold value, the isotropic component of the admittance ( Y Σ) or inductance is used to correct a variable that contains the value of the isotropic component ( Y Σ) that applies to the zero current.
A wall-flow filter having first channels and second channels, wherein the first channels comprise a NOx absorber catalyst comprising a catalytic oxidation component and the second channels comprise a catalyst for selective catalytic reduction of nitrogen oxides (NOx) with nitrogenous reductant, wherein the wall-flow filter comprises a length extending from a first end to a second end, wherein the NAC is located in a first zone of substantially uniform length from 30-70% of the wall-flow filter length with an upstream zone end defined by the first end of the wall-flow filter and characterized in that the first channels of the wall-flow filter comprise a SCR catalyst disposed downstream of the NAC.
An engine bleed system for a gas turbine engine of an aircraft, the engine bleed system comprising: a plurality of engine bleed taps (68, 70, 72A, 72B; 152A-152D) comprising a mid-compressor bleed tap (68; 152B) configured to be located axially between two of a plurality of variable vane assemblies of a compressor section of the gas turbine engine, at least one low stage bleed tap (70; 152A) configured to be located axially upstream from the mid-compressor bleed tap, and at least one high stage bleed tap (72A, 72B; 152C, 152D) configured to be located axially downstream from the mid-compressor bleed tap; a mid-compressor bleed flow path configured to extend between the mid-compressor bleed tap and an aircraft use, the mid-compressor bleed flow path including an external manifold (154; 354; 554; 654) in pneumatic communication with the mid-compressor bleed tap and configured to be located outside of a casing of the gas turbine engine, wherein the external manifold is configured to encase an unison ring and vane arm assembly of at least one of the variable vane assemblies proximate to the mid-compressor bleed tap, and wherein the external manifold is configured such that an actuator of the at least one encased variable vane assembly is outside of the external manifold; and a valve system operable to select one of the engine bleed taps as a bleed air source for the aircraft use. a plurality of engine bleed taps (68, 70, 72A, 72B; 152A-152D) comprising a mid-compressor bleed tap (68; 152B) configured to be located axially between two of a plurality of variable vane assemblies of a compressor section of the gas turbine engine, at least one low stage bleed tap (70; 152A) configured to be located axially upstream from the mid-compressor bleed tap, and at least one high stage bleed tap (72A, 72B; 152C, 152D) configured to be located axially downstream from the mid-compressor bleed tap; a mid-compressor bleed flow path configured to extend between the mid-compressor bleed tap and an aircraft use, the mid-compressor bleed flow path including an external manifold (154; 354; 554; 654) in pneumatic communication with the mid-compressor bleed tap and configured to be located outside of a casing of the gas turbine engine, wherein the external manifold is configured to encase an unison ring and vane arm assembly of at least one of the variable vane assemblies proximate to the mid-compressor bleed tap, and wherein the external manifold is configured such that an actuator of the at least one encased variable vane assembly is outside of the external manifold; and a valve system operable to select one of the engine bleed taps as a bleed air source for the aircraft use.
A near-eye display device, comprising: a first optical cavity, comprising, in sequential order: a first prism, a first reflective polarizing film prism, a phase delay film, a wedge-shaped lens, and a second prism; a second optical cavity, comprising a plurality of array lenses arranged in sequence; and a first reflector, being disposed in correspondence with one end of the plurality of array lenses and the first reflective polarizing film prism; wherein the first optical cavity, the second optical cavity and the first reflector are configured to enable an image source to: be reflected into the first optical cavity through the first prism, pass through the first reflective polarizing film prism, the phase delay film and the wedge-shaped lens in sequential order, then pass through the wedge-shaped lens and the phase delay film after being reflected by the second prism, be reflected into the plurality of array lenses through the first reflective polarizing film prism, enter the first reflector through one end of the plurality of array lenses, be reflected back to the plurality of array lenses through the first reflector, and be reflected into an human eye through the plurality of array lenses. a first optical cavity, comprising, in sequential order: a first prism, a first reflective polarizing film prism, a phase delay film, a wedge-shaped lens, and a second prism; a second optical cavity, comprising a plurality of array lenses arranged in sequence; and a first reflector, being disposed in correspondence with one end of the plurality of array lenses and the first reflective polarizing film prism;
An autonomic network management system, comprising: an active measurement agent configured to measure and analyze a state of a network according to an active measurement method; a passive measurement agent configured to measure and analyze the network state according to a passive measurement method; an autonomous management controller configured to receive measurement results and analysis results of the network state from the active measurement agent and the passive measurement agent and determine the network state; and a transmission path controller configured to receive a transmission path message from the autonomous management controller and adjust a transmission path according to the transmission path message, wherein the autonomous management controller determines whether a current state of the network is normal on the basis of information collected by the active measurement agent and the passive measurement agent, and sends the transmission path message to the packet transmission path controller; wherein the packet transmission path controller transmits a data packet and a management packet through different transmission paths respectively according to the transmission path message to prevent congestion of the network; wherein the different transmission paths are different links physically separate from each other between respective switches of the network; and wherein the transmission path message includes information of flow information modification. an active measurement agent configured to measure and analyze a state of a network according to an active measurement method; a passive measurement agent configured to measure and analyze the network state according to a passive measurement method; an autonomous management controller configured to receive measurement results and analysis results of the network state from the active measurement agent and the passive measurement agent and determine the network state; and a transmission path controller configured to receive a transmission path message from the autonomous management controller and adjust a transmission path according to the transmission path message, wherein the autonomous management controller determines whether a current state of the network is normal on the basis of information collected by the active measurement agent and the passive measurement agent, and sends the transmission path message to the packet transmission path controller; wherein the packet transmission path controller transmits a data packet and a management packet through different transmission paths respectively according to the transmission path message to prevent congestion of the network; wherein the different transmission paths are different links physically separate from each other between respective switches of the network; and wherein the transmission path message includes information of flow information modification.
A method for transmitting data on uplink within a mobile communication system comprising a network entity and a mobile terminal, the method comprising the following steps performed by the mobile terminal: receiving (603, 703), from said network entity, a resource allocation message granting uplink resources for transmitting data, said resource allocation message comprising an indication of a scheduled transport format, transmitting (606, 705), in response to the resource allocation message, said data to said network entity using said scheduled transport format as a transmission transport format, characterized in that the step of transmitting is carried out without transmitting to said network entity control information indicative of said transmission transport format; and the step of transmitting includes transmitting said data on uplink using the scheduled transport format with a transmission power adapted to less than a required transmission power according to the transport format, if the required transmission power according to the scheduled transport format exceeds the maximum power the mobile terminal can transmit with. receiving (603, 703), from said network entity, a resource allocation message granting uplink resources for transmitting data, said resource allocation message comprising an indication of a scheduled transport format, transmitting (606, 705), in response to the resource allocation message, said data to said network entity using said scheduled transport format as a transmission transport format, characterized in that the step of transmitting is carried out without transmitting to said network entity control information indicative of said transmission transport format; and the step of transmitting includes transmitting said data on uplink using the scheduled transport format with a transmission power adapted to less than a required transmission power according to the transport format, if the required transmission power according to the scheduled transport format exceeds the maximum power the mobile terminal can transmit with.