mhurhangee/ep-ind-claims huggingface dataset:
A rotary wing aircraft, comprising: an airframe; a rotor system disposed at the airframe and rotatable about a rotor axis; an engine operably connected to the rotor system to drive rotation of the rotor system; and an exhaust system, comprising a diffuser disposed at the airframe and operably connected to the engine to direct an engine exhaust flow rearwardly to a diffuser exit; characterized in that the exhaust system further comprises: a chimney extending from a chimney entrance in a diffuser wall to direct an engine exhaust flow to a chimney exit; and a door movably disposed in the diffuser between a first position, in which the door prevents the engine exhaust flow from reaching the diffuser exit and instead directs the engine exhaust flow through the chimney and out of the chimney exit, and a second position, in which the door blocks the chimney entrance, thus directing the engine exhaust flow down a length of the diffuser and through the diffuser exit. an airframe; a rotor system disposed at the airframe and rotatable about a rotor axis; an engine operably connected to the rotor system to drive rotation of the rotor system; and an exhaust system, comprising a diffuser disposed at the airframe and operably connected to the engine to direct an engine exhaust flow rearwardly to a diffuser exit; characterized in that the exhaust system further comprises: a chimney extending from a chimney entrance in a diffuser wall to direct an engine exhaust flow to a chimney exit; and a door movably disposed in the diffuser between a first position, in which the door prevents the engine exhaust flow from reaching the diffuser exit and instead directs the engine exhaust flow through the chimney and out of the chimney exit, and a second position, in which the door blocks the chimney entrance, thus directing the engine exhaust flow down a length of the diffuser and through the diffuser exit. a chimney extending from a chimney entrance in a diffuser wall to direct an engine exhaust flow to a chimney exit; and a door movably disposed in the diffuser between a first position, in which the door prevents the engine exhaust flow from reaching the diffuser exit and instead directs the engine exhaust flow through the chimney and out of the chimney exit, and a second position, in which the door blocks the chimney entrance, thus directing the engine exhaust flow down a length of the diffuser and through the diffuser exit.
An aromatic hydrocarbon formaldehyde resin, being obtained by reacting an aromatic hydrocarbon compound represented by the following formula with formaldehyde in the presence of an acidic catalyst: wherein R represents an organic group having 1 to 10 carbon atoms; I represents an integer of 0 to 2, and m and n represent integers satisfying 1 ≤ m + n ≤ 10, m ≥ 0 and n > 1, wherein the aromatic hydrocarbon formaldehyde resin comprises no diarylmethane.
A wire harness assembling method for assembling a wire harness comprising: a step (a) of attaching an interference suppressing member (10, 10A) to at least a part of an elongated reinforcement, the reinforcement being arranged on a back side of an instrument panel of a vehicle and extending in a width direction of the vehicle; and a step (b) of arranging a wire harness so that the wire harness faces the reinforcement with the interference suppressing member interposed between the wire harness and the reinforcement, the step (b) being performed after the step (a), wherein the interference suppressing member is made of a sheet-shaped member (14, 14A) that is made of a resin and whose width is larger than a width of the reinforcement, the method further comprises a step (c) of bending at least a part of the sheet-shaped member to form that part of the interference suppressing member that covers a periphery of the reinforcement when the interference suppressing member is attached to the reinforcement, and the interference suppressing member covers one side of the wire harness. a step (a) of attaching an interference suppressing member (10, 10A) to at least a part of an elongated reinforcement, the reinforcement being arranged on a back side of an instrument panel of a vehicle and extending in a width direction of the vehicle; and a step (b) of arranging a wire harness so that the wire harness faces the reinforcement with the interference suppressing member interposed between the wire harness and the reinforcement, the step (b) being performed after the step (a), wherein the interference suppressing member is made of a sheet-shaped member (14, 14A) that is made of a resin and whose width is larger than a width of the reinforcement, the method further comprises a step (c) of bending at least a part of the sheet-shaped member to form that part of the interference suppressing member that covers a periphery of the reinforcement when the interference suppressing member is attached to the reinforcement, and the interference suppressing member covers one side of the wire harness.
Illumination device comprising an optoelectronic component having a housing body and at least one semiconductor chip provided for generating radiation, and a separate optical element, which is intended for fixing at the optoelectronic component, said optical element having an optical axis, wherein the optical element having a radiation exit surface, characterized in that - the radiation exit surface having a concavely curved partial region and a convexly curved partial region, which at least partly surrounds the concavely curved partial region at a distance from the optical axis, the optical axis running through the concavely curved partial region, - the optical element comprises at least one fixing element and the fixing element is provided for fixing the optical element to the optoelectronic component, - the optical element comprises at least one guide element arranged closer to an edge defining the optical element on the part of the fixing element compared to the fixing element, - the guide element is disposed outside the housing body and extends in a vertical direction along a side surface of the housing body. - the radiation exit surface having a concavely curved partial region and a convexly curved partial region, which at least partly surrounds the concavely curved partial region at a distance from the optical axis, the optical axis running through the concavely curved partial region, - the optical element comprises at least one fixing element and the fixing element is provided for fixing the optical element to the optoelectronic component, - the optical element comprises at least one guide element arranged closer to an edge defining the optical element on the part of the fixing element compared to the fixing element, - the guide element is disposed outside the housing body and extends in a vertical direction along a side surface of the housing body.
A method of wireless communication by an access point, comprising: receiving power control parameters from a station, wherein the power control parameters comprise at least one of a dynamic power range of the station, an absolute transmit power accuracy of the station, a relative transmit power accuracy of the station, a transmit power step size of the station, a maximum transmit power associated with one or more modulation and coding schemes, MCSs, a minimum transmit power associated with the one or more MCSs, a maximum transmit power associated with one or more resource unit, RU, sizes, or a minimum transmit power associated with one or more RU sizes; determining a target receiver power level for uplink transmissions received at the access point; determining uplink power control information based on the determined target receiver power level for uplink multi-user multiple-input-multiple-output, UL MU-MIMO, transmission or uplink orthogonal frequency-division multiple access, UL OFDMA, transmission, wherein the uplink power control information is determined based on the received power control parameters; and transmitting a frame that includes the determined uplink power control information and a downlink transmit power used for transmitting the frame to a station scheduled by the access point for uplink transmission. receiving power control parameters from a station, wherein the power control parameters comprise at least one of a dynamic power range of the station, an absolute transmit power accuracy of the station, a relative transmit power accuracy of the station, a transmit power step size of the station, a maximum transmit power associated with one or more modulation and coding schemes, MCSs, a minimum transmit power associated with the one or more MCSs, a maximum transmit power associated with one or more resource unit, RU, sizes, or a minimum transmit power associated with one or more RU sizes; determining a target receiver power level for uplink transmissions received at the access point; determining uplink power control information based on the determined target receiver power level for uplink multi-user multiple-input-multiple-output, UL MU-MIMO, transmission or uplink orthogonal frequency-division multiple access, UL OFDMA, transmission, wherein the uplink power control information is determined based on the received power control parameters; and transmitting a frame that includes the determined uplink power control information and a downlink transmit power used for transmitting the frame to a station scheduled by the access point for uplink transmission.
A method, comprising: receiving from a mobile station a request message, said request message comprising a request for a plurality of quality of service attributes and a request identifier generated by said mobile station for identifying said request from at least two requests from said mobile station, where each request is uniquely identified by a different request identifier; processing the requested plurality of quality of service attributes; extracting from said plurality of quality of service attributes at least one attribute related to radio access; generating a plurality of bearer service parameters; requesting a radio access network to establish a bearer based on said plurality of bearer service parameters; providing said request identifier to the radio access network; receiving a setup message comprising a service reference identifier; correlating said request identifier with said service reference identifier; and sending a confirmation message to said mobile station, said confirmation message comprising said service reference identifier and said request identifier. receiving from a mobile station a request message, said request message comprising a request for a plurality of quality of service attributes and a request identifier generated by said mobile station for identifying said request from at least two requests from said mobile station, where each request is uniquely identified by a different request identifier; processing the requested plurality of quality of service attributes; extracting from said plurality of quality of service attributes at least one attribute related to radio access; generating a plurality of bearer service parameters; requesting a radio access network to establish a bearer based on said plurality of bearer service parameters; providing said request identifier to the radio access network; receiving a setup message comprising a service reference identifier; correlating said request identifier with said service reference identifier; and sending a confirmation message to said mobile station, said confirmation message comprising said service reference identifier and said request identifier.
Two-phase system comprising a. at least one solvatochromic dye, b. water, c. at least one fragrance d. and optionally at least one solvent, characterized in that the two-phase system consists of liquid phases layered one on top of the other. a. at least one solvatochromic dye, b. water, c. at least one fragrance d. and optionally at least one solvent,
A method of operating an agricultural baler, the method comprises the steps of: measuring at least one physical input parameter associated with a compression profile of crop material in a bale chamber of the baler; analyzing the compression profile of the crop material, dependent upon the measured at least one physical input parameter; and adjusting at least one physical output parameter of the baler which affects the compression profile of the crop material in the bale chamber, characterized in that the step of analyzing the compression profile includes: performing a compression analysis of the crop material within the bale chamber wherein the compression analysis utilizes the mathematical expression: σ x = K 0 b c e b c ρ ρ 0 − 1 − 1 where: σ x = uniaxial stress; K 0 = crop parameter identifying material behavior; b c = crop parameter identifying material behavior; ρ 0 = initial density; and ρ = resulting density; and performing a relaxation analysis of the crop material within the bale chamber wherein the relaxation analysis utilizes the mathematical expression: F 0 t F 0 − F t = k 1 + k 2 t where: F 0 is the force at the beginning of the relaxation; t is time; and k 1 and k 2 are empirical parameters. measuring at least one physical input parameter associated with a compression profile of crop material in a bale chamber of the baler; analyzing the compression profile of the crop material, dependent upon the measured at least one physical input parameter; and adjusting at least one physical output parameter of the baler which affects the compression profile of the crop material in the bale chamber, performing a compression analysis of the crop material within the bale chamber wherein the compression analysis utilizes the mathematical expression: σ x = K 0 b c e b c ρ ρ 0 − 1 − 1 where: σ x = uniaxial stress; K 0 = crop parameter identifying material behavior; b c = crop parameter identifying material behavior; ρ 0 = initial density; and ρ = resulting density; and σ x = uniaxial stress; K 0 = crop parameter identifying material behavior; b c = crop parameter identifying material behavior; ρ 0 = initial density; and ρ = resulting density; and performing a relaxation analysis of the crop material within the bale chamber wherein the relaxation analysis utilizes the mathematical expression: F 0 t F 0 − F t = k 1 + k 2 t F 0 is the force at the beginning of the relaxation; t is time; and k 1 and k 2 are empirical parameters.
A welding-type system comprising: an input circuit disposed to receive input power and to provide intermediate power; a power circuit, having a power control input and at least one switch responsive to the control input, and wherein the power circuit is disposed to receive intermediate power and provide welding type output power; and characterized by a controller, having a set point input and a control output, wherein the control output is connected to the power control input, and wherein the controller includes a pwm module responsive to the set point input and providing the control output, wherein the pwm module includes a short duty cycle linearizing module adapted to change the slope of a charging ramp when a command signal (Vcom) is less than an active threshold (Vcmd_tmin), wherein the slope is changed by reducing a charging current after the ramp exceeds the active threshold (Vcmd_tmin). an input circuit disposed to receive input power and to provide intermediate power; a power circuit, having a power control input and at least one switch responsive to the control input, and wherein the power circuit is disposed to receive intermediate power and provide welding type output power; and characterized by a controller, having a set point input and a control output, wherein the control output is connected to the power control input, and wherein the controller includes a pwm module responsive to the set point input and providing the control output, wherein the pwm module includes a short duty cycle linearizing module adapted to change the slope of a charging ramp when a command signal (Vcom) is less than an active threshold (Vcmd_tmin), wherein the slope is changed by reducing a charging current after the ramp exceeds the active threshold (Vcmd_tmin).
An electric synchronous generator of a wind power installation comprising a generator stator having windings which are disposed in grooves formed by sheets, wherein the stator is of a predetermined diameter and a predetermined depth, wherein the sheets form a laminated sheet assembly (4, 9, 10) through which screw bolts pass and wherein at its front and rear ends the laminated sheet assembly (4, 9, 10) is fixed to a stator ring of the stator, characterised in that a further fixing point of the laminated sheet assembly is provided on the stator ring, wherein said fixing point is approximately in the centre of the stator ring and a support ring is welded to the fixing point and in that the laminated sheet assembly is divided into two parts (4, 9) and the two parts are separated by the support ring and in that the generator is of a depth of more than 1000 mm, for example 1200 mm, and is of a diameter of more than 2 m, for example 5 m, and has a nominal power output of more than 1 MW, for example 3 MW.
Use of: (i) at least one CD40 agonist, wherein the CD40 agonist is a soluble human CD40L polypeptide or an agonistic anti-human CD40 antibody or anti-human CD40 antibody fragment, (ii) at least one type 1 interferon selected from alpha interferon, beta interferon, epsilon interferon, zeta interferon, tau interferons such as tau 1, 2, 3, 4, 5, 6, 7, 8, 9, and 10, or fragments thereof, or consensus interferons which mimic the structure of different type 1 interferon molecules such as alpha interferons, PEGylated versions and type 1 interferons with altered glycosylation because of recombinant expression or mutagenesis, and (iii) at least one tumor antigen, in the manufacture of one or more medicament compositions for use in a method for eliciting a synergistic effect on antitumor immunity in a human subject in need thereof, said method comprising administration of (i), (ii) and (iii) in synergistically effective amounts and whereby said method: results in a synergistic increase in the number of antigen-specific CD8+ T cells and/or results in enhanced primary and memory CD8+ T cells responses, and/or induces CD70 expression on dendritic cells. (i) at least one CD40 agonist, wherein the CD40 agonist is a soluble human CD40L polypeptide or an agonistic anti-human CD40 antibody or anti-human CD40 antibody fragment, (ii) at least one type 1 interferon selected from alpha interferon, beta interferon, epsilon interferon, zeta interferon, tau interferons such as tau 1, 2, 3, 4, 5, 6, 7, 8, 9, and 10, or fragments thereof, or consensus interferons which mimic the structure of different type 1 interferon molecules such as alpha interferons, PEGylated versions and type 1 interferons with altered glycosylation because of recombinant expression or mutagenesis, and (iii) at least one tumor antigen, results in a synergistic increase in the number of antigen-specific CD8+ T cells and/or results in enhanced primary and memory CD8+ T cells responses, and/or induces CD70 expression on dendritic cells.
A steering column assembly for a motor vehicle, the steering column assembly comprising: a box rocker having a rocker body including a box rocker inner surface that defines a box rocker bore, the box rocker configured to be fixed relative to the motor vehicle in an assembled position; a column jacket configured to be slidably received into the box rocker bore, the column jacket having a column jacket outer diameter including an outer surface that opposes the box rocker inner surface; characterized in that a first section of tape disposed between the box rocker inner surface and the column jacket outer surface. a box rocker having a rocker body including a box rocker inner surface that defines a box rocker bore, the box rocker configured to be fixed relative to the motor vehicle in an assembled position; a column jacket configured to be slidably received into the box rocker bore, the column jacket having a column jacket outer diameter including an outer surface that opposes the box rocker inner surface; characterized in that a first section of tape disposed between the box rocker inner surface and the column jacket outer surface.
Method for operating a hydropneumatic bladder accumulator with a pressure vessel, which has a bladder, an oil inlet, a gas inlet, a fitting for the oil-side connection and a first pressure sensor, at least one first temperature sensor and evaluation units (7, 11) for pressure and temperature, wherein the first pressure sensor is arranged on the gas side or on the oil side of the bladder accumulator in such a way that it detects either the oil pressure or the gas pressure, wherein the first temperature sensor is arranged on the fitting, the temperature being measured at at least one further location different from the position of the first temperature sensor by means of a further second temperature sensor arranged on or in the bladder accumulator, and a pressure profile over time being recorded in the bladder accumulator and being compared with setpoint values, wherein an envelope curve is predetermined for the desired values, which envelope curve is formed with the aid of the temperature difference between the two temperature sensors (6, 9), and wherein during ongoing operation the detected pressure curve is compared with the predetermined envelope curve and an alarm signal is generated if the predetermined values are exceeded. wherein the first pressure sensor is arranged on the gas side or on the oil side of the bladder accumulator in such a way that it detects either the oil pressure or the gas pressure, wherein the first temperature sensor is arranged on the fitting, the temperature being measured at at least one further location different from the position of the first temperature sensor by means of a further second temperature sensor arranged on or in the bladder accumulator, and a pressure profile over time being recorded in the bladder accumulator and being compared with setpoint values, wherein an envelope curve is predetermined for the desired values, which envelope curve is formed with the aid of the temperature difference between the two temperature sensors (6, 9), and wherein during ongoing operation the detected pressure curve is compared with the predetermined envelope curve and an alarm signal is generated if the predetermined values are exceeded.
A blade outer air seal assembly (105;205) for a gas turbine engine, the blade outer air seal assembly comprising: a support structure; and a blade outer air seal extending circumferentially about an axis and mounted in the support structure, characterised in that the blade outer air seal assembly further comprises: a flow guide for cooling air having a plurality of flow guide segments arranged between the blade outer air seal and the support structure; and an intersegment seal at a circumferential end of at least one of the flow guide segments, wherein the intersegment seal has an anti-rotation feature in engagement with the flow guide. a support structure; and a blade outer air seal extending circumferentially about an axis and mounted in the support structure, characterised in that the blade outer air seal assembly further comprises: a flow guide for cooling air having a plurality of flow guide segments arranged between the blade outer air seal and the support structure; and an intersegment seal at a circumferential end of at least one of the flow guide segments, wherein the intersegment seal has an anti-rotation feature in engagement with the flow guide. a flow guide for cooling air having a plurality of flow guide segments arranged between the blade outer air seal and the support structure; and an intersegment seal at a circumferential end of at least one of the flow guide segments, wherein the intersegment seal has an anti-rotation feature in engagement with the flow guide.