mhurhangee/ep-ind-claims huggingface dataset:
A galley for being positioned within a fuselage of an aircraft, comprising: (a) a first galley unit that includes meal carts, cabinets and a crew countertop work area; (b) a second galley unit spaced-apart from the first galley unit along a longitudinal axis of the fuselage; (c) a passenger interaction screen positioned for viewing by passengers boarding the aircraft through an aircraft fuselage door and passing through the galley into a passenger cabin, the screen adapted to display flight information relevant to passengers boarding the aircraft and to display selected, varying patterns of light conducive to passenger comfort; (d) a plurality of lavatories (60, 62) positioned in a plurality of corners of the galley on opposite lateral sides of the first galley unit, each of the plurality of lavatories (60, 62) having a respective major wall positioned at an oblique angle to a longitudinal axis of the aircraft fuselage with respective lavatory door openings angled away from the crew countertop work area; and (e) at least one of the first and second galley units including a plurality of crew seats that are movable between a stowed position against the at least one galley unit and a deployed position extending away from the at least one galley unit for use by the crew, wherein the plurality of crew seats are pivotally-mounted for movement between the stowed and deployed positions. (a) a first galley unit that includes meal carts, cabinets and a crew countertop work area; (b) a second galley unit spaced-apart from the first galley unit along a longitudinal axis of the fuselage; (c) a passenger interaction screen positioned for viewing by passengers boarding the aircraft through an aircraft fuselage door and passing through the galley into a passenger cabin, the screen adapted to display flight information relevant to passengers boarding the aircraft and to display selected, varying patterns of light conducive to passenger comfort; (d) a plurality of lavatories (60, 62) positioned in a plurality of corners of the galley on opposite lateral sides of the first galley unit, each of the plurality of lavatories (60, 62) having a respective major wall positioned at an oblique angle to a longitudinal axis of the aircraft fuselage with respective lavatory door openings angled away from the crew countertop work area; and (e) at least one of the first and second galley units including a plurality of crew seats that are movable between a stowed position against the at least one galley unit and a deployed position extending away from the at least one galley unit for use by the crew, wherein the plurality of crew seats are pivotally-mounted for movement between the stowed and deployed positions.
A duplex stainless steel casting with high machinability, characterized in that the microstructure of the casting contains 30 - 70 vol percent ferrite and 30 - 70 vol percent austenite and the casting consisting of in weight percent: up to 0,07% carbon, up to 2% silicon, 4-6% manganese, 19-23% chromium, 0,5-1,7% nickel, optionally up to 1% of molybdenum and/or tungsten with the formula (Mo+1⁄2W less than 1%, optionally up to 1% copper and 0,20-0,26% nitrogen, the remainder being iron and incidental impurities.
Method for fragmenting and/or weakening of pourable material by means of high-voltage discharges, comprising the steps of: a) providing a high-voltage electrode assembly, which is assigned to a high-voltage generator by means of which it is chargeable with high-voltage pulses; b) guiding of a material flow of pourable material, immersed in a process liquid, past the high-voltage electrode assembly; and c) producing of high-voltage punctures through the material flow during the guiding thereof past the high-voltage electrode assembly by means of charging of the high-voltage electrode assembly with high-voltage pulses, characterized in that the zone of the material flow in which high-voltage punctures through the material of the material flow are produced as viewed in a guiding-past direction is laterally delimited by substantially unmoved zones of the same material. a) providing a high-voltage electrode assembly, which is assigned to a high-voltage generator by means of which it is chargeable with high-voltage pulses; b) guiding of a material flow of pourable material, immersed in a process liquid, past the high-voltage electrode assembly; and c) producing of high-voltage punctures through the material flow during the guiding thereof past the high-voltage electrode assembly by means of charging of the high-voltage electrode assembly with high-voltage pulses,
An apparatus comprising: a first wall for an inlet (110, 218, 220, 1200, 1400, 1500) of an aircraft engine (108, 214,216); a structure for the aircraft engine; a plurality of longitudinal members connecting the first wall to the structure for the aircraft engine, characterised in that the plurality of longitudinal members has an orientation configured to reduce motion (112, 116) in the first wall for the inlet; and in that the motion reduced in the first wall for the inlet is in an axial direction of the aircraft engine. a first wall for an inlet (110, 218, 220, 1200, 1400, 1500) of an aircraft engine (108, 214,216); a structure for the aircraft engine; a plurality of longitudinal members connecting the first wall to the structure for the aircraft engine,
A process for production of an allyl acetate production catalyst comprising (a) palladium, (b) gold, (c) a compound containing at least one element selected from copper, nickel, zinc and cobalt, (d) an alkali metal salt compound and (e) a carrier, wherein the amount of (b) gold is 2.0-3.5 parts by mass with respect to 100 parts by mass of the (a) palladium, the process being characterized by comprising the following steps. Step 1: A step of preparing a homogeneous solution of a palladium-containing compound and a gold-containing compound, and contacting the solution with the (e) carrier to support both compounds on the carrier. Step 2: A step of contacting (f) an alkali solution with the carrier obtained in step 1 for impregnation. Step 3: A step of reduction treatment of the carrier obtained in step 2. Step 4: A step of supporting (c) a compound containing at least one element selected from copper, nickel, zinc and cobalt and (d) an alkali metal salt compound on the carrier obtained in step 3. Step 1: A step of preparing a homogeneous solution of a palladium-containing compound and a gold-containing compound, and contacting the solution with the (e) carrier to support both compounds on the carrier. Step 2: A step of contacting (f) an alkali solution with the carrier obtained in step 1 for impregnation. Step 3: A step of reduction treatment of the carrier obtained in step 2. Step 4: A step of supporting (c) a compound containing at least one element selected from copper, nickel, zinc and cobalt and (d) an alkali metal salt compound on the carrier obtained in step 3.
An apparatus for stitching an interior component, comprising: a first drive device; an awl bar assembly coupled to the first drive device, the awl bar assembly having an awl configured to be moved from a withdrawn position to an inserted position with the first drive device; a second drive device operably coupled to the first drive device; and a needle bar assembly having a needle, the needle movable between an inserted and a withdrawn position, the needle bar assembly being pivotally by a pivot coupled to the second drive device; characterized by further comprising a biasing member coupled to the needle bar assembly, the biasing member being arranged to pivot about the pivot and align the needle bar assembly in response to the needle being moved to the withdrawn position. a first drive device; an awl bar assembly coupled to the first drive device, the awl bar assembly having an awl configured to be moved from a withdrawn position to an inserted position with the first drive device; a second drive device operably coupled to the first drive device; and a needle bar assembly having a needle, the needle movable between an inserted and a withdrawn position, the needle bar assembly being pivotally by a pivot coupled to the second drive device; characterized by further comprising a biasing member coupled to the needle bar assembly, the biasing member being arranged to pivot about the pivot and align the needle bar assembly in response to the needle being moved to the withdrawn position.
Method for the secondary packaging of ophthalmic lenses for example contact lenses, contained in individual primary packages, the method comprising the steps of providing a plurality of single individual primary packages each containing a single ophthalmic lens, determining a number of single individual primary packages to be taken from the plurality of single individual primary packages and to be packed into a secondary package, characterized by the steps of from a predetermined number of secondary package blanks of different sizes selecting and providing a secondary package blank of a size capable of accommodating the determined number of single individual primary packages to be packed into the secondary package, placing each single individual primary package of the determined number of single individual primary packages into the selected secondary package blank, folding and closing the selected secondary package blank containing the determined number of single individual primary packages to form the secondary package.
Method for monitoring characteristics of a door motion procedure of an elevator door using a smart mobile device including multiple sensors, the method comprising: determining a time window within which a door motion is assumed to occur, wherein a start time limit and an end time limit enclose a time interval of the time window and wherein at least one of the start time limit and the end time limit is determined based on first measurement values acquired by a first sensor comprised in the smart mobile device; detecting the characteristics of the door motion procedure of the elevator door based on second measurement values acquired during the time window by a second sensor comprised in the smart mobile device. determining a time window within which a door motion is assumed to occur, wherein a start time limit and an end time limit enclose a time interval of the time window and wherein at least one of the start time limit and the end time limit is determined based on first measurement values acquired by a first sensor comprised in the smart mobile device; detecting the characteristics of the door motion procedure of the elevator door based on second measurement values acquired during the time window by a second sensor comprised in the smart mobile device.
An agricultural working machine with a propulsion engine disposed in an engine compartment, an engine compartment cover, a cooling system with a cooling fan for cooling the propulsion engine, and at least one exhaust air outlet arranged in the engine compartment cover for carrying a stream of exhaust air away from the engine compartment, wherein the stream of exhaust air can be adjusted as a function of at least one operating parameter of the working machine, wherein a movable cover element is associated with an exhaust air outlet in order to adjust the stream of exhaust air, and a control system is provided for automatic adjustment of the stream of exhaust air as a function of the at least one operating parameter, characterized in that the at least one cover element and the cooling fan can be adjusted by the control system in a manner such that the output of the cooling fan is increased, in particular temporarily, and at the same time a cross section of the exhaust air outlet is reduced in order to heat the engine compartment as uniformly and rapidly as possible by means of the reduced outflow and to dam up the exhaust air.
Process for preparing alcohols by reacting carboxylic acids and/or carboxylic esters with hydrogen in the presence of a catalyst, characterized in that the catalyst in the non-reduced state • comprises 20 to 80% by weight of CuO, 10 to 80 % by weight of ZnO and 1 to 50% by weight of Al 2 O 3, • has a pore size distribution in which 5 to 15% of the total pore volume is in the pore diameter range of less than 15nm [150 Å] and 80 to 95% of the total pore volume is in the pore diameter range of greater than 25nm [250 Å] and • has a specific surface area of 5 to 60 m 2 /g. • comprises 20 to 80% by weight of CuO, 10 to 80 % by weight of ZnO and 1 to 50% by weight of Al 2 O 3, • has a pore size distribution in which 5 to 15% of the total pore volume is in the pore diameter range of less than 15nm [150 Å] and 80 to 95% of the total pore volume is in the pore diameter range of greater than 25nm [250 Å] and • has a specific surface area of 5 to 60 m 2 /g.
Machine for producing containers from preforms, comprising at least: - a mold loading station for loading successive preforms into successive molds, each mold forming a mold cavity having the shape of the container to be produced, - a forming station for forming the containers by injecting a gaseous or liquid fluid into the preform contained in each mold in order to expand said preform such that each preform acquires the shape of the container defined by the mold cavity, characterized in that the mold loading station and the forming station are distinct from each other and in that the machine comprises a transferring station arranged between the mold loading station and the forming station for transferring the successive molds containing the preforms from the mold loading station to the forming station, the transferring station being arranged to receive molds released from the mold loading station and to release said molds to the forming station during the transferring of the successive molds containing the preforms from the mold loading station to the forming station. - a mold loading station for loading successive preforms into successive molds, each mold forming a mold cavity having the shape of the container to be produced, - a forming station for forming the containers by injecting a gaseous or liquid fluid into the preform contained in each mold in order to expand said preform such that each preform acquires the shape of the container defined by the mold cavity,
A semiconductor laser,,,,, capable of emitting a plurality of longitudinal modes with low individual relative intensity noise, comprising an optical resonator comprising a first mirror, a second mirror, an active section located between the first mirror and the second mirror, and at least one noise reducing section located between the first mirror and the second mirror and fabricated as a monolithically integrated structure with the active section, the active section and the noise reducing section each comprising identical quantum dot active regions including at least one quantum dot array, the active section and the noise reducing section each comprising transverse optical waveguides and a waveguide structure confining light in a lateral direction, the waveguides of the active section and the noise reducing section being situated in series and being optically connected to each other, wherein the active section and the noise reducing section being electrically isolated from each other; a length of the noise reducing section being in a range of 5% to 30% of a total length of the optical resonator; the active section being connected to electrical driving circuitry; and the noise reducing section not connected to an external electrical circuit; such that the semiconductor laser,,,,, is configured to produce an output lasing spectrum using an inhomogeneously broadened ground state transition of the quantum dot array and the semiconductor laser emits a plurality of optical modes such that a total relative intensity noise of each optical mode is less than 0.2% in the 0.001 GHz to 10 GHz range.
Method for joining structural elements to form a component mad of at least one fibre-reinforced plastic, comprising the following method steps: a. providing at least two structural elements made of at least one fibre-reinforced plastic with a respective matrix; b. providing at least one sensor film element made of a thermoplastic material; c. arranging the at least one sensor film element on a surface of one of the structural elements or between surfaces to be joined of the at least two structural elements to be joined; d. producing the component to be joined in a curing process of the matrix of the structural elements, wherein the sensor film element is initially dissolved under the influence of heat and then cross-linked again and is hereby connected to the matrix of the structural elements. a. providing at least two structural elements made of at least one fibre-reinforced plastic with a respective matrix; b. providing at least one sensor film element made of a thermoplastic material; c. arranging the at least one sensor film element on a surface of one of the structural elements or between surfaces to be joined of the at least two structural elements to be joined; d. producing the component to be joined in a curing process of the matrix of the structural elements, wherein the sensor film element is initially dissolved under the influence of heat and then cross-linked again and is hereby connected to the matrix of the structural elements.
A method for wireless communication at a user equipment, comprising: transmitting a first message comprising a random access channel, RACH, preamble; receiving a second message comprising random access response, RAR, in response to the RACH preamble; transmitting a third message in response to the RAR, and characterized by: receiving a fourth message in response to the third message, wherein the fourth message comprises at least one timing advance, TA, parameter; and communicating one or more messages based on the TA parameter. transmitting a first message comprising a random access channel, RACH, preamble; receiving a second message comprising random access response, RAR, in response to the RACH preamble; transmitting a third message in response to the RAR, and characterized by: receiving a fourth message in response to the third message, wherein the fourth message comprises at least one timing advance, TA, parameter; and communicating one or more messages based on the TA parameter. receiving a fourth message in response to the third message, wherein the fourth message comprises at least one timing advance, TA, parameter; and communicating one or more messages based on the TA parameter.
An optical evaluation method using a laser scanning microscope for imaging by means of stimulated fluorescence in the Raman technique of stimulated Raman gain or stimulated Raman loss, in which first laser pulses of a first type of a first pulse sequence with predetermined repetition rate and second laser pulses of a second type that can be distinguished therefrom and of a second pulse sequence with predetermined repetition rate are directed onto a sample to be examined, wherein a first pulse-shaped optical signal (S1, S1') is generated due to an interaction of the first laser pulses with the second laser pulses in the sample given a simultaneous incidence or an incidence within a very short time lag of the two laser pulses (11, 12) on the sample, and results in a gain or a loss in accordance with the Raman technique of stimulated Raman gain or stimulated Raman loss, wherein a second pulse-shaped optical signal (S2, S2') is generated when both laser pulses (11, 12) are not incident on the sample simultaneously or within a very short time lag and does not have a gain or loss, and wherein after detection of the generated optical signals with at least one detector (D1, D2, D3) an electronic difference formation between the first optical signal (S1, S1') and the second optical signal (S2, S2') results in a pulse-shaped difference signal (Sd) that is fed to an image processing of the laser scanning microscope. in which first laser pulses of a first type of a first pulse sequence with predetermined repetition rate and second laser pulses of a second type that can be distinguished therefrom and of a second pulse sequence with predetermined repetition rate are directed onto a sample to be examined, wherein a first pulse-shaped optical signal (S1, S1') is generated due to an interaction of the first laser pulses with the second laser pulses in the sample given a simultaneous incidence or an incidence within a very short time lag of the two laser pulses (11, 12) on the sample, and results in a gain or a loss in accordance with the Raman technique of stimulated Raman gain or stimulated Raman loss, wherein a second pulse-shaped optical signal (S2, S2') is generated when both laser pulses (11, 12) are not incident on the sample simultaneously or within a very short time lag and does not have a gain or loss, and wherein after detection of the generated optical signals with at least one detector (D1, D2, D3) an electronic difference formation between the first optical signal (S1, S1') and the second optical signal (S2, S2') results in a pulse-shaped difference signal (Sd) that is fed to an image processing of the laser scanning microscope.
Method for producing a three-dimensional trim element comprising at least one cover layer and a support layer which is covered at least in part by said cover layer, the method comprising the following steps: - providing a substantially planar cover layer to a storage station, - shaping the cover layer such that it acquires the three-dimensional shape of the trim element to be produced, - placing the shaped cover layer in a production tool comprising a shaping cavity which has the three-dimensional shape of the trim element to be produced, - assembling the cover layer with the support layer in the shaping cavity so as to obtain the trim element, characterised in that the cover layer is transported from the storage station to the production tool by a handling tool which has the three-dimensional shape of the cover layer to be shaped, said handling tool being arranged to remove the cover layer from the storage station and to place it in the production tool while conferring on the cover layer its three-dimensional shape while the cover layer is being transported, and in that the step of shaping the cover layer comprises passing the handling tool to a heating station, said station being arranged to heat the cover layer on the handling tool so as to allow said cover layer to be shaped, and a step of suctioning and plating the cover layer to a receiving face of the handling tool, said receiving face having the three-dimensional shape of the cover layer. - providing a substantially planar cover layer to a storage station, - shaping the cover layer such that it acquires the three-dimensional shape of the trim element to be produced, - placing the shaped cover layer in a production tool comprising a shaping cavity which has the three-dimensional shape of the trim element to be produced, - assembling the cover layer with the support layer in the shaping cavity so as to obtain the trim element, characterised in that the cover layer is transported from the storage station to the production tool by a handling tool which has the three-dimensional shape of the cover layer to be shaped, said handling tool being arranged to remove the cover layer from the storage station and to place it in the production tool while conferring on the cover layer its three-dimensional shape while the cover layer is being transported, and in that the step of shaping the cover layer comprises passing the handling tool to a heating station, said station being arranged to heat the cover layer on the handling tool so as to allow said cover layer to be shaped, and a step of suctioning and plating the cover layer to a receiving face of the handling tool, said receiving face having the three-dimensional shape of the cover layer.