mhurhangee/ep-ind-claims huggingface dataset:
Electric connector for electric circuit boards, said connector comprising: - a socket in an electrically insulative material designed to be mounted in an associated opening of said board and to project relative to a front face of said board, and - at least one electric connecting pin, characterized in that said at least one electric connecting pin is substantially U-shaped with a first lateral branch ending in the socket and a second lateral branch for connection by reflow soldering configured when mounted to pass through said board so as to emerge onto the front face of said board, and said material of the socket is a plastic material configured to withstand the reflow soldering temperatures. - a socket in an electrically insulative material designed to be mounted in an associated opening of said board and to project relative to a front face of said board, and - at least one electric connecting pin, characterized in that said at least one electric connecting pin is substantially U-shaped with a first lateral branch ending in the socket and a second lateral branch for connection by reflow soldering configured when mounted to pass through said board so as to emerge onto the front face of said board, and said material of the socket is a plastic material configured to withstand the reflow soldering temperatures.
A method for producing customized audio data, comprising: providing an interface via a network interface at a server or a network of servers in a data network for access to a catalog of audio data products by which a customer selects an instance of an audio product, and issues a request for the selected instance; receiving at the server or network of servers, said request for the audio data product from a customer device; retrieving at the server or network of servers a customer hearing profile associated with the customer; associating at the server or network of servers the audio data product with the customer hearing profile for use in production of a customized audio data product wherein the customer hearing profile comprises data configured to be applied to modify said instance of the audio data product according to a hearing characteristic of the customer to produce the customized audio data product; and producing, at the server or network of servers, said customized audio data product by applying the associated customer hearing profile to the particular audio data product. providing an interface via a network interface at a server or a network of servers in a data network for access to a catalog of audio data products by which a customer selects an instance of an audio product, and issues a request for the selected instance; receiving at the server or network of servers, said request for the audio data product from a customer device; retrieving at the server or network of servers a customer hearing profile associated with the customer; associating at the server or network of servers the audio data product with the customer hearing profile for use in production of a customized audio data product wherein the customer hearing profile comprises data configured to be applied to modify said instance of the audio data product according to a hearing characteristic of the customer to produce the customized audio data product; and producing, at the server or network of servers, said customized audio data product by applying the associated customer hearing profile to the particular audio data product.
Method for tightening a thread joint of a base part (17, 57, 64, 88, 97) and a part (18, 58, 65, 89, 98) to be attached by rotating a differential thread connector (20, 60, 66, 91, 100) in screw-in direction, wherein the differential thread connector (20, 60, 66, 91, 100) has one-directional thread portions with a small thread pitch and a large thread pitch, characterized in that initially, the differential thread connector (20, 60, 66, 91, 100) is screwed in to a predetermined length with a stopper element (21, 63, 69, 95, 103), wherein the stopper element (21, 63, 69, 95, 103) has an inner thread with the large thread pitch and a contact surface to contact with the part (18, 58, 65, 89, 98) to be attached; subsequently, the differential thread connector (20, 60, 66, 91, 100) is screwed into the base part (17, 57, 64, 88, 97) with the small thread pitch until a tight coupling of the contact surface of the stopper element (21, 63, 69, 95, 103) and the part (18, 58, 65, 89, 98) to be attached is reached, wherein the preliminary tightening is carried out in screw-in direction; thereafter, the differential thread connector (20, 60, 66, 91, 100) is rotated in screw-out direction, and the final tightening is carried out.
A speech coding apparatus outputting first coded data corresponding to a speech signal that contains a speech component and second coded data corresponding to a speech signal that does not contain the speech component, the speech coding apparatus comprising: a coding section that encodes an inputted speech signal in predetermined section units and generates coded data; a determination section that determines whether or not the inputted speech signal contains the speech component per predetermined section; and a synthesis section that obtains the first coded data and the second coded data by carrying out synthesis of noise data for, of the coded data, only coded data generated from the inputted speech signal of an inactive speech section determined not to contain the speech component, wherein the synthesis section embeds the noise data in the coded data generated from the inputted speech signal of the inactive speech section. a coding section that encodes an inputted speech signal in predetermined section units and generates coded data; a determination section that determines whether or not the inputted speech signal contains the speech component per predetermined section; and a synthesis section that obtains the first coded data and the second coded data by carrying out synthesis of noise data for, of the coded data, only coded data generated from the inputted speech signal of an inactive speech section determined not to contain the speech component, wherein the synthesis section embeds the noise data in the coded data generated from the inputted speech signal of the inactive speech section.
An aerofoil sail assembly for providing motive power to a cargo vessel, the assembly comprising at least two aerofoil sails (31a, 31b), each sail comprising a leading aerofoil portion and a trailing aerofoil portion, and the sail assembly comprising a spar, at least one of the aerofoil portions rotatably positionable, and the sail comprising a controller to control individually the angular position of at least one of the aerofoil portions relative to the spar, and the spar rotationally positionable about its longitudinal axis, and wherein the leading portion is longer than the trailing portion when viewed in plan, and a gap is provided between the leading portion and the trailing portion, and wherein the aerofoil sail assembly comprises at least two of the aerofoil sails provided in a side-by-side spaced apart relationship.
Planning device for generating control data for a treatment apparatus for eye surgery which generates at least one incision in the cornea by means of a laser device, wherein the planning device comprises calculation means for defining at least one corneal relief incision (T, U), wherein the calculation means define the at least one corneal relief incision (T, U) based on the data of a refractive correction, and generate a control data record for controlling the laser device for the corneal relief incisions (T, U), wherein the calculation means determine the at least one corneal relief incision (T, U) in such a way that refractive errors present following the insertion of an implant into the cornea are countervailed, wherein the at least one corneal relief incision (T, U) reaches into the cornea to a depth of no more than 80% of the corneal thickness remaining over the implant and extends outside of the optically effective zone of the eye, and wherein the at least one corneal relief incision (T, U) includes a corneal relief incision embodied such that it forms a complete circular arc arranged above the implant following the insertion of said implant. wherein the calculation means determine the at least one corneal relief incision (T, U) in such a way that refractive errors present following the insertion of an implant into the cornea are countervailed, wherein the at least one corneal relief incision (T, U) reaches into the cornea to a depth of no more than 80% of the corneal thickness remaining over the implant and extends outside of the optically effective zone of the eye, and wherein the at least one corneal relief incision (T, U) includes a corneal relief incision embodied such that it forms a complete circular arc arranged above the implant following the insertion of said implant.
A shaft, which is composed of a plurality of shaft walls consisting of plastic material, the upper end of which has a steel frame, arranged on which are one or more shaft covers, characterised in that fastened on the upper side of the shaft walls there is a head frame, that the head frame includes a region, which rests on the shaft walls, and a casing section, which is bent upwardly, in the installed position, which is arranged, in the installed position, on the inner side of the shaft walls, that the steel frame includes a respective spindle at each corner region, which is extendable for height adjustment of the steel frame so that the steel frame rests either directly on the head frame or on extended spindles and on a supporting layer of mortar arranged on the head frame, and that formed at each corner region there is a respective opening in the casing section of the head frame, arranged in which there is a viewing window, which is preferably removable, in order to be able visually to monitor the correct performance of the installation of the steel frame.
A method for producing a metallic interconnector for a fuel cell stack, which has an air guiding surface with a first gas distributor structure and a fuel gas guiding surface with a second gas distributor structure, wherein the first gas distributor structure and the second gas distributor structure are each formed by grooves and webs, and the method comprises the following steps • providing a sheet metal blank, the thickness of the sheet metal blank being 0.5 to 3.5 mm, • forming the sheet metal blank by a plastic molding process, wherein the first gas distributor structure and the second gas distributor structure are formed in such a manner, that the grooves and webs of the first gas distributor structure are arranged complementary to the grooves and webs of the second gas distributor structure at a predeterminable percentage of area of the air guiding surface and the fuel gas guiding surface of at least 50% and at most 99%, wherein the metallic interconnector comprises a core and a thickness of the interconnector is a sum of a thickness of the core and a web height of the first gas distributor and a web height of the second gas distributor structure, wherein the interconnector comprises a sealing surface, which sealing surface is arranged on both the air guiding surface and the fuel guiding surface. • providing a sheet metal blank, the thickness of the sheet metal blank being 0.5 to 3.5 mm, • forming the sheet metal blank by a plastic molding process, wherein the first gas distributor structure and the second gas distributor structure are formed in such a manner, that the grooves and webs of the first gas distributor structure are arranged complementary to the grooves and webs of the second gas distributor structure at a predeterminable percentage of area of the air guiding surface and the fuel gas guiding surface of at least 50% and at most 99%, wherein the metallic interconnector comprises a core and a thickness of the interconnector is a sum of a thickness of the core and a web height of the first gas distributor and a web height of the second gas distributor structure, wherein the interconnector comprises a sealing surface, which sealing surface is arranged on both the air guiding surface and the fuel guiding surface.
A turbomachinery inlet screen, comprising: a first screen including a first edge and a second edge; and a second screen including a third edge and a fourth edge; wherein a first portion of the first screen is offset from the second screen; wherein at least a second portion of the first screen is disposed adjacent the second screen; and wherein the first screen comprises an arched cross-sectional shape and the second screen comprises a substantially flat cross-sectional shape; and a first flange couples the first edge to the third edge; and a second flange couples the second edge to the fourth edge. a first screen including a first edge and a second edge; and a second screen including a third edge and a fourth edge; wherein a first portion of the first screen is offset from the second screen; wherein at least a second portion of the first screen is disposed adjacent the second screen; and wherein the first screen comprises an arched cross-sectional shape and the second screen comprises a substantially flat cross-sectional shape; and a first flange couples the first edge to the third edge; and a second flange couples the second edge to the fourth edge.
An oxygen absorbing multilayer container comprising at least three layers of: a first resin layer comprising a thermoplastic resin; an oxygen absorbing layer comprising an oxygen absorbing resin composition which comprises a polyester compound (a) comprising a constituent unit having a tetralin ring and a transition metal catalyst; and a second resin layer comprising a same type of thermoplastic resin as the thermoplastic resin in the first resin layer, in this order, wherein the oxygen absorbing multilayer container comprises a cycloolefin polymer having a glass transition temperature of 60 to 80°C as the thermoplastic resin, the glass transition temperature being measured as explained in the description herein. a first resin layer comprising a thermoplastic resin; an oxygen absorbing layer comprising an oxygen absorbing resin composition which comprises a polyester compound (a) comprising a constituent unit having a tetralin ring and a transition metal catalyst; and a second resin layer comprising a same type of thermoplastic resin as the thermoplastic resin in the first resin layer, in this order, wherein the oxygen absorbing multilayer container comprises a cycloolefin polymer having a glass transition temperature of 60 to 80°C as the thermoplastic resin, the glass transition temperature being measured as explained in the description herein.
Hydraulic actuating apparatus (1, 35) having a hydraulic circuit, a variable-volume working space which is connected to the hydraulic circuit, and at least two leakage paths (24, 25), of which a first leakage path runs between bounding elements (39, 40) to the working space and via a seal arrangement which lies in said leakage path with a leakage collecting space which is spaced apart along the leakage path and lies between the seals (30, 31), having a crossover duct which links the two leakage paths (24, 25) and is connected to the first leakage path via the leakage collecting space which lies between the seals (30, 31), and having a delivery device which returns the leakage to the working space, characterized in that the bounding elements (39, 40) can be displaced axially with respect to one another and are formed by a bowl body with a central dome and by a cup-shaped annular piston which engages over said dome, in that the variable-volume working space lies axially between the central dome and the cup-shaped annular piston which engages over with respect to said dome, and in that the seal arrangement which lies in the first leakage path forms the delivery device which returns to the working space, such that it operates in a manner which is dependent on the direction of the displacement of the bounding elements (39, 40) with respect to one another.
A method for producing a laminated packaging material, comprising: providing a core material layer having an inner side and an outer side, embossing said core material layer for forming embossed features having an initial height, laminating at least one layer to said embossed core material layer, characterized in that said core material layer being a fibre-based material said embossed features protruding from the outer side of said core material layer to later form a tactile pattern on a side of the package to be formed by said packaging material, and laminating said at least one layer to the inner side of said embossed core material layer such that the height of the embossed features is temporarily reduced to a minimum height. providing a core material layer having an inner side and an outer side, embossing said core material layer for forming embossed features having an initial height, laminating at least one layer to said embossed core material layer, characterized in that said core material layer being a fibre-based material said embossed features protruding from the outer side of said core material layer to later form a tactile pattern on a side of the package to be formed by said packaging material, and laminating said at least one layer to the inner side of said embossed core material layer such that the height of the embossed features is temporarily reduced to a minimum height.
A multistage compressor for a CO2 cycle that includes a low-stage side rotary compressing mechanism and a high-stage side scroll compressing mechanism driven by an electric motor in a closed housing, being configured to carry out two-stage compression by discharging CO2 refrigerant gas compressed in the low-stage side rotary compressing mechanism into the closed housing and to take intermediate pressure refrigerant gas in the closed housing by the high-stage side scroll compressing mechanism, characterized in that a gas injection circuit for injecting intermediate pressure CO2 refrigerant gas extracted from a refrigerant circuit into the closed housing is connected to the closed housing, and wherein the pressure ratios of the low-stage side rotary compressing mechanism and the high-stage side scroll compressing mechanism are equivalent, and the ratios of displacement volume are equal to 1:1.
An apparatus for producing a composite laminate, said apparatus comprising: a first unwind station including at least one roll support assembly for rotatably supporting a roll of composite material; a tacking station downstream of said first unwind station, said tacking station defining a tacking surface; a heating station including a heater for heating said composite material fed from said roll in response to said composite material moving past said heater; and a processing station comprising at least one calender roll assembly (72, 74) positioned downstream of said heating station, characterized in that the heating station is located downstream of said tacking station, and that said heater includes: an entrance adapted to receive a composite laminate web; an exit adapted to allow said composite laminate web to exit said heater; a cover movable between an opened and a closed position; and a heat source for heating said composite laminate web as it moves between said entrance and said exit. a first unwind station including at least one roll support assembly for rotatably supporting a roll of composite material; a tacking station downstream of said first unwind station, said tacking station defining a tacking surface; a heating station including a heater for heating said composite material fed from said roll in response to said composite material moving past said heater; and a processing station comprising at least one calender roll assembly (72, 74) positioned downstream of said heating station, an entrance adapted to receive a composite laminate web; an exit adapted to allow said composite laminate web to exit said heater; a cover movable between an opened and a closed position; and a heat source for heating said composite laminate web as it moves between said entrance and said exit.
An exhaust system for a diesel engine comprising an oxidation catalyst for treating carbon monoxide and hydrocarbons (HCs) in exhaust gas from the diesel engine, wherein the oxidation catalyst comprises: a first zone comprising a platinum group metal component selected from the group consisting of a platinum (Pt) component and a combination of a platinum (Pt) component and a palladium (Pd) component, an alkaline earth metal component, and a support material comprising alumina doped with silica, wherein the alumina is doped with silica in an amount of 0.5 to 15 % by weight, and wherein the alkaline earth metal component and at least one platinum group metal is supported on the support material, and wherein when the first zone comprises a combination of a platinum (Pt) component and a palladium (Pd) component, then the first zone comprises a ratio by mass of platinum (Pt) in the platinum (Pt) component to palladium (Pd) in the palladium (Pd) component of ≥ 1:1; a second zone comprising a platinum group metal component selected from the group consisting of a platinum (Pt) component, a palladium (Pd) component and a combination thereof; and a substrate, which is a flow-through monolith; wherein the alkaline earth metal component has a total amount of alkaline earth metal of 0.35 to 17.66 gL -1 (10 to 500 gft -3); and wherein the first zone and the second zone are in a side-by-side arrangement on the substrate, and the first zone is upstream of the second zone, and wherein the first zone is different in composition to the second zone. a first zone comprising a platinum group metal component selected from the group consisting of a platinum (Pt) component and a combination of a platinum (Pt) component and a palladium (Pd) component, an alkaline earth metal component, and a support material comprising alumina doped with silica, wherein the alumina is doped with silica in an amount of 0.5 to 15 % by weight, and wherein the alkaline earth metal component and at least one platinum group metal is supported on the support material, and wherein when the first zone comprises a combination of a platinum (Pt) component and a palladium (Pd) component, then the first zone comprises a ratio by mass of platinum (Pt) in the platinum (Pt) component to palladium (Pd) in the palladium (Pd) component of ≥ 1:1; a second zone comprising a platinum group metal component selected from the group consisting of a platinum (Pt) component, a palladium (Pd) component and a combination thereof; and a substrate, which is a flow-through monolith; wherein the alkaline earth metal component has a total amount of alkaline earth metal of 0.35 to 17.66 gL -1 (10 to 500 gft -3); and wherein the first zone and the second zone are in a side-by-side arrangement on the substrate, and the first zone is upstream of the second zone, and wherein the first zone is different in composition to the second zone.
A latex composition comprising: a latex of a diene rubber (a) having a weight average molecular weight of 50,000 or more and 1,000,000 or less and containing an ethylenically unsaturated acid monomer unit; and a latex of a diene rubber (b) having a weight average molecular weight of 500 or more and less than 50,000 and containing an ethylenically unsaturated acid monomer unit. a latex of a diene rubber (a) having a weight average molecular weight of 50,000 or more and 1,000,000 or less and containing an ethylenically unsaturated acid monomer unit; and a latex of a diene rubber (b) having a weight average molecular weight of 500 or more and less than 50,000 and containing an ethylenically unsaturated acid monomer unit.