mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a case assembly defining an outer flow path wall and an inner flow path wall, each extending between a first case end and a second case end along a central longitudinal axis; a splitter disposed between the outer flow path wall and the inner flow path wall, the splitter having a first surface and a second surface disposed opposite the first surface, each extending from the second case end towards a leading edge; an upstream blade row disposed proximate to the first case end and extending between the outer flow path wall and the inner flow path wall; and a transition duct defined by the outer flow path wall and the inner flow path wall and extending from the upstream blade row to the leading edge, the transition duct defining an entrance section that extends from the upstream blade row towards a diverging section, the diverging section extending from the entrance section towards the leading edge; wherein the entrance section has an entrance annular area; wherein the diverging section of the transition duct includes an outer duct inlet having a first annular area and an inner duct inlet having a second annular area; wherein the outer duct inlet and the inner duct inlet are proximate to the leading edge; wherein the second annular area is greater than the first annular area; and wherein a combination of the first annular area and the second annular area is greater than the entrance annular area. a case assembly defining an outer flow path wall and an inner flow path wall, each extending between a first case end and a second case end along a central longitudinal axis; a splitter disposed between the outer flow path wall and the inner flow path wall, the splitter having a first surface and a second surface disposed opposite the first surface, each extending from the second case end towards a leading edge; an upstream blade row disposed proximate to the first case end and extending between the outer flow path wall and the inner flow path wall; and a transition duct defined by the outer flow path wall and the inner flow path wall and extending from the upstream blade row to the leading edge, the transition duct defining an entrance section that extends from the upstream blade row towards a diverging section, the diverging section extending from the entrance section towards the leading edge; wherein the entrance section has an entrance annular area; wherein the diverging section of the transition duct includes an outer duct inlet having a first annular area and an inner duct inlet having a second annular area; wherein the outer duct inlet and the inner duct inlet are proximate to the leading edge; wherein the second annular area is greater than the first annular area; and wherein a combination of the first annular area and the second annular area is greater than the entrance annular area.
A method of transmitting, using a discrete multi-tone modulation technique, data from a transmitter device over a plurality of pairs of wires (21, 22, 23) to one or more receiver devices (41, 42, 43), each of which is connected to the transmitter device via at least one respective pair of wires (21, 22, 23), the or each receiver device (41, 42, 43) being operable to receive signals detected as a change over time in the potential difference across the local ends of the or each respective pair of wires extending between the receiver (41, 42, 43) and the transmitter device, the transmitter device being operable to transmit signals onto the wires (21, 22, 23) extending between the transmitter device and the one or more receiver devices (41, 42, 43) in a plurality of different modes, over a plurality of different channels, the different modes including phantom and differential modes and the different channels including a first set of phantom channels, characterised in that the method comprises selecting a second set of phantom channels from the first set, the second set being a subset of the first set comprising some or all of the phantom channels of the first set such that at least some of the phantom channels in the second set are not mutually orthogonal to one another, connecting the selected phantom channels to the transmitter and transmitting signals from the transmitter onto the phantom channels of the second set of phantom channels.
A folding chair having a seat base, a backrest and a pair of armrests, said seat base having a forward edge and a rear edge relative to said backrest and each of said armrests having a proximal end at or adjacent to said backrest, and a distal end, wherein said chair further includes a linkage connecting said seat base and said armrests, said linkage being configured to regulate displacement of said seat base between a substantially horizontal in-use position and a folded position in which said rear edge is raised relative to said backrest and said forward edge is displaced in a folding direction toward said backrest while causing the distal ends of said armrests to be displaced in said folding direction toward said backrest.
Agricultural machine, in particular hay raking or mowing machine, comprising a carrying frame having an undercarriage, at which carrying frame at least one length-adjustable lifting arm carrying a working device is linked pivotably upwardly between a lowered working position through a partially lifted position into a fully lifted transport position and vice versa, at least one lifting cylinder arranged between the carrying frame and the lifting arm, at least one double sided actuated telescoping cylinder with a piston rod of a piston having a piston side and a piston rod side arranged between inner and outer length adjustable and telescopable lifting arm parts (14, 16) being extendable for increasing the length, and a hydraulic circuit at least for the lifting and telescoping cylinders (6, 11), wherein working lines (23, 24) of the telescoping cylinder contain check valves (27, 28) blocking in outflow direction from the telescoping cylinder and being hydraulically alternatingly openable crosswise via the working lines (23, 24), characterized in that a bypass line having an overpressure-safety means responding dependent from pressure in flow direction from the piston rod side to the piston side, the overpressure safety means being arranged between the piston side and the piston rod side of the piston of the telescoping cylinder.
A safety system for a working vehicle comprising a working equipment, e.g. a crane or a working tool, the safety system comprises a control unit, a controller, e.g. a remote controller, configured to control said working equipment, and a display unit, wherein said control unit is configured to: - define a set of three-dimensional safety spaces in relation to the vehicle, wherein each safety space is defined by a data representation of boundaries of the safety space, wherein one of said safety spaces in said set of safety spaces is around said controller, - present at least one safety space from said set of safety spaces on said display unit, characterised by said at least one safety space being presented overlaid on an image of at least a part of the working vehicle and working equipment, and wherein each presented safety space being presented in a position, defined by space position parameters, in relation to the working vehicle and working equipment, and wherein said control unit is further configured to: - receive a first input signal comprising space position parameters representing at least one chosen safety space among the presented safety spaces, and to designate each at least one chosen safety space as an active safety space, and to - receive a second input signal comprising a safety space state command either allowing or preventing said working equipment to be moved into said at least one active safety space, and to apply a state command signal to said controller that in turn is configured to control said working equipment in dependence of said safety space state command. - define a set of three-dimensional safety spaces in relation to the vehicle, wherein each safety space is defined by a data representation of boundaries of the safety space, wherein one of said safety spaces in said set of safety spaces is around said controller, - present at least one safety space from said set of safety spaces on said display unit, characterised by said at least one safety space being presented overlaid on an image of at least a part of the working vehicle and working equipment, and wherein each presented safety space being presented in a position, defined by space position parameters, in relation to the working vehicle and working equipment, and wherein said control unit is further configured to: - receive a first input signal comprising space position parameters representing at least one chosen safety space among the presented safety spaces, and to designate each at least one chosen safety space as an active safety space, and to - receive a second input signal comprising a safety space state command either allowing or preventing said working equipment to be moved into said at least one active safety space, and to apply a state command signal to said controller that in turn is configured to control said working equipment in dependence of said safety space state command.
A carriage for lifting and/or moving a load on one or more lines comprising at least two sheaves (30, 40) that are in, an operative configuration, disposed for rotation about a respective axis between front and rear plates (10, 12), the carriage having an open configuration in which at least one sheave is spaced from at least one of the front or rear plates, wherein transition between the open configuration and the operative configuration is achieved by mutual rotation of the front and rear plates (10, 12) about a rotation axis perpendicular to the plates, characterised in that in the operative configuration, each sheave is connected to both the front and rear plates, and the mutual rotation axis of the front and rear plates (10, 12) is coincident with the axis of rotation of one of the sheaves.
A low-calorie biscuit, characterized in that it includes the following raw materials which form part of the total weight of the mixture in the following percentages: - Wheat flour 40-42% - High oleic sunflower oil 6-8% - Starches 18-23% - Fibers 11-14% - Raising agents and/or texturizing agents 1.5-2.5% - Sweeteners 7-9% - Salt 0.3-1.0% - Aromas/flavors 0.5-1.3% - Emulsifiers 0.2-0.6% and, the following ingredients are optionally included: - Gluten 1-2.5% - Wheat bran 2.5-5% - Seeds 2-3%, wherein, the starches included in the biscuit are the following and are part of the recipe in the following percentages with respect to the total weight of the mixture: - Modified wheat starch 16-22% - Corn starch and modified corn starch 1.0-4.0%; the fibers included therein are the following and are part of the recipe in the following percentages with respect to the total weight of the mixture: - Oligofructose 9-12% - Microcrystalline cellulose and 2.5-6% carboxymethyl cellulose; and the sweeteners included therein are the following and are part of the receipe in the following percentages with respect to the total weight of the mixture: - Erythritol 4-9% - Sucralose 0.01-0.05% - Sorbitol 1-3%. - Wheat flour 40-42% - High oleic sunflower oil 6-8% - Starches 18-23% - Fibers 11-14% - Raising agents and/or texturizing agents 1.5-2.5% - Sweeteners 7-9% - Salt 0.3-1.0% - Aromas/flavors 0.5-1.3% - Emulsifiers 0.2-0.6% and, the following ingredients are optionally included: - Gluten 1-2.5% - Wheat bran 2.5-5% - Seeds 2-3%, - Modified wheat starch 16-22% - Corn starch and modified corn starch 1.0-4.0%; the fibers included therein are the following and are part of the recipe in the following percentages with respect to the total weight of the mixture: - Oligofructose 9-12% - Microcrystalline cellulose and 2.5-6% carboxymethyl cellulose; - Erythritol 4-9% - Sucralose 0.01-0.05% - Sorbitol 1-3%.
Traffic guide barrier for integration into a vehicle retaining system (48, 48a) on a traffic route, comprising a first guide body having a first end face, and a second guide body having a second end face corresponding with the first end face, wherein the guide bodies (A, B) have coupling means which can be brought into engagement with one another, of which one of the coupling means comprises a clip arranged on the first end face and pin-like projections, and the other coupling means has an insertion pocket arranged on the second end face and having a bottom web, wherein the bottom web has recesses and, in a closed position, the clip can be brought into engagement with the insertion pocket and the projections can be brought into engagement with the recesses, at least in regions with one another, wherein, on at least the first guide body or the second guide body, a terminal bearing arrangement (8, 8a) facing away from its first or second end face (4a, 4b) is provided, on which the guide body (A, B) is mounted about a horizontal rotation axle and can be tilted vertically from the closed position into an open position, wherein a gap lying between the two end faces (4a, 4b) in the closed position is bridged at least in regions by at least one side cheek (6a, 6b) which is arranged on the first guide body or on the second guide body, characterised in that the first guide body has a claw and the second guide body has an opening arranged in its upper side, wherein the claw of the first guide body engages at least in regions in the opening of the second guide body in the closed position.
A gas analyzing device comprising a sample gas line where a sample gas flows, an analyzer that is arranged in the sample gas line and that is configured to detect a concentration of a specific component contained in the sample gas, a catalyst that is arranged upstream of the analyzer in the sample gas line and that is configured to react with the sample gas, a moisture concentration adjusting unit that is arranged upstream of the catalyst in the sample gas line and that is configured to adjust the concentration of moisture in the sample gas, and a moisture supplying unit that is configured to supply moisture between the moisture concentration adjusting unit and the catalyst in the sample gas line. a sample gas line where a sample gas flows, an analyzer that is arranged in the sample gas line and that is configured to detect a concentration of a specific component contained in the sample gas, a catalyst that is arranged upstream of the analyzer in the sample gas line and that is configured to react with the sample gas, a moisture concentration adjusting unit that is arranged upstream of the catalyst in the sample gas line and that is configured to adjust the concentration of moisture in the sample gas, and a moisture supplying unit that is configured to supply moisture between the moisture concentration adjusting unit and the catalyst in the sample gas line.
An inorganic fiber paper having a thickness of 0.1 to 8 mm, a weight of 10 to 2800 g/m 2 and a density of 0.1 to 0.35 g/cm 3, comprising bio-soluble inorganic fibers which have been subjected to a heat treatment at a temperature of 500°C to 1100°C and lower than the crystallization temperature thereof and said bio-soluble inorganic fibers having a physiological saline dissolution ratio at 40°C of 1% or more, and a binder, the bio-soluble inorganic fibers having one of the following compositions 1 to 3: [Composition 1] SiO 2: 66 to 82 wt% CaO: 1 to 9 wt% MgO: 10 to 30 wt% Al 2 O 3: 1 to 3 wt% provided that TiO 2 and MnO are not contained [Composition 2] SiO 2: 66 to 82 wt% CaO: 10 to 34 wt% MgO: 3 wt% or less Al 2 O 3: 1 to 5 wt% [Composition 3] SiO 2: 66 to 82 wt% CaO: 10 to 34 wt% MgO: 3 wt% or less Al 2 O 3: 5 wt% or less Other oxides: less than 2 wt%. [Composition 1] SiO 2: 66 to 82 wt% CaO: 1 to 9 wt% MgO: 10 to 30 wt% Al 2 O 3: 1 to 3 wt% provided that TiO 2 and MnO are not contained SiO 2: 66 to 82 wt% CaO: 1 to 9 wt% MgO: 10 to 30 wt% Al 2 O 3: 1 to 3 wt% provided that TiO 2 and MnO are not contained [Composition 2] SiO 2: 66 to 82 wt% CaO: 10 to 34 wt% MgO: 3 wt% or less Al 2 O 3: 1 to 5 wt% SiO 2: 66 to 82 wt% CaO: 10 to 34 wt% MgO: 3 wt% or less Al 2 O 3: 1 to 5 wt% [Composition 3] SiO 2: 66 to 82 wt% CaO: 10 to 34 wt% MgO: 3 wt% or less Al 2 O 3: 5 wt% or less Other oxides: less than 2 wt%. SiO 2: 66 to 82 wt% CaO: 10 to 34 wt% MgO: 3 wt% or less Al 2 O 3: 5 wt% or less Other oxides: less than 2 wt%.
Flange connection for connecting two pipeline ends made of plastic, including two pipe ends located opposite one another made of plastic, wherein the pipe ends each comprise a weld stub, two loose flanges, wherein at each pipe end a loose flange is in each case arranged, wherein the loose flanges comprise bores for the mutual clamping together, clamping means, wherein the clamping means are arranged in the bores and serve for the mutual pulling together of the loose flanges and of the pipeline ends, and a sealing element, characterised in that the sealing element consists of a conductive plastic and exclusively of one material. a sealing element, characterised in that the sealing element consists of a conductive plastic and exclusively of one material.
Head end group comprising a first head end (HEla, HE2a) and a redundant head end (HElb, HE2b), wherein the first head end (HEla, HE2a) and the redundant head end (HElb, HE2b) each have a Powerline interface and a network interface, wherein the Powerline interfaces are designed for the exchange of Powerline signals via a power supply network, wherein the network interfaces are designed for exchanging data packets over a network, wherein the first head end (HEla, HE2a) is designed for managing a Powerline cell formed in the power supply network, wherein the redundant head end (HElb, HE2b) is designed, using its Powerline interface and/or its network interface and by examining the communication capability of the first head end (HEla, HE2a), to detect a failure of the communication capability of the first head end (HEla, HE2a) and to assume management of the Powerline cell if failure of the communication capability is detected.
A secondary battery comprising: a container having a pouring hole through which an electrolyte is poured, and housing the electrolyte, poured through the pouring hole, together with an electrode body; and a sealing lid fixed to the container and closing the pouring hole, wherein the sealing lid is laser welded to the container, wherein the container has a plurality of grooves extending in parallel along an outer edge of the pouring hole, in a predetermined region that surrounds a periphery of the pouring hole, wherein the sealing lid is provided on the plurality of grooves in such a manner as to close the pouring hole and is fixed to the container, and wherein the region with the grooves extends outside the sealing lid, characterized in that the plurality of grooves are formed of a single groove formed in a helical shape. a container having a pouring hole through which an electrolyte is poured, and housing the electrolyte, poured through the pouring hole, together with an electrode body; and a sealing lid fixed to the container and closing the pouring hole, wherein the sealing lid is laser welded to the container,
Device for changing operating settings of a technical facility, wherein the technical facility has a controller that is configured so as to control a multiplicity of functional units of the technical facility, based on at least a multiplicity of input parameters, by way of the operating settings, having: an input for receiving at least one input parameter of the multiplicity of input parameters, a simulation unit for simulating at least one functional unit of the multiplicity of functional units based on the at least one received input parameter, a changing unit for changing the operating settings and for providing changed operating settings to the simulation unit, wherein the simulation unit is configured so as to simulate a multiplicity of changed operating settings of the at least one functional unit in parallel, an evaluation unit for evaluating output parameters, based on the changed operating settings, of the at least one functional unit simulated by the simulation unit, wherein the evaluation unit is configured so as to evaluate output parameters of the functional unit based on the multiplicity of changed operating settings, and an output for providing the changed operating settings to the controller based on the evaluation. an input for receiving at least one input parameter of the multiplicity of input parameters, a simulation unit for simulating at least one functional unit of the multiplicity of functional units based on the at least one received input parameter, a changing unit for changing the operating settings and for providing changed operating settings to the simulation unit, wherein the simulation unit is configured so as to simulate a multiplicity of changed operating settings of the at least one functional unit in parallel, an evaluation unit for evaluating output parameters, based on the changed operating settings, of the at least one functional unit simulated by the simulation unit, wherein the evaluation unit is configured so as to evaluate output parameters of the functional unit based on the multiplicity of changed operating settings, and an output for providing the changed operating settings to the controller based on the evaluation.
Method for removing a section of a cable film to be removed from an end section of a cable, comprising the following steps: - providing an end section of a cable having a cable axis, wherein the cable comprises a cable sheath as well as at least one electrically conductive conductor structure (3, 4, 5) and the cable film made of a plastic material applied to one of the conductor structures (3, 4, 5); - generating a defined damage region in the provided end section of the cable by inductively heating at least that conductor structure (3, 4, 5a, 5b) to which the cable film is applied, so that the cable film applied to the heated conductor structure (3, 4, 5a, 5b) is at least partially thermally damaged in the damage region, wherein the cable film is covered by the cable sheath in the damage region during the inductive heating of the at least one conductor structure (3, 4, 5); - at least partially circumferentially cutting into the cable sheath during or after the generation of the damage region, wherein the at least partial cutting is performed at a position which is located closer to a cable end of the end section than the damage region; - moving the cable film relative to one of the conductor structures (3, 4, 5), wherein the relative movement forms a crack in the damage region which separates the section of the cable film to be removed from a section of the cable film remaining on the cable. - providing an end section of a cable having a cable axis, wherein the cable comprises a cable sheath as well as at least one electrically conductive conductor structure (3, 4, 5) and the cable film made of a plastic material applied to one of the conductor structures (3, 4, 5); - generating a defined damage region in the provided end section of the cable by inductively heating at least that conductor structure (3, 4, 5a, 5b) to which the cable film is applied, so that the cable film applied to the heated conductor structure (3, 4, 5a, 5b) is at least partially thermally damaged in the damage region, wherein the cable film is covered by the cable sheath in the damage region during the inductive heating of the at least one conductor structure (3, 4, 5); - at least partially circumferentially cutting into the cable sheath during or after the generation of the damage region, wherein the at least partial cutting is performed at a position which is located closer to a cable end of the end section than the damage region; - moving the cable film relative to one of the conductor structures (3, 4, 5), wherein the relative movement forms a crack in the damage region which separates the section of the cable film to be removed from a section of the cable film remaining on the cable.