mhurhangee/ep-ind-claims huggingface dataset:
A dog harness which comprises a back part, a back strap connected thereto and a chest part and/or neck strap, and a belly strap connected to the back part by at least one back part fastener element connected to the back strap, said dog harness further comprising a leash-holding element with controlled displacement having on one end a leash-holding end element held in a loop holding the leash-holding end element, furthermore an elastic portion that is stretchable between an elastic portion fixing zone towards the loop holding the leash-holding end element and an elastic portion fixing zone towards the back part as a function of the forces acting when leading the dog on a leash, which stretching is controlled by at least one loop portion limiting the stretching of the elastic portion connecting the back part with the loop holding the leash-holding end element of the dog harness, the leash-holding element with controlled displacement being fixed together with the back part in a fixed manner only at a strip portion opposite to the leash-holding end element, by sewing and/or riveting, said leash-holding element with controlled displacement being arranged symmetrically on the back part of the dog harness, on the axis line, on both sides of the axis line, an underlay lining the back part at least partially, characterized in that the elastic portion rests flat on the back part and, in a non-fully stretched configuration of the elastic portion, the loop portion limiting the stretching of the elastic portion protrudes from the back part, is traversable perpendicularly to the axis line, forms an open loop, and said protruding, open loop is separated from the leash-holding end element by a strip limiting cover element, furthermore the underlay and the strip limiting cover element extend beyond the loop portion limiting the stretching of the elastic portion in the direction perpendicular to the axis line, on both sides of the axis line, and are fixed together on both sides of the axis line in a strip limiting cover element fixing zone, forming a traversable opening open in the direction of the axis line, resting flat on the back part, and thereby, as a function of the forces acting through the leash-holding end element, the elastic portion and the loop portion limiting the stretching of the elastic portion slide between the strip limiting cover element, the underlay and the strip limiting cover element fixing zones in the direction of the leash-holding end element until the whole loop portion limiting the stretching of the elastic portion rests flat on the elastic portion, furthermore the movement of the elastic portion and the loop portion limiting the stretching of the elastic portion in any direction other than parallel to the axis line is tightly limited on both sides of the axis line by the strip limiting cover element and the strip limiting cover element fixing zones.
A chair assembly, comprising: a seat support structure including a seat support surface configured to support a seated user thereon; an arm rest assembly including an arm support surface to support the arm of a seated user thereon; an arm support assembly having an upper end supporting the arm rest assembly at a greater vertical height than the seat support surface, and a lower end that includes a select one of a pivot boss and a pivot aperture; and an arm support structure that includes the other of the pivot boss and the pivot aperture, wherein the pivot boss is received within the pivot aperture for pivotably supporting the arm support assembly for rotation about a pivot point between a first position and a second position, the pivot boss having a conical-shape, and wherein the pivot aperture has a conical-shape closely corresponding to the shape of the pivot boss.
A sensor system for fluids, comprising vertically arranged level sensors, characterized in that - two level sensors are arranged vertically one upon the other on and connected to an electronic circuit board, - four electrodes of four conductivity sensors which are arranged horizontally next to each other at the bottom of and connected to the electronic circuit board, wherein the four conductivity sensors are arranged below the lower level sensor; and - a temperature sensor which is connected to the electronic circuit board; - a connector for connecting the electronic circuit board to a controller; wherein the electronic circuit board is embedded in a hot melt compound which is surrounded by an injection molded housing. - two level sensors are arranged vertically one upon the other on and connected to an electronic circuit board, - four electrodes of four conductivity sensors which are arranged horizontally next to each other at the bottom of and connected to the electronic circuit board, wherein the four conductivity sensors are arranged below the lower level sensor; and - a temperature sensor which is connected to the electronic circuit board; - a connector for connecting the electronic circuit board to a controller;
A manufacturing method comprising: providing a substrate with an outer surface and at least one interior space; applying a coating on at least a portion of the substrate; forming one or more grooves in the coating wherein each groove extends at least partially along the coating; processing at least a portion of a surface of the coating so as to plastically deform the coating at least in a vicinity of the top of a respective groove, such that a gap across a top of the groove is reduced; and applying one or more additional coatings over at least a portion of the surface of the coating, wherein the substrate, the coating and the additional coating define one or more channels for cooling a component, wherein processing the surface of the coating comprises shot peening the surface and wherein shot peening the surface includes peening particles having a diameter greater than the gap across the top of the one or more grooves. providing a substrate with an outer surface and at least one interior space; applying a coating on at least a portion of the substrate; forming one or more grooves in the coating wherein each groove extends at least partially along the coating; processing at least a portion of a surface of the coating so as to plastically deform the coating at least in a vicinity of the top of a respective groove, such that a gap across a top of the groove is reduced; and applying one or more additional coatings over at least a portion of the surface of the coating, wherein the substrate, the coating and the additional coating define one or more channels for cooling a component, wherein processing the surface of the coating comprises shot peening the surface and wherein shot peening the surface includes peening particles having a diameter greater than the gap across the top of the one or more grooves.
A packet data network, comprising a flow-based programmable network device and a controller entity, wherein said flow-based programmable network device includes a data plane having input/output ports (8, 9), and forwarding rules that map packets received on an input port to an output port based on a packet matching a rule in the forwarding rules, and a control interface, and wherein said controller entity is configured to program said flow-based programmable network device via said flow-based programmable network device's control interface, characterized in that said flow-based programmable network device has a connection via its data plane to at least one other network device - delegated entity -, wherein said flow-based programmable network device is configured to offload network traffic from its control interface to said at least one delegated entity, and wherein said at least one delegated entity is configured to process the offloaded network traffic on behalf of said flow-based programmable network device in a transparent manner from the perspective of said controller entity.
A slide flow distributor using a working fluid and comprising two delivery branches (6, 7) and two discharge branches (4, 5), a motor, a spool and a rod of the motor, wherein the motor is configured to move directly the spool by means of the rod of the motor, characterized in that the slide flow distributor further comprises: - a charge chamber of the working fluid, wherein in central position of the spool, the chamber is in fluid communication with the two discharge branches (4, 5) and the two delivery branches (6, 7); - a pneumatic servo-actuator provided from the portion of the spool proximal to the motor and configured to generate a force in the same direction and development of the axial force of the motor, with the result that the spool is then accelerated in a predetermined direction, - said pneumatic servo-actuator comprising a profiled body, a plurality of balls and corresponding elastic means which press said plurality of balls on the side surface of the profiled body. - a charge chamber of the working fluid, wherein in central position of the spool, the chamber is in fluid communication with the two discharge branches (4, 5) and the two delivery branches (6, 7); - a pneumatic servo-actuator provided from the portion of the spool proximal to the motor and configured to generate a force in the same direction and development of the axial force of the motor, with the result that the spool is then accelerated in a predetermined direction, - said pneumatic servo-actuator comprising a profiled body, a plurality of balls and corresponding elastic means which press said plurality of balls on the side surface of the profiled body.
A carbon fiber complex material for a carbon fiber reinforced plastic composite material, comprising: a carbon fiber material formed from a continuous carbon fiber; and carbon nanowalls formed on a surface of the continuous carbon fiber, wherein a length of the continuous carbon fiber is equal to or above 3 m. a carbon fiber material formed from a continuous carbon fiber; and carbon nanowalls formed on a surface of the continuous carbon fiber, wherein a length of the continuous carbon fiber is equal to or above 3 m.
A catching element of a male-female or male-male touch-and-close device which comprises a shank part and a catching part, the shank part extending along an axis transverse to a base band and the catching part protruding laterally from the shank part, characterized in that at least the catching part is made of a thermoplastic having a flexural modulus greater than a 1000 MPa, notably greater than 1200 MPa, particularly greater than 1500 MPa at 25°C, the catching element being produced by molding, notably injection molding, and when the thermogram for the hook is plotted, namely when differential scanning calorimetry is performed, an absence or near-absence of relaxation enthalpy in the vicinity of the glass transition is noticed at the first rise in temperature.
Comminution device with a rotor (1, 13) and with at least one counter cutter for the comminution of organic materials, soils, plant cultures or such like, wherein the organic material is comminutable and conveyable to a bin device by means of a rotor (1, 13), wherein the rotor is in particular implemented as a comminution rotor and is driven by its rotary direction with respect to the driving direction such that it takes in material, wherein the housing deflects or feeds the comminuted organic material into a bin device comprising a feeding device (10, 17) that is provided for continually or discontinually transporting away comminuted organic material, and wherein the comminution rotor and the bin device with integrated feeding device (10, 17) are spaced apart from each other, approximately parallel next to each other, wherein these are connected via a shared feeding channel, characterized in that the feeding device abuts the rotor as a transversal feed device comprising an bucket wheel and a transversal feeder as a screw conveyor or as a second bucket wheel in a plane, and that a rotary axis of the bucket wheel(s) is oriented approximately perpendicularly to the rotor axle (A R) and that the bucket wheel and the transversal feeder respectively the second bucket wheel are arranged in a plane perpendicular to the rotary axis.
An intermediate case structure for a gas turbine engine compressor, the intermediate case structure comprising: an intermediate case, a plurality of intermediate case struts joining the intermediate case to an inner engine structure, each strut of the plurality of intermediate case struts including a leading edge; characterized in that the intermediate case structure further comprises a turning scoop being disposed at the leading edge of each strut of the plurality of intermediate case struts, wherein the turning scoop includes an upstream-facing scoop inlet, the scoop inlet being offset substantially radially inwardly from the intermediate case and forming a second dirt separator downstream of a first dirt separator; a plurality of diffusers extending radially outwardly from the intermediate case, each diffuser of the plurality of diffusers being engaged with a corresponding turning scoop; a substantially annular structural fire wall extending radially outwardly from the intermediate case; and an environmental control system manifold being disposed on the intermediate case, the environmental control system manifold including an exit port. an intermediate case, a plurality of intermediate case struts joining the intermediate case to an inner engine structure, each strut of the plurality of intermediate case struts including a leading edge; characterized in that the intermediate case structure further comprises a turning scoop being disposed at the leading edge of each strut of the plurality of intermediate case struts, wherein the turning scoop includes an upstream-facing scoop inlet, the scoop inlet being offset substantially radially inwardly from the intermediate case and forming a second dirt separator downstream of a first dirt separator; a plurality of diffusers extending radially outwardly from the intermediate case, each diffuser of the plurality of diffusers being engaged with a corresponding turning scoop; a substantially annular structural fire wall extending radially outwardly from the intermediate case; and an environmental control system manifold being disposed on the intermediate case, the environmental control system manifold including an exit port.
A method for fabricating a semiconductor device, comprising: forming a first inter-metal dielectric, IMD, layer on a substrate; forming a first metal interconnection in the first IMD layer; forming a stop layer on the first IMD layer; forming a first opening in the stop layer to expose a portion the first metal interconnection; forming an electromigration enhancing layer in the first opening, wherein the electromigration enhancing layer comprises Ta, TaN, Ti, and/or TiN, and top surfaces of the electromigration enhancing layer and the stop layer are coplanar; forming a second IMD layer on the stop layer and the electromigration enhancing layer; forming a second metal interconnection and a third metal interconnection in the second IMD layer and on the electromigration enhancing layer; forming a magnetic tunneling junction, MTJ, stack on the second IMD layer; and etching the MTJ stack to form a first MTJ on the second metal interconnection and a second MTJ on the third metal interconnection, characterized in that the second IMD layer exposed from the first MTJ and second MTJ has a recessed curved top surface that is lower than top surfaces of the second metal interconnection and the third metal interconnection. forming a first inter-metal dielectric, IMD, layer on a substrate; forming a first metal interconnection in the first IMD layer; forming a stop layer on the first IMD layer; forming a first opening in the stop layer to expose a portion the first metal interconnection; forming an electromigration enhancing layer in the first opening, wherein the electromigration enhancing layer comprises Ta, TaN, Ti, and/or TiN, and top surfaces of the electromigration enhancing layer and the stop layer are coplanar; forming a second IMD layer on the stop layer and the electromigration enhancing layer; forming a second metal interconnection and a third metal interconnection in the second IMD layer and on the electromigration enhancing layer; forming a magnetic tunneling junction, MTJ, stack on the second IMD layer; and etching the MTJ stack to form a first MTJ on the second metal interconnection and a second MTJ on the third metal interconnection, characterized in that the second IMD layer exposed from the first MTJ and second MTJ has a recessed curved top surface that is lower than top surfaces of the second metal interconnection and the third metal interconnection.
Sheet processing method for sheets of paper, cardboard, plastic or the like, in which sheet processing method an input station for the provision of sheets for processing, a processing station for processing a sheet (31, 32) arranged therein, and an output station for the setting-down of processed sheets are provided one behind the other in a sheet transport path, and, repeatedly in series, • in the input station, a sheet for processing, and in the processing station, an already-processed sheet, are gripped by a sheet gripping device (21, 22, 23), • the sheet for processing is moved from the input station into the processing station and is set down, and the processed sheet is moved from the processing station into the output station and is set down, and • the sheet for processing is processed in the processing station, wherein • the sheet for processing is, in the processing station, firstly brought to a standstill and then set down, whereas • the processed sheet is, in the output station, set down from a moving state, and wherein the sheet gripping device (21, 22, 23) has at least two gripping elements (21, 22) which are controllable separately from one another. • in the input station, a sheet for processing, and in the processing station, an already-processed sheet, are gripped by a sheet gripping device (21, 22, 23), • the sheet for processing is moved from the input station into the processing station and is set down, and the processed sheet is moved from the processing station into the output station and is set down, and • the sheet for processing is processed in the processing station, wherein • the sheet for processing is, in the processing station, firstly brought to a standstill and then set down, whereas • the processed sheet is, in the output station, set down from a moving state, and wherein the sheet gripping device (21, 22, 23) has at least two gripping elements (21, 22) which are controllable separately from one another.
A method of plasma generation, comprising: a. applying to an igniter having at least a pair of electrodes (18, 20) a voltage of amplitude sufficient to cause breakdown to occur between the electrodes (18, 20), resulting in an electrical discharge in the igniter in an initiation region, and formation of a plasma kernel adjacent said initiation region; characterised by b. passing all of the discharge current from the igniter through a switching element (166, 166') in a discharge path of the igniter, wherein the discharge path represents a path via which the discharge current through a plasma between the pair of electrodes is configured to flow; and c. switching off the switching element (166, 166') while current therethrough is not zero. a. applying to an igniter having at least a pair of electrodes (18, 20) a voltage of amplitude sufficient to cause breakdown to occur between the electrodes (18, 20), resulting in an electrical discharge in the igniter in an initiation region, and formation of a plasma kernel adjacent said initiation region; characterised by b. passing all of the discharge current from the igniter through a switching element (166, 166') in a discharge path of the igniter, wherein the discharge path represents a path via which the discharge current through a plasma between the pair of electrodes is configured to flow; and c. switching off the switching element (166, 166') while current therethrough is not zero.
Pigmented aqueous basecoat material comprising a hydroxy-functional polyether-based reaction product which is preparable by urethane group-forming reaction of (a) at least one component containing isocyanate groups which is preparable by urethane group-forming reaction of at least one organic diisocyanate with at least one polyether of the general structural formula in which R is a C 3 to C 6 alkylene radical and n is selected accordingly such that the polyether (b) possesses a number-average molecular weight of 500 to 5000 g/mol, determined as specified in the description, the components and being used in a molar ratio of 1.8/1.7 to 3.0/1.0 and the resulting component (a) having an isocyanate content of 0.5 to 10.0%, with (b) at least one organic polyol, where the amounts of components (a) and (b) are harmonized with one another such that the ratio of the molar amount of isocyanate groups in component (a) to the molar amount of component (b) is in a range from 0.33 to 0.95 and the resulting reaction product has a number-average molecular weight of 700 to 20 000 g/mol, determined as specified in the description. (a) at least one component containing isocyanate groups which is preparable by urethane group-forming reaction of at least one organic diisocyanate with at least one polyether of the general structural formula in which R is a C 3 to C 6 alkylene radical and n is selected accordingly such that the polyether (b) possesses a number-average molecular weight of 500 to 5000 g/mol, determined as specified in the description, the components and being used in a molar ratio of 1.8/1.7 to 3.0/1.0 and the resulting component (a) having an isocyanate content of 0.5 to 10.0%, with (b) at least one organic polyol, where the amounts of components (a) and (b) are harmonized with one another such that the ratio of the molar amount of isocyanate groups in component (a) to the molar amount of component (b) is in a range from 0.33 to 0.95 and the resulting reaction product has a number-average molecular weight of 700 to 20 000 g/mol, determined as specified in the description.