mhurhangee/ep-ind-claims huggingface dataset:
Method to produce an electric functional layer on a surface of a substrate, on which at least one electronic component, in particular a semiconductor chip, is applied, whereby the electric functional layer is formed by blowing powder particles made of an electrically conductive material selectively onto the surface of the substrate so that they form a dense and strongly adhering layer on impact with the substrate and, before application of the electric functional layer, a sacrificial layer is applied to the surface of the substrate and to the electronic component, characterised in that the sacrificial layer is a metal layer, whereby the thickness is enough to absorb the kinetic energy of the particles and the sacrificial layer is applied directly to the exposed contact surfaces of the electronic component.
A terminal comprising: a transmission section configured to transmit an uplink, UL, signal; a control section configured to control transmission of the UL signal based on an UL grant from a radio base station and based on listening that is executed before the UL signal is transmitted, characterized in that when support is provided to transmit the UL signal from a time point in a symbol based on a result of listening, the time point being a first time length after a start of the symbol, and the first time length being shorter than a length of the symbol, the transmission section transmits the UL signal from the time point which is a second time after the UL grant is received. a transmission section configured to transmit an uplink, UL, signal; a control section configured to control transmission of the UL signal based on an UL grant from a radio base station and based on listening that is executed before the UL signal is transmitted, characterized in that when support is provided to transmit the UL signal from a time point in a symbol based on a result of listening, the time point being a first time length after a start of the symbol, and the first time length being shorter than a length of the symbol, the transmission section transmits the UL signal from the time point which is a second time after the UL grant is received.
A rotational speed control device comprising: a housing containing a viscous fluid; a shaft disposed in the housing and rotatable relative to the housing; a hub assembly (522, 523) secured to the shaft for rotation with the shaft; a rotor coupled with the shaft by way of the hub assembly (522, 523), wherein the rotor rotates with the shaft until a force on the rotor due to an increase in shearing of the viscous fluid exceeds a friction force between the rotor and the hub assembly (522, 523), resulting in rotation of the shaft and the hub assembly (522, 523) relative to the rotor; and a spring disposed in the housing and acting on the rotor, the spring biasing the rotor axially on the shaft in a low torque direction, wherein a braking torque between the rotor and the housing is varied according to an axial position of the rotor on the shaft, characterized in that the hub assembly (522, 523) comprises a hub member having hub threads, and wherein the rotor comprises a thread segment frictionally engaging the hub threads, the rotation of the shaft and the hub assembly (522, 523) relative to the rotor threading the rotor along the hub member against the bias of the spring. a housing containing a viscous fluid; a shaft disposed in the housing and rotatable relative to the housing; a hub assembly (522, 523) secured to the shaft for rotation with the shaft; a rotor coupled with the shaft by way of the hub assembly (522, 523), wherein the rotor rotates with the shaft until a force on the rotor due to an increase in shearing of the viscous fluid exceeds a friction force between the rotor and the hub assembly (522, 523), resulting in rotation of the shaft and the hub assembly (522, 523) relative to the rotor; and a spring disposed in the housing and acting on the rotor, the spring biasing the rotor axially on the shaft in a low torque direction, wherein a braking torque between the rotor and the housing is varied according to an axial position of the rotor on the shaft, characterized in that the hub assembly (522, 523) comprises a hub member having hub threads, and wherein the rotor comprises a thread segment frictionally engaging the hub threads, the rotation of the shaft and the hub assembly (522, 523) relative to the rotor threading the rotor along the hub member against the bias of the spring.
A method for evaluating a quality of a voice usage of a speaker, wherein an acoustic speech signal of the speaker is detected and converted into a digital speech signal, wherein the digital speech signal is analysed in its temporal progression in order a. to determine in the temporal course of the digital speech signal a time of the voice usage of the speaker, b. to determine a fundamental frequency of the speech signal at the time of voice usage, c. to determine from the digital speech signal in a predetermined time interval from the time of the voice usage the temporally resolved course of the energy contained in the speech signal at the fundamental frequency; d. to determine from the digital speech signal, temporally resolved in the predetermined time interval, the course of the energy contained in the speech signal at at least one harmonic multiple of the fundamental frequency; e. determine the temporal course of the ratio of the energies determined in steps c and d, characterised in that a soft use of voice is concluded if, in the time interval, the ratio of the energies determined in accordance with the preceding step e. is first dominated by the energy at the fundamental frequency and only in the further course of the predetermined time interval in a period of time At does the ratio of the energies shift in favour of the energy (energies) at the harmonic multiple(s) of the fundamental frequency. a. to determine in the temporal course of the digital speech signal a time of the voice usage of the speaker, b. to determine a fundamental frequency of the speech signal at the time of voice usage, c. to determine from the digital speech signal in a predetermined time interval from the time of the voice usage the temporally resolved course of the energy contained in the speech signal at the fundamental frequency; d. to determine from the digital speech signal, temporally resolved in the predetermined time interval, the course of the energy contained in the speech signal at at least one harmonic multiple of the fundamental frequency; e. determine the temporal course of the ratio of the energies determined in steps c and d,
Method for applying a seal (2, 102) to a plate, in particular a plate having shape defects, the method comprising the steps of: - providing a tool (4, 104), comprising at least one support element made of solid material (5, 105) comprising a recess (11, 111), and a support element made of flexible material (6, 106) comprising a first face and a second face opposite said first face, said support element made of flexible material (6, 106) being arranged at least partially in said recess (11, 111), - delimiting an edge of interest on a portion of the plate on which the seal (2, 102) must be applied, - placing the plate on the tool (4, 104) such that the edge of interest rests at least on said first face of said support element made of flexible material (6, 106), - holding the plate on the tool (4, 104) in a predetermined reference position, - applying said seal (2, 102) on the edge of interest, - removing the plate and the seal (2, 102) thereof applied from the tool (4, 104), and wherein the support element made of flexible material (6, 106) is capable of sliding in said recess (11, 111); the method further comprising the steps of: - providing means for exerting a pressure in a compensation chamber (12, 112) of said recess (11, 111), said compensation chamber (12, 112) being delimited at least partially by said second face of said support element made of flexible material (6, 106); and of - applying via said means, a pressure during the application of the seal (2, 102), and perpendicularly to said second face, such that the element made of flexible material (6, 106) is pushed against the plate. - providing a tool (4, 104), comprising at least one support element made of solid material (5, 105) comprising a recess (11, 111), and a support element made of flexible material (6, 106) comprising a first face and a second face opposite said first face, said support element made of flexible material (6, 106) being arranged at least partially in said recess (11, 111), - delimiting an edge of interest on a portion of the plate on which the seal (2, 102) must be applied, - placing the plate on the tool (4, 104) such that the edge of interest rests at least on said first face of said support element made of flexible material (6, 106), - holding the plate on the tool (4, 104) in a predetermined reference position, - applying said seal (2, 102) on the edge of interest, - removing the plate and the seal (2, 102) thereof applied from the tool (4, 104), - providing means for exerting a pressure in a compensation chamber (12, 112) of said recess (11, 111), said compensation chamber (12, 112) being delimited at least partially by said second face of said support element made of flexible material (6, 106); and of - applying via said means, a pressure during the application of the seal (2, 102), and perpendicularly to said second face, such that the element made of flexible material (6, 106) is pushed against the plate.
A method for removing phosphorus from a phosphorus-containing substance in which the phosphorus-containing substance that is used as a raw material for metal smelting or metal refining is reacted with a nitrogen-containing gas so that phosphorus in the phosphorus-containing substance is removed through nitriding, characterized in that prior to a nitriding removal of phosphorus from the phosphorus-containing substance, a reduction treatment is performed in which the phosphorus-containing substance is heated to an unmolten state temperature range so as to react with a reducing agent, thereby reducing at least a part of metal oxide in the phosphorus-containing substance, wherein a reduction ratio of iron oxide and manganese oxide in the phosphorus-containing substance at an end of the reduction treatment is set to not less than 11% and less than 33%, wherein the iron oxide represents any of or a mixture of FeO, Fe 3 O 4, and Fe 2 O 3, the manganese oxide represents any of or a mixture of MnO, Mn 3 O 4, Mn 2 O 3, and MnO 2, and the reduction ratio refers to a ratio of an amount of oxygen removed by reduction to total oxygen in the iron oxide and the manganese oxide, wherein the reducing agent is a reducing gas or a solid reducing agent, and wherein the reduction treatment using the reducing gas is performed in a range of Expression below: [Expression 2] 1.5 ≦ x × Q ≦ 6.0 wherein x denotes twice (-) a volume ratio of an oxygen gas in a standard state required for complete combustion of a unit volume of the reducing gas in the standard state, and Q denotes an amount of the reducing gas (Nm 3 /kg) used for the reduction treatment with respect to a total amount of the iron oxide and the manganese oxide in the phosphorus-containing substance. prior to a nitriding removal of phosphorus from the phosphorus-containing substance, a reduction treatment is performed in which the phosphorus-containing substance is heated to an unmolten state temperature range so as to react with a reducing agent, thereby reducing at least a part of metal oxide in the phosphorus-containing substance, wherein a reduction ratio of iron oxide and manganese oxide in the phosphorus-containing substance at an end of the reduction treatment is set to not less than 11% and less than 33%, wherein the iron oxide represents any of or a mixture of FeO, Fe 3 O 4, and Fe 2 O 3, the manganese oxide represents any of or a mixture of MnO, Mn 3 O 4, Mn 2 O 3, and MnO 2, and the reduction ratio refers to a ratio of an amount of oxygen removed by reduction to total oxygen in the iron oxide and the manganese oxide, wherein the reducing agent is a reducing gas or a solid reducing agent, and wherein the reduction treatment using the reducing gas is performed in a range of Expression below: [Expression 2] 1.5 ≦ x × Q ≦ 6.0 wherein x denotes twice (-) a volume ratio of an oxygen gas in a standard state required for complete combustion of a unit volume of the reducing gas in the standard state, and Q denotes an amount of the reducing gas (Nm 3 /kg) used for the reduction treatment with respect to a total amount of the iron oxide and the manganese oxide in the phosphorus-containing substance.
A filter element comprising: (a) a construction of pleated filter media defining an interior volume; the construction of pleated filter media having first and second opposing interior faces (64, 66); (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) a support structure operably oriented in the interior volume; wherein the support structure bridges the interior volume from the first opposing interior face to the second opposing interior face; wherein the support structure comprises a plurality of molded spacers; and wherein the spacers comprise molded polyurethane. (a) a construction of pleated filter media defining an interior volume; the construction of pleated filter media having first and second opposing interior faces (64, 66); (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) a support structure operably oriented in the interior volume; wherein the support structure bridges the interior volume from the first opposing interior face to the second opposing interior face; wherein the support structure comprises a plurality of molded spacers; and wherein the spacers comprise molded polyurethane.
An eye tracking device comprising one or more illuminators, each illuminator comprising a light emitting side, and each illuminator being connected to a first circuitry carrier, an imaging module connected to a second circuitry carrier, the imaging module comprising optical arrangements, characterised in that the plurality of illuminators, the imaging module and the circuitry carriers (4, 9) are embedded without gaps in a first material, wherein, if the first material is not transparent to the irradiation from the illuminators and/or the irradiation detected by the imaging module, the first material comprises openings such that the light emitting sides of the illuminators and/or the optical arrangements of the imaging module are not covered by first material. one or more illuminators, each illuminator comprising a light emitting side, and each illuminator being connected to a first circuitry carrier, an imaging module connected to a second circuitry carrier, the imaging module comprising optical arrangements, characterised in that the plurality of illuminators, the imaging module and the circuitry carriers (4, 9) are embedded without gaps in a first material, wherein, if the first material is not transparent to the irradiation from the illuminators and/or the irradiation detected by the imaging module, the first material comprises openings such that the light emitting sides of the illuminators and/or the optical arrangements of the imaging module are not covered by first material.
A method of producing a protein comprising a formylglycine residue, the method comprising: combining a formylglycine-generating enzyme with a protein comprising an FGE recognition site and Cu 2+ to activate the FGE, under conditions in which the activated FGE converts a cysteine residue or a serine residue of the FGE recognition site to a formylglycine residue, to produce a protein comprising a formylglycine residue.
A juice extracting screw assembly, comprising: a hollow drum 100; and a screw assembly 200 disposed inside the hollow drum 100, wherein the screw assembly 200 comprises: an upper assembly part 250 in which an extracting blade 251 is formed; and a lower assembly part 270 capable of being assembled on and dissembled from the upper part 250 of the juice extracting screw assembly, characterized in that the lower assembly part 270 comprises a lower body 275 having a plurality of openings, and a mesh net 276 capable of being attached to and detached from the lower body 275; or the lower assembly part 270 comprises a mesh net 276 disposed in the lower assembly part 270, and the lower assembly part 270 and the mesh net 276 are integrally manufactured. a hollow drum 100; and a screw assembly 200 disposed inside the hollow drum 100, wherein the screw assembly 200 comprises: an upper assembly part 250 in which an extracting blade 251 is formed; and a lower assembly part 270 capable of being assembled on and dissembled from the upper part 250 of the juice extracting screw assembly, characterized in that the lower assembly part 270 comprises a lower body 275 having a plurality of openings, and a mesh net 276 capable of being attached to and detached from the lower body 275; or the lower assembly part 270 comprises a mesh net 276 disposed in the lower assembly part 270, and the lower assembly part 270 and the mesh net 276 are integrally manufactured. an upper assembly part 250 in which an extracting blade 251 is formed; and a lower assembly part 270 capable of being assembled on and dissembled from the upper part 250 of the juice extracting screw assembly, characterized in that the lower assembly part 270 comprises a lower body 275 having a plurality of openings, and a mesh net 276 capable of being attached to and detached from the lower body 275; or the lower assembly part 270 comprises a mesh net 276 disposed in the lower assembly part 270, and the lower assembly part 270 and the mesh net 276 are integrally manufactured.
A spinal implant, in particular for the thoracic and lumbar spine, comprising an implant body having two branches (26, 27) between which an expansion element is provided, the implant body being insertable between two vertebral bodies (12, 13), the spinal implant comprising at least one element permitting anchoring on/in or between the vertebral pedicles or the spinal fusion system or the pedicle screw system, and an adjusting element being provided which is operable to spread the branches (26, 27) apart, and the anchoring element being a screw, a sleeve, a strap or a cord connectable to the implant body, characterised in that said implant body is wedge-shaped and said adjusting element is at least partly surrounded by said anchoring element.
A method for preparing a supported palladium-gold catalyst, said method comprising a) sulfating a titanium dioxide support and introducing from 0.1 wt% to 1.0 wt% of sulfur to the support; b) calcining the sulfated support at a temperature within the range of 600°C to900°C; c) impregnating the calcined support with a palladium salt, a gold salt, and an alkali metal or ammonium compound; d) calcining the impregnated support in a non-reducing atmosphere; at a temperature within the range of 100°C to 300°C; and e) reducing the calcined support from step (d) to form the supported palladium-gold catalyst. a) sulfating a titanium dioxide support and introducing from 0.1 wt% to 1.0 wt% of sulfur to the support; b) calcining the sulfated support at a temperature within the range of 600°C to900°C; c) impregnating the calcined support with a palladium salt, a gold salt, and an alkali metal or ammonium compound; d) calcining the impregnated support in a non-reducing atmosphere; at a temperature within the range of 100°C to 300°C; and e) reducing the calcined support from step (d) to form the supported palladium-gold catalyst.
Machine tool separating device, in particular manual machine tool separating device, having at least one cutting strand and having at least one guide unit, wherein the cutting strand, as seen along a direction running at least substantially perpendicular to a cutting plane of the cutting strand, has a maximum dimension (x) smaller than 4 mm, characterized in that the cutting strand has a multiplicity of blade carrier elements (34, 36, 38, 40) which are connected to one another by means of one of the connecting elements (42, 44, 46), wherein the connecting element is formed in the shape of a bolt and in one piece with a blade carrier element, wherein the connecting element (42, 44, 46) protrudes along the central axis (48, 50, 52) of the bolt-shaped connecting element (42, 44, 46).
An In-phase/Quadrature phase, I/Q, mismatch compensation method of a transceiver, the method comprising: establishing a first loopback path between a transmitter and a receiver; transmitting a first training sequence from the transmitter to the receiver through the established first loopback path; acquiring, at the receiver, a first correlation result value by correlating the first training sequence received through the established first loopback path; establishing a second loopback path between the transmitter and the receiver; transmitting a second training sequence from the transmitter to the receiver through the established second loopback path; acquiring, at the receiver, a second correlation result value by correlating the second training sequence received through the second loopback path; and estimating I/Q mismatch values of the transmitter and the receiver using the first and second correlation result values, wherein the first loopback path is established by turning on a first switch interposed between an output node of a first module of the transmitter and an input node of a first module of the receiver and turning off a second switch interposed between an output node of a second module of the transmitter and an input node of a second module of the receiver, and the second loopback path is established by turning off the first switch and turning on the second switch. establishing a first loopback path between a transmitter and a receiver; transmitting a first training sequence from the transmitter to the receiver through the established first loopback path; acquiring, at the receiver, a first correlation result value by correlating the first training sequence received through the established first loopback path; establishing a second loopback path between the transmitter and the receiver; transmitting a second training sequence from the transmitter to the receiver through the established second loopback path; acquiring, at the receiver, a second correlation result value by correlating the second training sequence received through the second loopback path; and estimating I/Q mismatch values of the transmitter and the receiver using the first and second correlation result values, wherein the first loopback path is established by turning on a first switch interposed between an output node of a first module of the transmitter and an input node of a first module of the receiver and turning off a second switch interposed between an output node of a second module of the transmitter and an input node of a second module of the receiver, and the second loopback path is established by turning off the first switch and turning on the second switch.
A crash box comprising two generally U-shaped members (11, 12), one upper and one lower member, having legs (11a, 12a) and provided at respective leg with at least two adjacent trigger means and an intermediate portion formed between said trigger means, said upper and lower members (11, 12) being welded together at areas along a trim edge of respective legs (11a, 12a) of the U-shaped members (11, 12) except for the trim edge formed between respective legs (11a, 12a) of respective trigger means so as to form a longitudinal extending generally hollow crash box having a cross-section in the form of a quadrangle and having aligned trigger means and intermediate portion, said trigger means being arranged normal to said longitudinal extending crash box, wherein the intermediate portion of respective leg (11a, 12a) being welded together at the trim edge thereof by a weld bead (20; 20'; 20"), characterized in that said weld bead (20; 20'; 20") has a length which is longer that the shortest length between two adjacent trigger means.