mhurhangee/ep-ind-claims huggingface dataset:
Sound pick-up system including at least one acoustic sensor, and an anti-wind cap surrounding the acoustic sensor, the anti-wind cap including a foam layer having sound insulation properties covered on its outer surface with a water-proof film and impervious to environmental particles, the sound pick-up system being characterized in that the sealing film comprises two layers (13, 14) of polyurethane resin deposited in succession, and in that the anti-wind cap has a general hemispherical shape and is attached on a base so as to form with it a sealing compartment inside which is placed the acoustic sensor, and in that the foam layer of the anti-wind cap is shaped by thermoforming.
Use of a kit of magnets suitable for supporting kitchen objects on a surface, the kit of magnets comprising a first supporting magnet (Ml) suitable for being fixed on the surface and at least a pair of magnets comprising a second magnet and third magnet wherein, in use: - a kitchen object is supported between the pair of magnets comprising the second magnet and the third magnet; - the pair of magnets comprising the second magnet and the third magnet and the kitchen object is supported by the magnetic attraction force of the first supporting magnet (Ml) acting through said surface; and - when the pair of magnets comprising the second magnet and the third magnet and the kitchen object is detached from said surface, the pair of magnets (M2, M3) comprising the second magnet and the third magnet remain connected to each other, characterized in that the size of the magnetic attraction surface of the first supporting magnet is calibrated to support one or more magnets, or one or more pairs of magnets (M2,M3) in such a way that by detaching the kitchen object supported between the pair of magnets (M2,M3), the pair of magnets (M2, M3) remains connected to each other and is disconnected from the supporting magnet. - a kitchen object is supported between the pair of magnets comprising the second magnet and the third magnet; - the pair of magnets comprising the second magnet and the third magnet and the kitchen object is supported by the magnetic attraction force of the first supporting magnet (Ml) acting through said surface; and - when the pair of magnets comprising the second magnet and the third magnet and the kitchen object is detached from said surface, the pair of magnets (M2, M3) comprising the second magnet and the third magnet remain connected to each other,
A signal acquisition circuitry for performing correlated double sampling, CDS, on a differential input signal, having components Vx and Vy, for low power signal processing, the circuitry comprising: an amplifier, including or coupled to a feedback network configured to provide a closed-loop gain around the amplifier, the feedback network including or coupled to a storage capacitor (Ci), the amplifier being configured to provide gain between first and second amplifier inputs and an amplifier output, the storage capacitor (Ci) being located between the second amplifier input and a ground or other reference node; an initialization switch being located between the amplifier output and the second amplifier input, the initialization switch being arranged to initialize the storage capacitor (Ci) before the CDS of the differential input signal; control circuitry, configured to control operation of a multiplexer to sequentially couple the components Vx and Vy to the first amplifier input for respective first and second samplings of the CDS, the CDS of the differential input signal including settling and analog-to-digital sampling of each of the components Vx and Vy before reinitializing the storage capacitor (Ci) for a successive CDS sampling instance; and an analog-to-digital converter, ADC,, coupled to the amplifier output, and wherein the control circuitry is configured to control the ADC to perform analog-to-digital conversions of amplifier output samples of Vx and Vy for differencing of the digital representations of Vx and Vy to provide the correlation of the CDS in the digital domain. an amplifier, including or coupled to a feedback network configured to provide a closed-loop gain around the amplifier, the feedback network including or coupled to a storage capacitor (Ci), the amplifier being configured to provide gain between first and second amplifier inputs and an amplifier output, the storage capacitor (Ci) being located between the second amplifier input and a ground or other reference node; an initialization switch being located between the amplifier output and the second amplifier input, the initialization switch being arranged to initialize the storage capacitor (Ci) before the CDS of the differential input signal; control circuitry, configured to control operation of a multiplexer to sequentially couple the components Vx and Vy to the first amplifier input for respective first and second samplings of the CDS, the CDS of the differential input signal including settling and analog-to-digital sampling of each of the components Vx and Vy before reinitializing the storage capacitor (Ci) for a successive CDS sampling instance; and an analog-to-digital converter, ADC,, coupled to the amplifier output, and wherein the control circuitry is configured to control the ADC to perform analog-to-digital conversions of amplifier output samples of Vx and Vy for differencing of the digital representations of Vx and Vy to provide the correlation of the CDS in the digital domain.
A pallet changing apparatus provided with a turning shaft supporting pallet changing arms transferring a pallet (P, P') between a pallet setup base and a table in such a manner so as to move freely at a vertical direction and also in a state of being stationary at a horizontal direction, said apparatus comprising said table being configured to move back and forth to a side of the turning shaft and being provided with a rising portion at a leading end of the table on the side of the turning shaft and an oscillating portion which is supported so as to oscillate freely around an oscillating center axis of the rising portion and configured to place a workpiece (W, W') by means of a pallet (P, P'), wherein the pallet changing arms extend on both sides of the turning shaft, the pallet changing arms being provided with a bridging extending portion which bridges a pallet supporting portion extending in the horizontal direction for transferring a pallet (P, P') with a side of the turning shaft, and the bridging extending portion forms a shape of covering across an upper side of the rising portion at a stage of the table transferring a pallet (P, P'), wherein the rising portion is arranged to exist at the vicinity of the surface of the turning shaft at the stage in which the rising portion is set to be closest to the turning shaft to achieve that the table transfers the pallet (P, P').
A method in a user equipment for handling a radio receiver comprised in the user equipment, the radio receiver is adapted to receive signals from a first network over a radio link, the user equipment comprises a battery, the method comprising steps of: - detecting an increased power consumption of the battery in the user equipment, - increasing the receiver activity level based on the detected increase of battery power consumption. - detecting an increased power consumption of the battery in the user equipment, - increasing the receiver activity level based on the detected increase of battery power consumption.
A shelving system comprising at least one back panel and at least one block element (40, 40 I, 40 II, 40 III, 40 IV, 40 V), the back panel comprises a substantially planar surface, and where the at least one block element is mounted on the back panel, wherein the back panel comprises at least two areas, a first area of the at least one back panel comprising protrusions; the protrusions being of cylindrical shape, mutually identical and positioned on the planar surface in grid points of a regular two dimensional grid; and a second area of the at least one back panel, which is free from the protrusions of cylindrical shape, and comprising the at least one block element (40, 40 I, 40 II, 40 III, 40 IV, 40 V), the block element extending in a distance corresponding to one or multiple of a standard module size in a plane parallel to the planar surface of the back panel in two mutually perpendicular directions defined by grid points of a regular two dimensional grid wherein the the standard module sizes is defined by the distance between grid points of a two dimensional grid, characterized in that the outer surface of the block element comprises a cladding, which is formed in plastic, and wherein the cladding comprises one or more indentations (47, 57), the indentations (47, 57) adapted to divide the block element visually into modular parts in all three mutually perpendicular directions, such that each modular part is fully or partly outlined by indentations (47, 57) in a direction perpendicular to the planar surface and in a direction parallel to the planar surface, the indentations (47, 57) are interposed intermediate the grid points of the regular grids.
Control actuator for an internal combustion engine, comprising: - an electric motor having an output shaft functionally connected to a drive pinion, the electric motor driving gearing made up of a first gearwheel connected to the output shaft of the electric motor and which meshes with a toothset of a drive pinion of diameter greater than that of the gearwheel, the drive pinion rotating about an axis of rotation and meshing with a rack which is connected in a substantially linear manner along a longitudinal axis of translation to a member that is to be moved, the movement of the end of the member that is to be moved, which end is connected to the rack, being in an arc of a circle, - guide means (5, 15, 16, 17) for guiding the rack relative to the drive pinion and arranged to allow the rack an angle of inclination about an axis parallel to the axis of rotation of the drive pinion, characterized in that the guide means (5, 15, 16, 17) for guiding the rack on the drive pinion comprise at least one bearing means (5, 15, 16, 17) pressing against a face (4.4) of the rack that is the opposite face to the face that meshes with the drive pinion. - an electric motor having an output shaft functionally connected to a drive pinion, the electric motor driving gearing made up of a first gearwheel connected to the output shaft of the electric motor and which meshes with a toothset of a drive pinion of diameter greater than that of the gearwheel, the drive pinion rotating about an axis of rotation and meshing with a rack which is connected in a substantially linear manner along a longitudinal axis of translation to a member that is to be moved, the movement of the end of the member that is to be moved, which end is connected to the rack, being in an arc of a circle, - guide means (5, 15, 16, 17) for guiding the rack relative to the drive pinion and arranged to allow the rack an angle of inclination about an axis parallel to the axis of rotation of the drive pinion,
Connector for a data cable, with a) a base body, which is applied to a cable harness of the data cable, in which the cable side end of the connector is in the rear and the free end of the connector in front, b) a shield sheet, which is applied to the base body, and c) a protecting unit, which covers at least partially the shield sheet and/or the cable harness, d) a catch, which is arranged at the shield sheet in the rear and which closes the shield sheet at its open rear front side as to the protecting unit, e) a ring as a rear end of the shield sheet, surrounding a section of the cable harness freed from the insulating jacket and contacting an exposed cable shield of the cable harness, characterised in that f) the catch by means of concave sections protruding inwards hits the ring and completely covers the open rear front side of the shield sheet until the cable shield. a) a base body, which is applied to a cable harness of the data cable, in which the cable side end of the connector is in the rear and the free end of the connector in front, b) a shield sheet, which is applied to the base body, and c) a protecting unit, which covers at least partially the shield sheet and/or the cable harness, d) a catch, which is arranged at the shield sheet in the rear and which closes the shield sheet at its open rear front side as to the protecting unit, e) a ring as a rear end of the shield sheet, surrounding a section of the cable harness freed from the insulating jacket and contacting an exposed cable shield of the cable harness, f) the catch by means of concave sections protruding inwards hits the ring and completely covers the open rear front side of the shield sheet until the cable shield.
A feederhouse assembly for an agricultural harvester, the feederhouse assembly comprising: a feederhouse comprising an inlet end; a rotational shaft coupled to the feederhouse; and a frame adjacent the inlet end and arranged to pivot about the rotational shaft relative to the feederhouse, the frame defining a crop opening therethrough and configured to carry a harvesting header, wherein the rotational shaft defines a plurality of fluid passages therethrough, characterized in that the fluid passages are configured to be connected to a pressurized fluid source carried by the agricultural harvester. a feederhouse comprising an inlet end; a rotational shaft coupled to the feederhouse; and a frame adjacent the inlet end and arranged to pivot about the rotational shaft relative to the feederhouse, the frame defining a crop opening therethrough and configured to carry a harvesting header, wherein the rotational shaft defines a plurality of fluid passages therethrough, characterized in that the fluid passages are configured to be connected to a pressurized fluid source carried by the agricultural harvester.
A method of producing foam, comprising: producing foam by kneading and injection molding a first extrudate and a second extrudate, wherein the first extrudate is obtained by extruding a first composition comprising an aromatic vinyl resin and the second extrudate is obtained by extruding a second composition comprising a polyamide resin and a foaming agent, characterized in that the aromatic vinyl resin is a copolymer of an aromatic vinyl monomer and maleic anhydride, and wherein the foaming agent does not react with the polyamide resin of the second composition and reacts with the aromatic vinyl resin of the first extrudate to form the foam. producing foam by kneading and injection molding a first extrudate and a second extrudate, wherein the first extrudate is obtained by extruding a first composition comprising an aromatic vinyl resin and the second extrudate is obtained by extruding a second composition comprising a polyamide resin and a foaming agent, characterized in that the aromatic vinyl resin is a copolymer of an aromatic vinyl monomer and maleic anhydride, and wherein the foaming agent does not react with the polyamide resin of the second composition and reacts with the aromatic vinyl resin of the first extrudate to form the foam.
Method for manufacturing a perforated plug (150; 200; 300) for a control valve, the control valve being capable of controlling the flow of a fluid; 1.1 wherein the perforated plug (150; 200; 300) is cup-shaped and 1.2 has openings (170; 220) in its lateral wall through which the fluid is able to flow; 1.3 wherein the openings (170; 220) are arranged on at least one helical line on the lateral wall of the perforated plug (150; 200; 300); 1.4 wherein the openings (170; 220) and the helical lines are arranged such 1.4.1 that the ratio between the maximum web width and the minimum web width between adjacent openings (170; 220) is greater than or equal to 1 and less than or equal to 1.5; 1.4.2 that the arrangement of openings (170; 220) and helical lines is chosen in which the number of helical lines is minimized; 1.5 wherein the following boundary conditions are given: 1.5.1 a predefined inner diameter of the perforated plug (150; 200; 300); 1.5.2 a predefined diameter of the openings (170; 220); 1.5.3 a predefined minimum web width between the openings (170; 220); 1.6 wherein openings (170; 220) are determined before manufacture of the perforated plug (150; 200; 300) that are to be omitted during the manufacture such that the perforated plug (150; 200; 300) exhibits an equal percentage course of the flow characteristic of the control valve; 1.7 manufacture of a perforated plug (150; 200; 300) with the thus determined openings (170; 220) on at least one helical line. 1.1 wherein the perforated plug (150; 200; 300) is cup-shaped and 1.2 has openings (170; 220) in its lateral wall through which the fluid is able to flow; 1.3 wherein the openings (170; 220) are arranged on at least one helical line on the lateral wall of the perforated plug (150; 200; 300); 1.4 wherein the openings (170; 220) and the helical lines are arranged such 1.4.1 that the ratio between the maximum web width and the minimum web width between adjacent openings (170; 220) is greater than or equal to 1 and less than or equal to 1.5; 1.4.2 that the arrangement of openings (170; 220) and helical lines is chosen in which the number of helical lines is minimized; 1.5 wherein the following boundary conditions are given: 1.5.1 a predefined inner diameter of the perforated plug (150; 200; 300); 1.5.2 a predefined diameter of the openings (170; 220); 1.5.3 a predefined minimum web width between the openings (170; 220); 1.5.1 a predefined inner diameter of the perforated plug (150; 200; 300); 1.5.2 a predefined diameter of the openings (170; 220); 1.5.3 a predefined minimum web width between the openings (170; 220); 1.6 wherein openings (170; 220) are determined before manufacture of the perforated plug (150; 200; 300) that are to be omitted during the manufacture such that the perforated plug (150; 200; 300) exhibits an equal percentage course of the flow characteristic of the control valve; 1.7 manufacture of a perforated plug (150; 200; 300) with the thus determined openings (170; 220) on at least one helical line.
A tensioning device for a rotary cutting apparatus comprising: a body (2,9,15); a tip portion (1,11,17) adjacent the body; the device having an unsymmetrical profile characterized by the device comprising at least one vacuum orifice (19,71,73) extending from at least part of the tip portion through the body. a body (2,9,15); a tip portion (1,11,17) adjacent the body; the device having an unsymmetrical profile characterized by the device comprising at least one vacuum orifice (19,71,73) extending from at least part of the tip portion through the body.
A method of providing a document using a secure bar code from a first computing device to a second computing device which includes a bar code reader, the method comprising: encrypting, via the first computing device, the document to generate an encrypted document; scrambling together, via the first computing device, bits for a security credential with bits for the encrypted document to generate a set of mixed bits having a predetermined order, wherein the security credential is for decrypting the encrypted document; providing, to the second computing device, scrambling information that specifies the predetermined order, where the scrambling information is a shared secret between the first computing device and the second computing device; generating a secure bar code by inserting, via the first computing device, the set of mixed bits; and outputting the secure bar code, wherein the second computing device knows the predetermined order and is configured to read the secure bar code using the bar code reader, un-scramble the mixed bits based on the scrambling information that specifies the predetermined order, and decrypt the encrypted document with the security credential. encrypting, via the first computing device, the document to generate an encrypted document; scrambling together, via the first computing device, bits for a security credential with bits for the encrypted document to generate a set of mixed bits having a predetermined order, wherein the security credential is for decrypting the encrypted document; providing, to the second computing device, scrambling information that specifies the predetermined order, where the scrambling information is a shared secret between the first computing device and the second computing device; generating a secure bar code by inserting, via the first computing device, the set of mixed bits; and outputting the secure bar code, wherein the second computing device knows the predetermined order and is configured to read the secure bar code using the bar code reader, un-scramble the mixed bits based on the scrambling information that specifies the predetermined order, and decrypt the encrypted document with the security credential.
A mixed-plastic polypropylene blend having (i) a density determined according to DIN EN ISO 1183 of 900 to less than 924 kg/m 3; (ii) a soluble fraction content determined according to CRYSTEX QC analysis in the range from 3.0 to 12.0 wt.-%, wherein CRYSTEX QC analysis is carried out on basis of ISO 6427 Annex B: 1992 as described in the experimental part of the specification, whereby (iii) said soluble fraction has an ethylene-propylene rubber content as expressed by equation of less than 7.0 wt.-%, where the EPR corresponds to the fraction with a molar mass higher than logM of 3.5 to 8 of the soluble fraction in TCB at 35°C obtained by Cross Fractionation Chromatography analysis EPR fraction in wt. − % = ∑ j = 3.5 8 H j ∑ j = 2 8 H j ∗ SF wherein Hj denotes the signal height at logM value j, and wherein Cross Fractionation Chromatography analysis is carried out as described in the experimental part of the specification; and (iv) said soluble fraction has an intrinsic viscosity (iV) in the range from 1.10 to below 1.50 dl/g, preferably 1.25 to 1.45 dl/g, wherein the intrinsic viscosity is determined by CRYSTEX QC analysis on basis of ISO 6427 Annex B: 1992 as described in the experimental part of the specification; and whereby (v) the mixed-plastic polypropylene blend has inorganic residues as measured by calcination analysis according to DIN ISO 1172:1996 of 0.05 to 3.0 wt.-%, preferably 0.05 to 2.5 wt.-%, optionally 0.5 to 2.0 wt.-% with respect to the mixed-plastic polypropylene blend; and wherein the mixed-plastic polypropylene blend is a recycled material. (i) a density determined according to DIN EN ISO 1183 of 900 to less than 924 kg/m 3; (ii) a soluble fraction content determined according to CRYSTEX QC analysis in the range from 3.0 to 12.0 wt.-%, wherein CRYSTEX QC analysis is carried out on basis of ISO 6427 Annex B: 1992 as described in the experimental part of the specification, whereby (iii) said soluble fraction has an ethylene-propylene rubber content as expressed by equation of less than 7.0 wt.-%, where the EPR corresponds to the fraction with a molar mass higher than logM of 3.5 to 8 of the soluble fraction in TCB at 35°C obtained by Cross Fractionation Chromatography analysis EPR fraction in wt. − % = ∑ j = 3.5 8 H j ∑ j = 2 8 H j ∗ SF wherein Hj denotes the signal height at logM value j, and wherein Cross Fractionation Chromatography analysis is carried out as described in the experimental part of the specification; and (iv) said soluble fraction has an intrinsic viscosity (iV) in the range from 1.10 to below 1.50 dl/g, preferably 1.25 to 1.45 dl/g, wherein the intrinsic viscosity is determined by CRYSTEX QC analysis on basis of ISO 6427 Annex B: 1992 as described in the experimental part of the specification; and whereby (v) the mixed-plastic polypropylene blend has inorganic residues as measured by calcination analysis according to DIN ISO 1172:1996 of 0.05 to 3.0 wt.-%, preferably 0.05 to 2.5 wt.-%, optionally 0.5 to 2.0 wt.-% with respect to the mixed-plastic polypropylene blend; and