mhurhangee/ep-ind-claims huggingface dataset:
Dynamic exterior aircraft light unit, capable of emitting light in accordance with at least two light emission distributions for illuminating different sectors of an aircraft environment, the dynamic aircraft light unit comprising: a plurality of LEDs, with at least two subsets of the plurality of LEDs being separately controllable, with each of the at least two subsets being associated with a respective one of the at least two light emission distributions, an optical system for transforming light output from the plurality of LEDs into the at least two light emission distributions, a control unit for controlling the plurality of LEDs, and a photo detector arranged to detect light, emitted by the dynamic exterior aircraft light unit as part of the at least two light emission distributions and reflected by the aircraft environment, and configured to output a light detection signal, wherein the control unit is coupled to the photo detector for receiving the light detection signal, is configured to determine a distance to the aircraft environment reflecting the light, and is configured to switch between the at least two subsets of the plurality of LEDs as a response to the distance determined. a plurality of LEDs, with at least two subsets of the plurality of LEDs being separately controllable, with each of the at least two subsets being associated with a respective one of the at least two light emission distributions, an optical system for transforming light output from the plurality of LEDs into the at least two light emission distributions, a control unit for controlling the plurality of LEDs, and a photo detector arranged to detect light, emitted by the dynamic exterior aircraft light unit as part of the at least two light emission distributions and reflected by the aircraft environment, and configured to output a light detection signal, wherein the control unit is coupled to the photo detector for receiving the light detection signal, is configured to determine a distance to the aircraft environment reflecting the light, and is configured to switch between the at least two subsets of the plurality of LEDs as a response to the distance determined.
Process for the detection of defects, in particular holes, in blow mouldings, - wherein, during the production of the blow moulding in the blow mould, a leakage-air quantity (10, 10'), which forms on account of the excess blow moulding pressure present upon flow through the defect(s), is measured, and - wherein, using the leakage-air quantity (10, 10'), a conclusion is drawn as to the presence of defects in the blow moulding, characterized in that openings, through which the leakage air flows, are provided in the blow mould at different locations spaced apart on the blow moulding, and in that, using the leakage-air quantity (10, 10'), a conclusion is drawn as to the size and/or the number of the defects. - wherein, during the production of the blow moulding in the blow mould, a leakage-air quantity (10, 10'), which forms on account of the excess blow moulding pressure present upon flow through the defect(s), is measured, and - wherein, using the leakage-air quantity (10, 10'), a conclusion is drawn as to the presence of defects in the blow moulding,
A method for a user equipment, UE, performing cell activation, the method comprising: receiving a duplication activation command for a first duplicate radio bearer, RB; activating duplication for the first duplicate RB based on the duplication activation command, wherein the first duplicate RB includes a first RLC entity and a second RLC entity, the first RLC entity is associated with a first cell being mapped to the first duplicate RB, and the second RLC entity is associated with a second cell being mapped to the first duplicate RB; characterized by checking whether the first cell and the second cell are activated or de-activated; based on the first cell is deactivated and the second cell is activated, activating the first cell without receiving an activation/deactivation MAC CE for the first cell; and duplicating packet data convergence protocol, PDCP, protocol data unit, PDU, of the first duplicate RB. receiving a duplication activation command for a first duplicate radio bearer, RB; activating duplication for the first duplicate RB based on the duplication activation command, wherein the first duplicate RB includes a first RLC entity and a second RLC entity, the first RLC entity is associated with a first cell being mapped to the first duplicate RB, and the second RLC entity is associated with a second cell being mapped to the first duplicate RB; characterized by checking whether the first cell and the second cell are activated or de-activated; based on the first cell is deactivated and the second cell is activated, activating the first cell without receiving an activation/deactivation MAC CE for the first cell; and duplicating packet data convergence protocol, PDCP, protocol data unit, PDU, of the first duplicate RB.
A method for monitoring a brake (400, 502) that comprises: first and second braking surfaces (204, 206), and magnetizing means arranged to move the braking surfaces (204, 206) to an open state, in which the braking surfaces (204, 206) are separated from each other, and to a closed state, in which the braking surfaces (204, 206) are connected to each other, characterized in that the method comprises: measuring the time that elapses from the change in the magnetic field caused by the magnetizing means to the shift of the braking surfaces (204, 206) from one state to another; determining a strength of the brake's (400, 502) magnetic field; and determining a malfunction of the brake (400, 502) when the magnetizing means generate a magnetic field in the closed state of the braking surfaces (204, 206). first and second braking surfaces (204, 206), and magnetizing means arranged to move the braking surfaces (204, 206) to an open state, in which the braking surfaces (204, 206) are separated from each other, and to a closed state, in which the braking surfaces (204, 206) are connected to each other, characterized in that the method comprises: measuring the time that elapses from the change in the magnetic field caused by the magnetizing means to the shift of the braking surfaces (204, 206) from one state to another; determining a strength of the brake's (400, 502) magnetic field; and determining a malfunction of the brake (400, 502) when the magnetizing means generate a magnetic field in the closed state of the braking surfaces (204, 206). measuring the time that elapses from the change in the magnetic field caused by the magnetizing means to the shift of the braking surfaces (204, 206) from one state to another; determining a strength of the brake's (400, 502) magnetic field; and determining a malfunction of the brake (400, 502) when the magnetizing means generate a magnetic field in the closed state of the braking surfaces (204, 206).
A positive electrode for a metal-air battery, the positive electrode comprising: a first layer disposed on a surface of an electrolyte membrane or a separator and comprising a first carbon material, a first electrolyte, and a first binder having an affinity with the first electrolyte; and a second layer disposed on the first layer and comprising a second carbon material, a second electrolyte, and a second binder having an affinity with the second electrolyte, wherein the first carbon material is different from the second carbon material, the first carbon material has a Brunauer Emmett Teller specific surface area which is greater than a Brunauer Emmett Teller specific surface area of the second carbon material, wherein an amount of the first binder is 1.5 times to 3 times greater than an amount of the second binder, wherein the first carbon material has a Brunauer Emmett Teller specific surface area of 800 square meters per gram to 1500 square meters per gram, and wherein the second carbon material has a Brunauer Emmett Teller specific surface area of 200 square meters per gram to less than 800 square meters per gram. a first layer disposed on a surface of an electrolyte membrane or a separator and comprising a first carbon material, a first electrolyte, and a first binder having an affinity with the first electrolyte; and a second layer disposed on the first layer and comprising a second carbon material, a second electrolyte, and a second binder having an affinity with the second electrolyte, wherein the first carbon material is different from the second carbon material, the first carbon material has a Brunauer Emmett Teller specific surface area which is greater than a Brunauer Emmett Teller specific surface area of the second carbon material, wherein an amount of the first binder is 1.5 times to 3 times greater than an amount of the second binder, wherein the first carbon material has a Brunauer Emmett Teller specific surface area of 800 square meters per gram to 1500 square meters per gram, and wherein the second carbon material has a Brunauer Emmett Teller specific surface area of 200 square meters per gram to less than 800 square meters per gram.
A manufacturing method of a seamless metal pipe which manufactures a seamless metal pipe from a hollow shell using a mandrel mill having a preceding-stage stand group including a plurality of stands arranged from a head along a pass line and a succeeding-stage stand group including a plurality of stands arranged behind the preceding-stage stand group, the manufacturing method comprising: preparing a plurality of mandrel bars in which lengths of work portions which come into contact with the hollow shell during elongating are different from one another; selecting a mandrel bar including a work portion having a length corresponding to the number of stands used in thickness reduction, among the plurality of mandrel bars; inserting the mandrel bar selected in the selecting into the hollow shell; and performing the elongating on the hollow shell into which the mandrel bar is inserted, wherein in the elongating, outer diameter reduction is performed by one of the preceding-stage stand group and the succeeding-stage stand group and the thickness reduction is performed by the other of the preceding-stage stand group and the succeeding-stage stand group, or the thickness reduction is performed by both of the preceding-stage stand group and the succeeding-stage stand group. preparing a plurality of mandrel bars in which lengths of work portions which come into contact with the hollow shell during elongating are different from one another; selecting a mandrel bar including a work portion having a length corresponding to the number of stands used in thickness reduction, among the plurality of mandrel bars; inserting the mandrel bar selected in the selecting into the hollow shell; and performing the elongating on the hollow shell into which the mandrel bar is inserted, wherein in the elongating, outer diameter reduction is performed by one of the preceding-stage stand group and the succeeding-stage stand group and the thickness reduction is performed by the other of the preceding-stage stand group and the succeeding-stage stand group, or the thickness reduction is performed by both of the preceding-stage stand group and the succeeding-stage stand group.
Pourable or granular fertiliser mixture containing calcium and/or magnesium carbonate, sulphur compounds and iron hydroxide and/or iron oxyhydroxide compounds, characterised in that the neutralisation value (as CaO) of the fertiliser mixture is at least 20, and the fertiliser mixture has, relative to its dry mass determined by means of drying at 50°C to a constant weight, but at least for 24 h, a) an aluminium content of < 3.6 wt.%, (expressed as Al 2 O 3) and b) an Fe content of 0.2 bis 9 wt.%, and c) wherein at least some of the sulphur is in sulphate form. a) an aluminium content of < 3.6 wt.%, (expressed as Al 2 O 3) and b) an Fe content of 0.2 bis 9 wt.%, and c) wherein at least some of the sulphur is in sulphate form.
An information processing apparatus having: a data processor for executing processing for storing acquired data, which is generated or obtained, on storing means as data associated with content read from an information recording medium, wherein the data processor is arranged to execute processing for setting, in a data directory set for the storing means, a file-system directory corresponding to identification information set for the information recording medium or the content and for setting, in the set file-system directory, a file containing the acquired data and a file containing search information being information for searching for the acquired-data file recorded in the storing means, characterised in that the content and/or the acquired data are/is divided by being encrypted by a plurality of unit keys to form respective content management units, wherein the unit keys are respectively obtained through cryptographic processing using recording seeds stored on the information recording medium, wherein the recording seeds are associated with the corresponding content management units. a data processor for executing processing for storing acquired data, which is generated or obtained, on storing means as data associated with content read from an information recording medium, wherein the data processor is arranged to execute processing for setting, in a data directory set for the storing means, a file-system directory corresponding to identification information set for the information recording medium or the content and for setting, in the set file-system directory, a file containing the acquired data and a file containing search information being information for searching for the acquired-data file recorded in the storing means, characterised in that the content and/or the acquired data are/is divided by being encrypted by a plurality of unit keys to form respective content management units, wherein the unit keys are respectively obtained through cryptographic processing using recording seeds stored on the information recording medium, wherein the recording seeds are associated with the corresponding content management units.
An unprinted inkjet-printable fillable pouch made of an unprinted inkjet-printable film comprising: (a) a multilayer polymer film comprising a base layer and a sealing layer, preferably a heat-sealing layer, which is the inner layer of the pouch and (b) at least one ink-receiving layer as the outer layer deposited on the multilayer polymer film (a) from an aqueous coating composition comprising: a polymeric binder, fine inorganic particles having a median particle size of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and coarse inorganic and/or organic particles having a median particle size of from 5 to 14 μm, preferably from 6 to 13 μm, and more preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01; wherein the unprinted inkjet-printable film has an average surface roughness Rz of from 3.0 to 12.0 μm, preferably from 4.0 to 10.0 μm, as determined on the surface of the ink-receiving layer (b) according to DIN EN ISO 4287:2010-07 with a sampling length In of 4.0 mm and a single sampling length Ir of 0.8 mm as defined in DIN EN ISO 4288:1998-04 with a 2 μm probe tip and an aperiodic profile setting. (a) a multilayer polymer film comprising a base layer and a sealing layer, preferably a heat-sealing layer, which is the inner layer of the pouch and (b) at least one ink-receiving layer as the outer layer deposited on the multilayer polymer film (a) from an aqueous coating composition comprising: a polymeric binder, fine inorganic particles having a median particle size of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and coarse inorganic and/or organic particles having a median particle size of from 5 to 14 μm, preferably from 6 to 13 μm, and more preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01; wherein the unprinted inkjet-printable film has an average surface roughness Rz of from 3.0 to 12.0 μm, preferably from 4.0 to 10.0 μm, as determined on the surface of the ink-receiving layer (b) according to DIN EN ISO 4287:2010-07 with a sampling length In of 4.0 mm and a single sampling length Ir of 0.8 mm as defined in DIN EN ISO 4288:1998-04 with a 2 μm probe tip and an aperiodic profile setting. a polymeric binder, fine inorganic particles having a median particle size of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and coarse inorganic and/or organic particles having a median particle size of from 5 to 14 μm, preferably from 6 to 13 μm, and more preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01;
A drill bit configured to be used to form a hole by machining a portion to be processed of a workpiece material by means of drilling while a lubricant material for assisting machining process is in contact with the portion to be processed, the drill bit comprising: at least one cutting edge; and a face positioned adjacent to the cutting edge, wherein, on the face, a recess exhibiting a prescribed planar shape is provided; characterized in that the recess is a substantially linear groove formed substantially parallel to the cutting edge; wherein a dimension between the cutting edge and the groove is set to be 0.25 mm or more and 0.43 mm or less; wherein the groove is set to have an average width of 0.23 mm or more and 0.30 mm or less; wherein the recess is set to have a maximum depth of 0.05 mm or more and 0.15 mm or less. at least one cutting edge; and a face positioned adjacent to the cutting edge, wherein, on the face, a recess exhibiting a prescribed planar shape is provided; characterized in that the recess is a substantially linear groove formed substantially parallel to the cutting edge; wherein a dimension between the cutting edge and the groove is set to be 0.25 mm or more and 0.43 mm or less; wherein the groove is set to have an average width of 0.23 mm or more and 0.30 mm or less; wherein the recess is set to have a maximum depth of 0.05 mm or more and 0.15 mm or less.
An apparatus, comprising: an enclosure (513, 603, 700, 150, 120) designed to house electronics; and a ventilation plug (300, 400, 702, 152, 125) fastened to an exterior of the enclosure, wherein the ventilation plug is adapted for hermeticity testing of the enclosure and is configured to maintain gas-pressure equilibrium inside the enclosure and to inject gas into the enclosure when a gas source is connected thereto, the ventilation plug comprising: a first section (302, 402, 518) designed to insert into the enclosure; and a second section (307, 405, 509) designed to provide a sealed connection to an adapter, wherein the second section is designed to receive pressurized gas via the adapter and to transfer the pressurized gas into the enclosure; characterised in that the ventilation plug further comprises a vent filter comprising a membrane designed to allow bidirectional flow of gas while preventing moisture and / or dirt from passing through; and at least one bypass airway (309a, 309b) allowing gas to bypass the vent filter into the enclosure. an enclosure (513, 603, 700, 150, 120) designed to house electronics; and a ventilation plug (300, 400, 702, 152, 125) fastened to an exterior of the enclosure, wherein the ventilation plug is adapted for hermeticity testing of the enclosure and is configured to maintain gas-pressure equilibrium inside the enclosure and to inject gas into the enclosure when a gas source is connected thereto, the ventilation plug comprising: a first section (302, 402, 518) designed to insert into the enclosure; and a second section (307, 405, 509) designed to provide a sealed connection to an adapter, a first section (302, 402, 518) designed to insert into the enclosure; and a second section (307, 405, 509) designed to provide a sealed connection to an adapter, wherein the second section is designed to receive pressurized gas via the adapter and to transfer the pressurized gas into the enclosure; characterised in that the ventilation plug further comprises a vent filter comprising a membrane designed to allow bidirectional flow of gas while preventing moisture and / or dirt from passing through; and at least one bypass airway (309a, 309b) allowing gas to bypass the vent filter into the enclosure.
A linear compressor including: a cylinder part, a piston part, a sealed housing, a linear electric motor (5, 6, 22) arranged for operation between said cylinder part and said piston part, a cylinder part spring means (14, 18) connecting between said cylinder part and said sealed housing and operating in said direction of reciprocation, and a piston part spring means connecting between said piston part and said sealed housing and operating elastically in said direction of reciprocation, characterised by a main spring connecting between said cylinder part and said piston part and operating in the direction of reciprocation of said piston part relative to said cylinder part, wherein said piston part spring means has a spring constant which is the product of the ratio of the mass of said piston part to the mass of said cylinder part and the effective spring constant of said cylinder part spring means (14, 18) acting in said direction of reciprocation. a cylinder part, a piston part, a sealed housing, a linear electric motor (5, 6, 22) arranged for operation between said cylinder part and said piston part, a cylinder part spring means (14, 18) connecting between said cylinder part and said sealed housing and operating in said direction of reciprocation, and a piston part spring means connecting between said piston part and said sealed housing and operating elastically in said direction of reciprocation, characterised by a main spring connecting between said cylinder part and said piston part and operating in the direction of reciprocation of said piston part relative to said cylinder part, wherein said piston part spring means has a spring constant which is the product of the ratio of the mass of said piston part to the mass of said cylinder part and the effective spring constant of said cylinder part spring means (14, 18) acting in said direction of reciprocation.