mhurhangee/ep-ind-claims huggingface dataset:
Method for cleaning surfaces in the internal volume of an aircraft component through which a medium flows, said method comprising at least the following steps: - connecting the internal volume to be cleaned to a steam generator, - generating a cleaning steam having a predetermined vapour pressure and temperature, by means of the steam generator, - applying the cleaning steam to the surfaces to be cleaned in the internal volume of the aircraft component through which a medium flows, - maintaining the vapour pressure and the temperature within the internal volume for the duration of a predetermined condensation time, - generating a pressure drop in the internal volume of the aircraft component through which a medium flows, in order to vaporise the portion of the cleaning steam that condensed during the condensation time, - removing the cleaning steam (7, 13) from the internal volume of the aircraft component through which a medium flows, via a discharge device. - connecting the internal volume to be cleaned to a steam generator, - generating a cleaning steam having a predetermined vapour pressure and temperature, by means of the steam generator, - applying the cleaning steam to the surfaces to be cleaned in the internal volume of the aircraft component through which a medium flows, - maintaining the vapour pressure and the temperature within the internal volume for the duration of a predetermined condensation time, - generating a pressure drop in the internal volume of the aircraft component through which a medium flows, in order to vaporise the portion of the cleaning steam that condensed during the condensation time, - removing the cleaning steam (7, 13) from the internal volume of the aircraft component through which a medium flows, via a discharge device.
A method of characterising performance of a compressor and/or turbine flow machine having a rotor interacting with a flow field, the method comprising the steps of: receiving performance data for the compressor and/or turbine flow machine comprising data values of a pressure change across the rotor and inlet mass flow for the compressor and/or turbine flow machine at one or more defined rotor condition, the defined rotor condition comprising a fixed rotor speed, the performance data defining a two-dimensional array of data in which points for a common rotor condition are identifiable; the method being characterised in that it further comprises the steps of: calculating the exit mass flow values for the flow downstream of the rotor; and identifying one or more point in the received performance data and interpolating from said one or more point to a corresponding one or more point at a different rotor condition based on a correlation of the exit mass flow values for said points. receiving performance data for the compressor and/or turbine flow machine comprising data values of a pressure change across the rotor and inlet mass flow for the compressor and/or turbine flow machine at one or more defined rotor condition, the defined rotor condition comprising a fixed rotor speed, the performance data defining a two-dimensional array of data in which points for a common rotor condition are identifiable; the method being characterised in that it further comprises the steps of: calculating the exit mass flow values for the flow downstream of the rotor; and identifying one or more point in the received performance data and interpolating from said one or more point to a corresponding one or more point at a different rotor condition based on a correlation of the exit mass flow values for said points. calculating the exit mass flow values for the flow downstream of the rotor; and identifying one or more point in the received performance data and interpolating from said one or more point to a corresponding one or more point at a different rotor condition based on a correlation of the exit mass flow values for said points.
A mast for an industrial truck, for a reach truck in particular, with a load carrying means and three mast frames, each of them having at least two profile rails connected to each other via at least two crossbeams, wherein the mast frames are realised as an inner mast, a central mast and an outer mast, from which the inner mast is supported in the central mast and the latter in the outer mast, wherein each profile rail (28, 30) of the outer mast is provided with a connection plate (42, 44) and a rear section reinforcement (60, 62) on the side facing away from the load carrying means, wherein each rear section reinforcement (60, 62) is connected to the corresponding connection plate (42, 44) at one end, and a crossbeam is arranged between the connection plates, characterised in that each connection plate (42, 44) has a larger width than the profile rail (28, 30) of the outer mast, wherein the connection plates (42, 44) extend in the region between the profile rails (28, 30).
A method of processing an article, comprising: heating an article using graphite heating elements in a low pressure atmosphere that is substantially free of oxygen to an oxidation temperature above about 1800°F (982°C), the article including a substrate and a bond coat comprising MCrAlY disposed on the substrate, wherein the M is selected from a group consisting of cobalt, nickel, iron, and combinations thereof, the Cr is chromium, the Al is aluminum, and the Y is yttrium; establishing a partial pressure of oxygen after heating to the oxidation temperature such that the low pressure atmosphere is at a pressure of no greater than 0.1 torr (13.3 pascals); oxidizing at least a portion of the bond coat for a time of fifteen minutes or less in the partial pressure of oxygen at the oxidation temperature to form alpha-alumina to the substantial exclusion of forming other types of alumina; and depositing a ceramic coating on the oxide. heating an article using graphite heating elements in a low pressure atmosphere that is substantially free of oxygen to an oxidation temperature above about 1800°F (982°C), the article including a substrate and a bond coat comprising MCrAlY disposed on the substrate, wherein the M is selected from a group consisting of cobalt, nickel, iron, and combinations thereof, the Cr is chromium, the Al is aluminum, and the Y is yttrium; establishing a partial pressure of oxygen after heating to the oxidation temperature such that the low pressure atmosphere is at a pressure of no greater than 0.1 torr (13.3 pascals); oxidizing at least a portion of the bond coat for a time of fifteen minutes or less in the partial pressure of oxygen at the oxidation temperature to form alpha-alumina to the substantial exclusion of forming other types of alumina; and depositing a ceramic coating on the oxide.
An optically variable security element for security papers, value documents and other data carriers, having - a substantially transparent substrate having opposing first and second main surfaces (22,24), - an arrangement composed of microlenses arranged on the first main surface of the substrate, - arranged on the second main surface of the substrate, a laser-sensitive recording layer that includes stacked first and second sub-layers (32, 34), the first sub-layer being arranged between the substrate and the second sub-layer, - a plurality of microholes produced in the laser-sensitive recording layer by the action of laser radiation, of which each microhole is associated with a microlens and is visible through the associated microlens when the security element is viewed from a certain viewing angle, - the plurality of microholes comprising a plurality of first and a plurality of second microholes (42, 44), characterized in that the first microholes are present in the first sub-layer and do not go through the recording layer, and the second microholes go through the recording layer with the first and second sub-layers (32, 34), and wherein - the diameter of the first microholes is larger than the diameter of the second microholes. - a substantially transparent substrate having opposing first and second main surfaces (22,24), - an arrangement composed of microlenses arranged on the first main surface of the substrate, - arranged on the second main surface of the substrate, a laser-sensitive recording layer that includes stacked first and second sub-layers (32, 34), the first sub-layer being arranged between the substrate and the second sub-layer, - a plurality of microholes produced in the laser-sensitive recording layer by the action of laser radiation, of which each microhole is associated with a microlens and is visible through the associated microlens when the security element is viewed from a certain viewing angle, - the plurality of microholes comprising a plurality of first and a plurality of second microholes (42, 44), characterized in that the first microholes are present in the first sub-layer and do not go through the recording layer, and the second microholes go through the recording layer with the first and second sub-layers (32, 34), and wherein - the diameter of the first microholes is larger than the diameter of the second microholes.
An image processing device comprising: a non-discharge correction processing unit that performs an image correction process for correcting an image defect caused by a non-discharge nozzle in an inkjet head including a plurality of nozzles; at least one first halftone processing program file that performs first halftone processing for a normal portion, which is an image region other than a non-discharge correction portion to be subjected to the image correction process by the non-discharge correction processing unit and other than a non-discharge portion in which recording is not possible due to the non-discharge nozzle, to generate a first halftone image; and at least one second halftone processing program file that is different from the first halftone processing program file and performs second halftone processing, which is different from the first halftone processing, for the non-discharge correction portion to generate a second halftone image, wherein the first halftone processing program file is executed for the normal portion of an input image and the second halftone processing program file is executed for the non-discharge correction portion of the input image. a non-discharge correction processing unit that performs an image correction process for correcting an image defect caused by a non-discharge nozzle in an inkjet head including a plurality of nozzles; at least one first halftone processing program file that performs first halftone processing for a normal portion, which is an image region other than a non-discharge correction portion to be subjected to the image correction process by the non-discharge correction processing unit and other than a non-discharge portion in which recording is not possible due to the non-discharge nozzle, to generate a first halftone image; and at least one second halftone processing program file that is different from the first halftone processing program file and performs second halftone processing, which is different from the first halftone processing, for the non-discharge correction portion to generate a second halftone image, wherein the first halftone processing program file is executed for the normal portion of an input image and the second halftone processing program file is executed for the non-discharge correction portion of the input image.
A method of predicting the size of a dog that will be attained in adulthood, comprising typing the nucleotides present for the combination of single nucleotide polymorphic markers present in the genome of the dog at positions equivalent to position 201 of the following sequences: - SEQ ID NO: 58 (BICF235J47583, SNP 3); - SEQ ID NO: 84 (BICFPJ401056, SNP 4); - SEQ ID NO: 146 (BICF235J47857, SNP 7); - SEQ ID NO: 7 (BICFPJ1149345, SNP 1); - SEQ ID NO: 35 (BICF230J67378, SNP 2); - SEQ ID NO: 96 (BICF235J20169, SNP 5); and - SEQ ID NO: 111 (BICF235J29129, SNP 6) and thereby predicting the size of the dog that will be attained in adulthood. - SEQ ID NO: 58 (BICF235J47583, SNP 3); - SEQ ID NO: 84 (BICFPJ401056, SNP 4); - SEQ ID NO: 146 (BICF235J47857, SNP 7); - SEQ ID NO: 7 (BICFPJ1149345, SNP 1); - SEQ ID NO: 35 (BICF230J67378, SNP 2); - SEQ ID NO: 96 (BICF235J20169, SNP 5); and - SEQ ID NO: 111 (BICF235J29129, SNP 6) and thereby predicting the size of the dog that will be attained in adulthood.
Smoothing device for an agricultural soil cultivating and/or distribution machine having a frame and soil cultivating tools and/or sowing coulters arranged thereon, wherein, behind the soil cultivating tools and/or sowing coulters, the smoothing device is arranged on the frame by means of a holding device, wherein the holding device has an articulation device, fastened to support arms, with an articulated joint, wherein at least one support beam which extends transversely to the direction of travel and on which the smoothing elements are arranged is fastened to the articulated joint by means of the articulated joint, the articulation axis of which extends transversely to the direction of travel, so as to be rotatable about the articulation axis, wherein the articulated joint is configured such that, when the machine is travelling in reverse, the support beam with the smoothing elements pivots about the articulation axis such that the free ends of the smoothing elements pivot into the direction of travel with respect to the frame, characterized in that the articulation axis of the articulated joint is located behind the support beam at a distance therefrom.
A system comprising multiple lamps, wherein each lamp comprises: first and second electrical connection terminals (114,116) for connection to external power; a light emitting circuit for being powered by the external power; and a safety circuit connected to the first and second electrical connection terminals, wherein the safety circuit is adapted to: apply a test to detect if the first and second electrical connection terminals are both connected to external power without an interfering impedance; and enable operation of the light emitting circuit when the first and second electrical connection terminals are both detected as connected to the external power without the interfering impedance, characterized in that the safety circuit is further adapted to select a time at which the test is applied, which time is different from a time when another lamp in the system applies a test. first and second electrical connection terminals (114,116) for connection to external power; a light emitting circuit for being powered by the external power; and a safety circuit connected to the first and second electrical connection terminals, wherein the safety circuit is adapted to: apply a test to detect if the first and second electrical connection terminals are both connected to external power without an interfering impedance; and enable operation of the light emitting circuit when the first and second electrical connection terminals are both detected as connected to the external power without the interfering impedance, apply a test to detect if the first and second electrical connection terminals are both connected to external power without an interfering impedance; and enable operation of the light emitting circuit when the first and second electrical connection terminals are both detected as connected to the external power without the interfering impedance, characterized in that the safety circuit is further adapted to select a time at which the test is applied, which time is different from a time when another lamp in the system applies a test.
A field programmable gate array, FPGA, characterized in that: wherein an application specific integrated circuit based, ASIC-based, hard core used for communication and interconnection is embedded in the FPGA; the ASIC-based hard core comprises a high-speed exchange and interconnection unit and at least one station; each station is connected to the high-speed exchange and interconnection unit; the station is configured to transmit data between each functional module in the FPGA and the ASIC-based hard core; and the high-speed exchange and interconnection unit is configured to transmit data between the stations.
A bench cutting tool (1; 1'; 1") having a rotary cutter blade and a dust-collecting device (30; 40; 40'), comprising a dust-collecting container (31; 41; 41') adapted to be connected to a dust-collecting port of a stationary cover covering an upper portion of the rotary cutter blade, wherein the dust-collecting container (31; 41; 41') includes a self dust-collecting mechanism that is capable of forcibly collecting cutting chips into the dust-collecting container, the self dust-collecting mechanism comprises a dust-collecting fan, wherein the self dust-collecting mechanism further comprises a dust-collecting motor, wherein the dust-collecting fan is rotated by the dust-collecting motor, the dust-collecting container (31; 41; 41') includes a connecting port (31 a) positioned in a front portion thereof and the collecting port formed in the stationary cover is inserted into the connecting port when the dust-collecting container (31; 41; 41') is connected to the dust-collecting port, characterized in that the dust-collecting container (31; 41; 41') comprises a rotatable support portion and the connecting port is connected to the rotatable support portion so as to be tilted up and down about the rotatable support portion.
A scroll compressor comprising: a casing; a driving motor comprising a stator fixed to an inner surface of the casing, and a rotor rotatably disposed in the stator; a rotating shaft coupled to and being rotatable with the rotor; an orbiting scroll coupled to the rotating shaft and provided with an orbiting wrap at one side of an orbiting end plate to perform an orbiting motion; a fixed scroll provided with a fixed wrap on one side surface of a fixed end plate, the fixed wrap being engaged with the orbiting wrap to define a compression chamber, and at least one refrigerant accommodating groove (1444, 1525) recessed to a preset depth from at least one of a side surface of the fixed wrap and a side surface of the orbiting wrap constituting the compression chamber, wherein the compression chamber comprises a first compression chamber provided in an inner surface of the fixed wrap and a second compression chamber provided in an outer surface of the fixed wrap, characterized in that the fixed end plate is provided with a first discharge port configured to discharge refrigerant in the first compression chamber and a second discharge port configured to discharge refrigerant of the second compression chamber, an auxiliary discharge port is provided between the first discharge port and the second discharge port, an inlet of the auxiliary discharge port is spaced apart from an inlet of the first discharge port and an inlet of the second discharge port, and an outlet of the auxiliary discharge port communicates with an outlet of the first discharge port and/or an outlet of the second discharge port. a casing; a driving motor comprising a stator fixed to an inner surface of the casing, and a rotor rotatably disposed in the stator; a rotating shaft coupled to and being rotatable with the rotor; an orbiting scroll coupled to the rotating shaft and provided with an orbiting wrap at one side of an orbiting end plate to perform an orbiting motion; a fixed scroll provided with a fixed wrap on one side surface of a fixed end plate, the fixed wrap being engaged with the orbiting wrap to define a compression chamber, and at least one refrigerant accommodating groove (1444, 1525) recessed to a preset depth from at least one of a side surface of the fixed wrap and a side surface of the orbiting wrap constituting the compression chamber, wherein the compression chamber comprises a first compression chamber provided in an inner surface of the fixed wrap and a second compression chamber provided in an outer surface of the fixed wrap, characterized in that the fixed end plate is provided with a first discharge port configured to discharge refrigerant in the first compression chamber and a second discharge port configured to discharge refrigerant of the second compression chamber, an auxiliary discharge port is provided between the first discharge port and the second discharge port, an inlet of the auxiliary discharge port is spaced apart from an inlet of the first discharge port and an inlet of the second discharge port, and an outlet of the auxiliary discharge port communicates with an outlet of the first discharge port and/or an outlet of the second discharge port.
A power control device (11, 11A, 11B) comprising: first conversion means for converting DC voltage power into AC voltage power, the DC voltage power being output from power generation means for generating power using natural energy; second conversion means (23, 23A) for converting the AC voltage power output from the first conversion means into DC voltage power; and characterized in that the power control device (11, 11A, 11B) further comprises control means for controlling the DC voltage power output from the second conversion means (23, 23A) based on a voltage value of the power output from the power generation means when supply of power from a system is stopped, wherein the control means controls the DC voltage power output from the second conversion means (23, 23A) such that the voltage value of the power output from the power generation means falls within a range defined by a first reference voltage value and a second reference voltage value. first conversion means for converting DC voltage power into AC voltage power, the DC voltage power being output from power generation means for generating power using natural energy; second conversion means (23, 23A) for converting the AC voltage power output from the first conversion means into DC voltage power; and characterized in that the power control device (11, 11A, 11B) further comprises control means for controlling the DC voltage power output from the second conversion means (23, 23A) based on a voltage value of the power output from the power generation means when supply of power from a system is stopped, wherein the control means controls the DC voltage power output from the second conversion means (23, 23A) such that the voltage value of the power output from the power generation means falls within a range defined by a first reference voltage value and a second reference voltage value.