mhurhangee/ep-ind-claims huggingface dataset:
A method for determining one or more parameters, each parameters being related to a type of vibration for an encoder mounted on an axis and arranged to detect rotary movement of said axis, and wherein an element 40 fixed at said encoder prevents said encoder from rotating with said axis; the method comprising the steps of: generating one or more signals, each signal being a response to an acceleration in a direction in a point of said encoder; determining one or more frequency spectrums related to said one or more signals; establishing one or more equations and fitting a trigonometric function of said equations related to said one or more signals based on said one or more frequency spectrums, where each equation describes an acceleration related to said one or more direction and said one or more points of the encoder; and determining one or more parameters from said one or more equations, where each parameter is related to a type of vibration for said encoder. generating one or more signals, each signal being a response to an acceleration in a direction in a point of said encoder; determining one or more frequency spectrums related to said one or more signals; establishing one or more equations and fitting a trigonometric function of said equations related to said one or more signals based on said one or more frequency spectrums, where each equation describes an acceleration related to said one or more direction and said one or more points of the encoder; and determining one or more parameters from said one or more equations, where each parameter is related to a type of vibration for said encoder.
A method i or ii for producing foam for fire extinguishing, wherein method i comprises mixing a liquefied medium with a foam solution, and applying a disturbance to strengthen the contact between the liquefied medium and the foam solution, wherein the mixing is carried out in a mixing device, and the way to apply a disturbance includes arranging a disturbing component in the mixing device, wherein the mixing is performed under the conditions including: mixing temperature in a range of -30°C~60°C, pressure of the liquefied medium in a range of 1-2MPa, and pressure of the foam solution in a range of 0.8-1.SMPa; wherein method ii comprises mixing a liquefied medium, water, and a foam concentrate, and applying a disturbance to strengthen the contact among the liquefied medium, the foam concentrate, and the water, wherein the mixing is carried out in a mixing device, and the way to apply a disturbance includes arranging a disturbing component in the mixing device, wherein the mixing is performed under conditions including: mixing temperature in a range of -30°C~60°C, pressure of the liquefied medium in a range of 1-2MPa, pressure of the foam concentrate in a range of 0.8-1.5MPa, and pressure of the water in range of 0.6-1.4MPa. wherein method i comprises mixing a liquefied medium with a foam solution, and applying a disturbance to strengthen the contact between the liquefied medium and the foam solution, wherein the mixing is carried out in a mixing device, and the way to apply a disturbance includes arranging a disturbing component in the mixing device, wherein the mixing is performed under the conditions including: mixing temperature in a range of -30°C~60°C, pressure of the liquefied medium in a range of 1-2MPa, and pressure of the foam solution in a range of 0.8-1.SMPa; wherein method ii comprises mixing a liquefied medium, water, and a foam concentrate, and applying a disturbance to strengthen the contact among the liquefied medium, the foam concentrate, and the water, wherein the mixing is carried out in a mixing device, and the way to apply a disturbance includes arranging a disturbing component in the mixing device, wherein the mixing is performed under conditions including: mixing temperature in a range of -30°C~60°C, pressure of the liquefied medium in a range of 1-2MPa, pressure of the foam concentrate in a range of 0.8-1.5MPa, and pressure of the water in range of 0.6-1.4MPa.
A radio base station apparatus for radio communication with a plurality of radio terminal apparatuses by means of time division multiple access, the radio base station apparatus comprising: a response information reception section adapted to receive response information from one or more radio terminal apparatus of said plurality of radio terminal apparatuses per time slot in a plurality of time slots in a time frame, the response information indicating that base station authentication is to be started, the slot in which the response information is received being random for each of the radio terminal apparatuses; a base station authentication data generation section adapted to generate base station authentication data that, for each said time slot, indicates whether or not the response information has been received for this time slot from any radio terminal apparatus from said plurality of radio terminal apparatuses; and a base station authentication data transmission section adapted to broadcast the generated base station authentication data to the plurality of the radio terminal apparatuses. a response information reception section adapted to receive response information from one or more radio terminal apparatus of said plurality of radio terminal apparatuses per time slot in a plurality of time slots in a time frame, the response information indicating that base station authentication is to be started, the slot in which the response information is received being random for each of the radio terminal apparatuses; a base station authentication data generation section adapted to generate base station authentication data that, for each said time slot, indicates whether or not the response information has been received for this time slot from any radio terminal apparatus from said plurality of radio terminal apparatuses; and a base station authentication data transmission section adapted to broadcast the generated base station authentication data to the plurality of the radio terminal apparatuses.
A radiator thermostat for automatically regulating the temperature of a radiator, wherein the radiator thermostat is provided and configured to be attached to a radiator valve having a housing, wherein the housing comprises at least the following components: - a connecting means that is designed to connect the radiator thermostat to the radiator valve so that the radiator valve can be controlled by the radiator thermostat, - a regulator for the radiator valve for regulating the heat output of a radiator, - a presence sensor, - at least one temperature sensor that is designed to determine an environmental temperature, - wherein the radiator thermostat is configured to transmit the determined sensor data from the presence sensor and the determined sensor data from the temperature sensor to a computer, and to receive control commands from this computer for predictively controlling a radiator, or wherein the radiator thermostat is configured to determine control commands for a predictively controlling a radiator using the determined sensor data from the presence sensor and the determined sensor data from the temperature sensor, characterized in that the presence sensor has at least one acoustic sensor so that a presence of a person in an environment of the radiator thermostat that is visually concealed for the radiator thermostat can be determined. - a connecting means that is designed to connect the radiator thermostat to the radiator valve so that the radiator valve can be controlled by the radiator thermostat, - a regulator for the radiator valve for regulating the heat output of a radiator, - a presence sensor, - at least one temperature sensor that is designed to determine an environmental temperature, - wherein the radiator thermostat is configured to transmit the determined sensor data from the presence sensor and the determined sensor data from the temperature sensor to a computer, and to receive control commands from this computer for predictively controlling a radiator, or wherein the radiator thermostat is configured to determine control commands for a predictively controlling a radiator using the determined sensor data from the presence sensor and the determined sensor data from the temperature sensor,
A method of diagnosing an allergy, comprising the steps of: a) contacting basophils from a whole blood sample from a patient with an allergen in an aqueous solution in the presence of the whole blood, with a volume content of whole blood in the aqueous solution of at least 20 percent by volume, under conditions which allow activation of the basophils by the allergen, b) enriching the basophils from step a) and c) detecting any activated basophils, wherein the detecting in step c) is achieved in that a marker for basophils located on the surface of the basophils is detected by chemiluminescence, wherein in step b) basophils are enriched in that they bind to a ligand, which binds specifically to a polypeptide that is a marker characteristic of activated basophils, and/or the detecting in step c) is achieved in that a marker characteristic of activated basophils is detected by chemiluminescence. a) contacting basophils from a whole blood sample from a patient with an allergen in an aqueous solution in the presence of the whole blood, with a volume content of whole blood in the aqueous solution of at least 20 percent by volume, under conditions which allow activation of the basophils by the allergen, b) enriching the basophils from step a) and c) detecting any activated basophils,
Light emitting diode chip - with a layer sequence comprising at least one n-conductive layer (31, 32), said at least one n-conductive layer (31, 32) comprising a first n-conductive layer and a second n-conductive layer, wherein a p-conductive layer and a radiation-generating active zone are disposed between said first and second n-conductive layer, - with a mirror, which has an electrically conductive mirror layer and at least one dielectric layer, - with a recess, which extends vertically to the layer sequence from the mirror layer through the first n-conductive layer, through the active zone and the p-conductive layer to the second n-conductive layer, - with a through-connection arranged in the recess, - wherein the first n-conductive layer faces the mirror, - wherein the at least one dielectric layer is arranged between the n-conductive layer and the electrically conductive mirror layer, - wherein the electrically conductive mirror layer is conductively connected to the first n-conductive layer, - wherein the through-connection is conductively connected to the second n-conductive layer. - with a layer sequence comprising at least one n-conductive layer (31, 32), said at least one n-conductive layer (31, 32) comprising a first n-conductive layer and a second n-conductive layer, wherein a p-conductive layer and a radiation-generating active zone are disposed between said first and second n-conductive layer, - with a mirror, which has an electrically conductive mirror layer and at least one dielectric layer, - with a recess, which extends vertically to the layer sequence from the mirror layer through the first n-conductive layer, through the active zone and the p-conductive layer to the second n-conductive layer, - with a through-connection arranged in the recess, - wherein the first n-conductive layer faces the mirror, - wherein the at least one dielectric layer is arranged between the n-conductive layer and the electrically conductive mirror layer, - wherein the electrically conductive mirror layer is conductively connected to the first n-conductive layer, - wherein the through-connection is conductively connected to the second n-conductive layer.
Method for producing a plurality of silanized ferrimagnetic iron oxide particles for independent generic nucleic acid binding, wherein the method comprises the steps of: a) Adding an iron salt to a liquid glycol to obtain a solution, b) Raising the pH of the solution to a value of at least 9 such that a precipitate is obtained, wherein during steps a) and b) a first temperature is applied to the solution and wherein during steps a) and b) the solution is gassed with nitrogen, c) Mixing the solution comprising the precipitate at a second temperature such that ferrimagnetic iron oxide particles are obtained, and d) Contacting the ferrimagnetic iron oxide particles with a silicate solution such that silanized ferrimagnetic iron oxide particles are obtained. a) Adding an iron salt to a liquid glycol to obtain a solution, b) Raising the pH of the solution to a value of at least 9 such that a precipitate is obtained, wherein during steps a) and b) a first temperature is applied to the solution and wherein during steps a) and b) the solution is gassed with nitrogen, c) Mixing the solution comprising the precipitate at a second temperature such that ferrimagnetic iron oxide particles are obtained, and d) Contacting the ferrimagnetic iron oxide particles with a silicate solution such that silanized ferrimagnetic iron oxide particles are obtained.
An in vitro method of determining an individual's risk for age-related macular degeneration comprising screening for the presence or absence of a genetic profile, wherein the genetic profile comprises the individual being homozygous for the G allele at the polymorphic site rs1409153, and wherein the presence of said genetic profile is indicative of increased risk.
A gas turbine engine comprising: a core nacelle defined about an engine centerline axis; a fan nacelle mounted at least partially around said core nacelle to define a fan bypass airflow path for a fan bypass airflow having a bypass ratio greater than six; a gear system driven by a core engine within the core nacelle to drive a fan within the fan nacelle, wherein said gear system defines a gear reduction ratio of greater than or equal to about 2.3; a fan variable area nozzle; a multiple of fan exit guide vanes in communication with said fan bypass flow path, said multiple of fan exit guide vanes rotatable about an axis of rotation; and a controller operable to control the fan variable area nozzle to vary the fan nozzle exit area and adjust the pressure ratio of the fan bypass airflow; characterized in that: the fan pressure ratio is less than 1.45 at cruise at 0.8 Mach and 35,000 ft (10,668 m); said fan defines a corrected fan tip speed less than 1150 ft / second (350.5 m/s); said fan variable area nozzle is axially movable relative said fan nacelle to vary a fan nozzle exit area and adjust a pressure ratio of the fan bypass airflow during engine operation; and said controller is operable to reduce said fan nozzle exit area at a cruise flight condition. a core nacelle defined about an engine centerline axis; a fan nacelle mounted at least partially around said core nacelle to define a fan bypass airflow path for a fan bypass airflow having a bypass ratio greater than six; a gear system driven by a core engine within the core nacelle to drive a fan within the fan nacelle, wherein said gear system defines a gear reduction ratio of greater than or equal to about 2.3; a fan variable area nozzle; a multiple of fan exit guide vanes in communication with said fan bypass flow path, said multiple of fan exit guide vanes rotatable about an axis of rotation; and a controller operable to control the fan variable area nozzle to vary the fan nozzle exit area and adjust the pressure ratio of the fan bypass airflow; characterized in that: the fan pressure ratio is less than 1.45 at cruise at 0.8 Mach and 35,000 ft (10,668 m); said fan defines a corrected fan tip speed less than 1150 ft / second (350.5 m/s); said fan variable area nozzle is axially movable relative said fan nacelle to vary a fan nozzle exit area and adjust a pressure ratio of the fan bypass airflow during engine operation; and said controller is operable to reduce said fan nozzle exit area at a cruise flight condition. the fan pressure ratio is less than 1.45 at cruise at 0.8 Mach and 35,000 ft (10,668 m); said fan defines a corrected fan tip speed less than 1150 ft / second (350.5 m/s); said fan variable area nozzle is axially movable relative said fan nacelle to vary a fan nozzle exit area and adjust a pressure ratio of the fan bypass airflow during engine operation; and said controller is operable to reduce said fan nozzle exit area at a cruise flight condition.
A controller for an aircraft steering system, the controller being configured to receive a steering input representative of a desired direction of travel of a steerable nose landing gear, and to receive one or more force-based inputs; characterised in that the force-based inputs are representative of lateral forces experienced by the nose landing gear, where the lateral forces are forces which act in a lateral direction perpendicular to a longitudinal axis and a vertical axis of the aircraft, and in that the controller is adapted to automatically adjust the steering input based upon the force-based input(s) so as to output an adjusted steering command for a steering actuator of the nose landing gear.
A metal plating composition comprising a group IB plating species and a group IIIA plating species characterized by further comprising an additive of the general formula: wherein X 1 and X 2 may be the same or different and are selected from the group consisting of arylene and heteroarylene; FG 1 and FG 2 may be the same or different or are selected from the group consisting of -S 2 OH, -S OH, -COOH, -P 2 OH and primary, secondary and tertiary amino groups and salts and esters thereof; R is selected from the group consisting of alkylene, arylene or heteroarylene and n and m are integers from 1 to 5.: wherein X 1 and X 2 may be the same or different and are selected from the group consisting of arylene and heteroarylene; FG 1 and FG 2 may be the same or different or are selected from the group consisting of -S 2 OH, -S OH, -COOH, -P 2 OH and primary, secondary and tertiary amino groups and salts and esters thereof; R is selected from the group consisting of alkylene, arylene or heteroarylene and n and m are integers from 1 to 5. wherein X 1 and X 2 may be the same or different and are selected from the group consisting of arylene and heteroarylene; FG 1 and FG 2 may be the same or different or are selected from the group consisting of -S 2 OH, -S OH, -COOH, -P 2 OH and primary, secondary and tertiary amino groups and salts and esters thereof; R is selected from the group consisting of alkylene, arylene or heteroarylene and n and m are integers from 1 to 5.
A laser cladding method, characterized in that using laser beam emitted from a semiconductor laser to melt alloy powder for laser cladding on the surface of a hydraulic support column; the semiconductor laser is a laser functioning with semiconductor material as gain medium and lighting by means of transition of the semiconductor material among energy bands, characterized in that the alloy powder for laser cladding includes: 0.05-0.20% of C, 1.0%-1.5% of Si, 0.4%-0.8% of Mn, 15.0%-15.8% of Cr, 4.0%-4.5% of Ni, the balance of Fe and unavoidable impurities; wherein the content of each element above is a content of weight percentage. 0.05-0.20% of C, 1.0%-1.5% of Si, 0.4%-0.8% of Mn, 15.0%-15.8% of Cr, 4.0%-4.5% of Ni,
A method for manufacturing a sound-absorbing panel, comprising the steps of: a) providing a first sheet and a second sheet of a nonwoven material having a melting temperature; b) providing a rigid structure in the form of a frame-like structure made of metal; c) heating only the rigid structure to a temperature above the melting temperature of the nonwoven material of the two sheets (110, 112); d) placing the rigid structure between the first sheet and the second sheet, wherein the material of the first and second sheets (110, 112) proximate to the rigid structure will melt by heat transfer from the rigid structure so that a unit is formed comprising the first sheet, the second sheet and the rigid structure; and e) compressing the unit. a) providing a first sheet and a second sheet of a nonwoven material having a melting temperature; b) providing a rigid structure in the form of a frame-like structure made of metal; c) heating only the rigid structure to a temperature above the melting temperature of the nonwoven material of the two sheets (110, 112); d) placing the rigid structure between the first sheet and the second sheet, wherein the material of the first and second sheets (110, 112) proximate to the rigid structure will melt by heat transfer from the rigid structure so that a unit is formed comprising the first sheet, the second sheet and the rigid structure; and e) compressing the unit.
Method for determining the flatness of moving strip material, comprising the steps of: moving the strip material through a strip processing device; generating at least one projection pattern (5, 5') on the surface of the strip material by means of projection-generating optics (4, 4'), wherein the projection pattern (5, 5') is projected from a position laterally offset relative to the center plane of the strip material onto the surface of the strip material such that a projection angle (α) formed between the surface of the strip material and a projection beam is between 1° and 45°; and detecting the projection pattern (5, 5') by means of a camera, wherein the camera is arranged above the strip material, if viewed in a transverse plane with respect to the direction of movement, characterized in that a tensile force (Fx) of at least 20 N/mm 2 acts on the strip material when moving the strip material, and that the at least one projection pattern (5, 5') is projected onto the surface in the form of a projection grid. moving the strip material through a strip processing device; generating at least one projection pattern (5, 5') on the surface of the strip material by means of projection-generating optics (4, 4'), wherein the projection pattern (5, 5') is projected from a position laterally offset relative to the center plane of the strip material onto the surface of the strip material such that a projection angle (α) formed between the surface of the strip material and a projection beam is between 1° and 45°; and detecting the projection pattern (5, 5') by means of a camera, wherein the camera is arranged above the strip material, if viewed in a transverse plane with respect to the direction of movement, characterized in that a tensile force (Fx) of at least 20 N/mm 2 acts on the strip material when moving the strip material, and that the at least one projection pattern (5, 5') is projected onto the surface in the form of a projection grid.
A fluororesin tube comprising an inner surface that is subjected to plasma treatment by introducing vinylalkoxysilane into a plasma excitation gas, characterized in that the inner surface subjected to the plasma treatment has an arithmetic average roughness Ra and an average length RSm of a roughness curve element which satisfies Ra < 0.08 μm and RSm < 25 μm, wherein the arithmetic average roughness Ra and the average length RSm conform to JIS B 0601-2001.