mhurhangee/ep-ind-claims huggingface dataset:
A condition monitoring method of an electric conductor, the conductor comprising a cable, a transmission line, or at least one segment of a cable/transmission line, and the conductor having a first end, a second end, and a given length, the method comprising: scanning the entire length of the conductor by means of applying a voltage signal to the first end of the conductor and by measuring, by a processor, in the time domain, a current at the first end for a given sampling period, said given sampling period assuring that a reflected voltage signal doesn't reach back the first end; estimating, by a processor, a characteristic admittance of the conductor using the measured current and the voltage signal; and determining, by a processor, a health state parameter of the conductor by dividing the estimated characteristic admittance of the conductor by an original characteristic admittance of the conductor, the original characteristic admittance being calculated from parameters associated to the conductor or measured when the conductor is installed. scanning the entire length of the conductor by means of applying a voltage signal to the first end of the conductor and by measuring, by a processor, in the time domain, a current at the first end for a given sampling period, said given sampling period assuring that a reflected voltage signal doesn't reach back the first end; estimating, by a processor, a characteristic admittance of the conductor using the measured current and the voltage signal; and determining, by a processor, a health state parameter of the conductor by dividing the estimated characteristic admittance of the conductor by an original characteristic admittance of the conductor, the original characteristic admittance being calculated from parameters associated to the conductor or measured when the conductor is installed.
A compressor variable angle measurement system for guiding the positioning variable vanes supported on a penny of a compressor (14, 15) of a gas turbine engine, the compressor variable angle measurement system comprising a gauge assembly that is connectable to a computing device; the compressor variable angle measurement system is characterised in that the gauge assembly comprises: a baseplate that has a first section and a second section, the first section having a first trailing edge vane engaging portion, a second trailing edge vane engaging portion, at least three vane contact portions, and a radial setting pin, the second section having an inertial measurement unit, the radial setting pin being configured to contact the penny that supports the vane; and a clamp arm that is pivotally attached to the baseplate and has a first section that has at least one vane contact portion, the first section of the clamp arm being spring urged towards the first section of the baseplate; the gauge assembly being configured to removably grip a variable vane between the vane contact portions of the baseplate and the at least one vane contact portion of the clamp arm and on the first trailing edge vane engaging portion and the second trailing edge vane engaging portion of the base plate, the stagger angle of the variable vane with respect to the radial setting pin being determined by the computing device from measurements made by the inertial measurement unit. a baseplate that has a first section and a second section, the first section having a first trailing edge vane engaging portion, a second trailing edge vane engaging portion, at least three vane contact portions, and a radial setting pin, the second section having an inertial measurement unit, the radial setting pin being configured to contact the penny that supports the vane; and a clamp arm that is pivotally attached to the baseplate and has a first section that has at least one vane contact portion, the first section of the clamp arm being spring urged towards the first section of the baseplate; the gauge assembly being configured to removably grip a variable vane between the vane contact portions of the baseplate and the at least one vane contact portion of the clamp arm and on the first trailing edge vane engaging portion and the second trailing edge vane engaging portion of the base plate, the stagger angle of the variable vane with respect to the radial setting pin being determined by the computing device from measurements made by the inertial measurement unit.
A lubricating composition comprising at least 90% by weight of a lubricant base, and a liquid antioxidant formed by blending the following components, set forth as weight % of the lubricating composition: octylated-phenyl-α-naphthylamine at 0.01-1.0%, an octylated diphenylamine derivative of triazole, tolutriazole or benzotriazole, which is a reaction product of triazole, benzotriazole or tolutriazole with formaldehyde or paraformaldehyde and octylated diphenylamine, at 0.01-0.50%, and methylenebis(di-n-butyldithiocarbamate), at 0.01-1.0%. octylated-phenyl-α-naphthylamine at 0.01-1.0%, an octylated diphenylamine derivative of triazole, tolutriazole or benzotriazole, which is a reaction product of triazole, benzotriazole or tolutriazole with formaldehyde or paraformaldehyde and octylated diphenylamine, at 0.01-0.50%, and methylenebis(di-n-butyldithiocarbamate), at 0.01-1.0%.
A sensor unit for use in a vehicle sensor system comprising a controller and at least one further sensor unit, the sensor unit comprising: a motion sensor configured to determine a first speed of the sensor unit; and a transmitter configured to transmit first identification data to the controller, to identify the sensor unit for assignment to the controller, if the first speed of the sensor unit exceeds a first threshold, wherein the motion sensor is further configured to determine a second speed of the sensor unit a period of time after determination of the first speed of the sensor unit, and wherein the transmitter is configured to transmit to the controller second identification data if the second speed of the sensor unit exceeds a second threshold, wherein the second identification data indicates that the sensor unit should be assigned to the controller. a motion sensor configured to determine a first speed of the sensor unit; and a transmitter configured to transmit first identification data to the controller, to identify the sensor unit for assignment to the controller, if the first speed of the sensor unit exceeds a first threshold, wherein the motion sensor is further configured to determine a second speed of the sensor unit a period of time after determination of the first speed of the sensor unit, and wherein the transmitter is configured to transmit to the controller second identification data if the second speed of the sensor unit exceeds a second threshold, wherein the second identification data indicates that the sensor unit should be assigned to the controller.
Method for producing a pack of containers, with the steps: - the containers are arranged as a group of containers - attaching a bonding element, which is the connecting element which makes a pack out of the group of containers, - placing an opening thread into the bonding element, - producing or attaching an engagement element to the opening thread, - joining containers, bonding element, opening thread and engagement element to form a pack. - the containers are arranged as a group of containers - attaching a bonding element, which is the connecting element which makes a pack out of the group of containers, - placing an opening thread into the bonding element, - producing or attaching an engagement element to the opening thread, - joining containers, bonding element, opening thread and engagement element to form a pack.
A human artificial chromosome vector comprising a fragment of human chromosome 21 from which the distal region of the long arm and the distal region of the short arm has been deleted, wherein the fragment of human chromosome 21 is of about 2-16 Mb, and wherein the distal region of the long arm of human chromosome 21 is deleted at AL163204, and wherein the distal region of the short arm of human chromosome 21 is deleted at AL163201.
A platform composed of a combination of parts including frame beams, blocks, and pins which can be assembled and disassembled to erect and dismantle the platform, wherein said frame beams each has an upper flange and a lower flange and said frame beams lie in an end-to-end relation whereby an end portion of one of said frame beams is adjacent an end portion of an other of said frame beams, wherein a pair of said blocks are each removably received between said upper and lower flanges of both said end portion of said one frame beam and said end portion of said other frame beam for connecting said frame beams in the end-to-end relation, each of said blocks having a pair of bores, each of said frame beam end portions having a pair of apertures in said upper flange and a pair of apertures in said lower flange, a first of said pins removably received in one of said pair of bores in each of said blocks and in corresponding ones of said apertures in said upper and lower flanges (32, 34) of said one frame beam, a second of said pins removably received in an other of said pair of bores in each of said blocks and in corresponding ones of said apertures in said upper and lower flanges (32, 34) of said other frame beam thereby connecting said pair of blocks to said one and said other frame beams, whereby, when only one of said blocks connects said one and said other frame beams, said other frame beam is swingable relative to said one frame beam from a position in which said one and said other frame beams are substantially side-by-side to the end-to-end position and whereby said one and said other frame beams are retainable in the end-to-end position when said one and said other frame beams are connected with both of said pair of blocks.
Drive unit, in particular of a motor vehicle, with an internal combustion engine charged in two stages by means of two exhaust gas turbochargers (2, 3), which drive unit has - a charge-air supply having a low-pressure compressor (2/2), a high-pressure compressor (3/2), a charge-air intermediate cooler between the low-pressure and the high-pressure compressor (2/2, 3/2) and a main charge-air cooler following the high-pressure compressor (3/2), also has - an exhaust-gas discharge with a high-pressure turbine (3/1) and a low-pressure turbine (2/1) and, if appropriate, with an exhaust-gas treatment device following the latter (2/1) in the exhaust tract, and furthermore has - a cooling system with a cooling circuit and with a heat recovery circuit decoupled hydraulically from the latter, characterized in that the cooling circuit comprises two hydraulically coupled or decoupled cooling subcircuits (10/1, 10/2) and a coolant can be circulated in these by means of at least one pump, in that a heat exchanger coolable by ambient air is arranged in the first cooling subcircuit (10/1) and a further heat exchanger coolable by ambient air and also, downstream of this, the main charge-air cooler and the charge-air intermediate cooler are arranged in the second cooling subcircuit (10/2), in that a working medium can be circulated within the heat recovery circuit with increased pressure by at least one pump and at the same time a phase transition of the said working medium from the liquid to the vaporous state of aggregation and back again can be brought about in heat exchangers (18, 19, 20), this working medium being divided downstream of the pump into two parallel substreams and being transferrable into the vaporous state of aggregation, in a first parallel branch, in an EGR heat exchanger, through which exhaust gas to be recirculated flows, and in an exhaust-gas heat exchanger through which, in the second parallel branch (11 b), exhaust gas introduced downstream of the low-pressure turbine (2/1) in the exhaust tract flows, this vaporous working medium then being deliverable to an expander and being convertible by means of the latter into mechanical useful energy, subsequently being conductible through a cooled condenser and then, again in the liquid state of aggregation, being feedable anew into the abovementioned circuit by means of the pump. - a charge-air supply having a low-pressure compressor (2/2), a high-pressure compressor (3/2), a charge-air intermediate cooler between the low-pressure and the high-pressure compressor (2/2, 3/2) and a main charge-air cooler following the high-pressure compressor (3/2), also has - an exhaust-gas discharge with a high-pressure turbine (3/1) and a low-pressure turbine (2/1) and, if appropriate, with an exhaust-gas treatment device following the latter (2/1) in the exhaust tract, and furthermore has - a cooling system with a cooling circuit and with a heat recovery circuit decoupled hydraulically from the latter,
A capacitor module, in particular for use in an inverter of an electrical or a hybrid vehicle, said capacitor module comprising a housing, at least one capacitor element (110, 120) mounted in said housing and at least one busbar (210, 220) at least partially mounted into said housing and being electrically connected to said capacitor element (110, 120), the housing comprising a bottom wall, a side wall and an upper wall, characterized in that said upper wall comprises a peripheral portion made of a sealing material and a central portion made of a thermal dissipation material, the thermal conductivity of the thermal dissipation material being bigger than the thermal conductivity of the sealing material.
A hydrogen peroxide composition comprising: - hydrogen peroxide; - a stabilizer system comprising 100 to 20,000 ppm of a colloidal stannate; - an acidifying agent or a salt thereof selected from the group consisting of methane sulfonic acid or a salt thereof; - phosphonic acid or a salt thereof; and - salicylic acid or a salt thereof, - wherein the composition does not comprise a phosphoric acid or a salt thereof, - said hydrogen peroxide composition having a pH in the range of 0.1 to 6. - hydrogen peroxide; - a stabilizer system comprising 100 to 20,000 ppm of a colloidal stannate; - an acidifying agent or a salt thereof selected from the group consisting of methane sulfonic acid or a salt thereof; - phosphonic acid or a salt thereof; and - salicylic acid or a salt thereof, - wherein the composition does not comprise a phosphoric acid or a salt thereof, - said hydrogen peroxide composition having a pH in the range of 0.1 to 6.
A method for interactive control using two controllers (120, 820) that each support user interaction with and within a virtual reality, VR, environment implemented by a VR system comprising a processor and a headset for executing the method, the method comprising: detecting a first movement of a first of the two controllers associated with the VR environment; determining an angle of rotation based on the first movement; determining a magnitude of force associated with the first movement; determining a path in the VR environment that corresponds to the angle of rotation and the magnitude of force, wherein the path is used as a guide to move the user in the VR environment and/or as a selection tool to select or retrieve objects in the VR environment; projecting the path in the VR environment by displaying graphical elements that represent the path in the VR environment; detecting a second movement of a second of the two controllers associated with the VR environment; and adjusting the path based on the second movement and displaying graphical elements that represent the adjusted path in the VR environment. detecting a first movement of a first of the two controllers associated with the VR environment; determining an angle of rotation based on the first movement; determining a magnitude of force associated with the first movement; determining a path in the VR environment that corresponds to the angle of rotation and the magnitude of force, wherein the path is used as a guide to move the user in the VR environment and/or as a selection tool to select or retrieve objects in the VR environment; projecting the path in the VR environment by displaying graphical elements that represent the path in the VR environment; detecting a second movement of a second of the two controllers associated with the VR environment; and adjusting the path based on the second movement and displaying graphical elements that represent the adjusted path in the VR environment.
A method comprising: providing a primary cell on a licensed band to a user apparatus; sending, to the user apparatus, a message indicating a request to scan an unlicensed band with a raster; receiving, from the user apparatus, scan results indicating one or more cells on the unlicensed band, and frame timing information measurements on one or more cells on the unlicensed band; using the scan results to select a carrier frequency for a secondary cell on the unlicensed band; using the frame timing information measurements received from the user apparatus for determining frame timing information for the secondary cell, the carrier frequency and the frame timing information being selected to avoid uplink/downlink interference between the primary cell on the licensed band and the secondary cell on the unlicensed band; and sending, to a network apparatus providing the secondary cell, the selected carrier frequency for the secondary cell and the frame timing information for the secondary cell. providing a primary cell on a licensed band to a user apparatus; sending, to the user apparatus, a message indicating a request to scan an unlicensed band with a raster; receiving, from the user apparatus, scan results indicating one or more cells on the unlicensed band, and frame timing information measurements on one or more cells on the unlicensed band; using the scan results to select a carrier frequency for a secondary cell on the unlicensed band; using the frame timing information measurements received from the user apparatus for determining frame timing information for the secondary cell, the carrier frequency and the frame timing information being selected to avoid uplink/downlink interference between the primary cell on the licensed band and the secondary cell on the unlicensed band; and sending, to a network apparatus providing the secondary cell, the selected carrier frequency for the secondary cell and the frame timing information for the secondary cell.
A refrigeration appliance having a machine room comprising a compressor pressurizing a refrigerant fluid, a condenser condensing the refrigerant fluid through refrigerant flow tubes in serpentine form where the refrigerant flow is provided, said machine room further comprising a fan and a defrost water receptacle assembly employed for accumulating and evaporating the defrost water, wherein said defrost water receptacle assembly comprises a first vessel and a second vessel that is physically apart from said first vessel, the fan is disposed against said condenser to effect forced heat convection by blowing air thereon and in that each of the two vessels (8, 9) is separately in mechanical engagement relationship with the condenser, wherein the first and second vessels (8, 9) of the defrost water receptacle assembly defines an intermediate space remaining in between the two and forms an air passageway by which said fan communicates with said compressor through the condenser characterized in that the mechanical inter-engagement relationship between the defrost water receptacle assembly and the condenser is provided by means of continual inter-engagement structures in the form of condenser slots on a plurality of engagement axes so as to enhance thermal exchange capacity in between the same.
Method for processing medical image data, wherein - measurement data of a to be reproduced body region of a patient are provided, - by way of a reconstruction algorithm a first image volume that represents the body region is reconstructed out of the measurement data, - in a first localization step, a subregion that represents a partial volume of the first image volume is identified and confined within the first image volume, wherein a specific tissue structure that differs from a remaining volume of the first image volume is assigned to the subregion, - on basis of the specific tissue structure of the subregion at least one reconstruction parameter is determined that varies in comparison to the first image volume, - based on the respective changed reconstruction parameter a second image volume is reconstructed out of the measurement data linked with the subregion, - in a second localization step, within at least the second image volume structure boundaries between different anatomical structures are contoured, and - structure boundaries contoured in the second image volume are transferred to the first image volume for display. - measurement data of a to be reproduced body region of a patient are provided, - by way of a reconstruction algorithm a first image volume that represents the body region is reconstructed out of the measurement data, - in a first localization step, a subregion that represents a partial volume of the first image volume is identified and confined within the first image volume, wherein a specific tissue structure that differs from a remaining volume of the first image volume is assigned to the subregion, - on basis of the specific tissue structure of the subregion at least one reconstruction parameter is determined that varies in comparison to the first image volume, - based on the respective changed reconstruction parameter a second image volume is reconstructed out of the measurement data linked with the subregion, - in a second localization step, within at least the second image volume structure boundaries between different anatomical structures are contoured, and - structure boundaries contoured in the second image volume are transferred to the first image volume for display.
Method for producing an emulsion of beta-carotene in an aqueous medium, the emulsion being intended for parenteral administration and containing acetylcysteine in quantities between 1 and 8 wt% relative to the emulsion, preferably 2 to 5 wt%, particularly preferably 3 wt% acetylcysteine, a solubilizer, in particular isopropyl myristate, and at least one antioxidant, characterized by the following method steps: a) heating the nonionic solubilizer in order to melt the nonionic solubilizer, and adding isopropyl myristate to the molten solubilizer, b) stirring beta-carotene into the solution obtained in step a), c) introducing the beta-carotene-containing mixture obtained in step b) into water while stirring, d) stirring the mixture obtained in step c) until a dark red, clear emulsion is achieved, e) dissolving at least one antioxidant, in particular in an organic solvent which simultaneously serves as a preservative, such as benzyl alcohol, f) stirring the solution of the antioxidant obtained in step e) into the beta-carotene-containing emulsion obtained in step d), and g) adding acetylcysteine to the emulsion obtained in step f). a) heating the nonionic solubilizer in order to melt the nonionic solubilizer, and adding isopropyl myristate to the molten solubilizer, b) stirring beta-carotene into the solution obtained in step a), c) introducing the beta-carotene-containing mixture obtained in step b) into water while stirring, d) stirring the mixture obtained in step c) until a dark red, clear emulsion is achieved, e) dissolving at least one antioxidant, in particular in an organic solvent which simultaneously serves as a preservative, such as benzyl alcohol, f) stirring the solution of the antioxidant obtained in step e) into the beta-carotene-containing emulsion obtained in step d), and g) adding acetylcysteine to the emulsion obtained in step f).