mhurhangee/ep-ind-claims huggingface dataset:
Method of installing a power cable in a wind turbine tower, in particular for transportation, the method comprising: arranging a section of the cable within the tower, the section having a length, in particular by at least an upper excess cable portion, greater than the tower height (h), by forming a cable loop (27, 33) within the tower, wherein an angle enclosed between a normal of a cable loop plane and the longitudinal direction of the tower is between 70° and 110°, characterized in that forming the cable loop further comprises: lowering another part of the cable through an opening in a platform below the platform, to form a lower portion (33a, 33b) of the cable loop having a 180° bend below the platform. arranging a section of the cable within the tower, the section having a length, in particular by at least an upper excess cable portion, greater than the tower height (h), by forming a cable loop (27, 33) within the tower, wherein an angle enclosed between a normal of a cable loop plane and the longitudinal direction of the tower is between 70° and 110°, characterized in that forming the cable loop further comprises: lowering another part of the cable through an opening in a platform below the platform, to form a lower portion (33a, 33b) of the cable loop having a 180° bend below the platform.
A bearing state detection device configured to detect a state of a bearing of a gear device included in a truck of a railroad vehicle, wherein the bearing state detection device is configured to detect an actual state of damage to the bearing based on information which includes a parameter relating to the state of the bearing and is measured during an actual traveling of the railroad vehicle, the bearing state detection device comprising: a filtering processing unit; and an actual state analysis unit configured to analyze the actual state relating to the damage to the bearing by analyzing the information processed by the filtering processing unit, wherein the actual state analysis unit is configured to compare a result obtained by analyzing the information processed by the filtering processing unit with a result obtained by analyzing the information processed by the filtering processing unit when the bearing is in a normal state in order to determine whether the bearing is damaged, whereby the information including the parameter relating to the state of the bearing is information of at least one of vibration, temperature, torque, displacement, Acoustic Emission and rotation speed and the filtering processing unit is configured to remove a parameter relating to constitutional elements except for the bearing from the information measured during the actual traveling of the railroad vehicle, characterised in that the filtering processing unit is configured to remove a parameter relating to an axle of the railroad vehicle from information which is obtained during constant speed inertia traveling of the railroad vehicle. a filtering processing unit; and an actual state analysis unit configured to analyze the actual state relating to the damage to the bearing by analyzing the information processed by the filtering processing unit,
A downhole liner delivery tool comprising: a housing configured to couple to a tubular work string, the housing comprising a flow path; a detachable nose assembly releasably coupled to a downhole end of the housing and fluidly coupled to the flow path, the detachable nose assembly comprising one or more retractable grips positioned at an external surface of the detachable nose assembly and configured to secure the nose assembly to a wellbore; a flexible wellbore liner comprising a first end coupled to the detachable nose assembly and a second end coupled within the housing, the flexible wellbore liner stored within the flow path of the housing; a seat formed in the flow path and configured to receive a member dropped in a wellbore from a terranean surface, the receipt of the member by the seat configured to increase a fluid pressure of a fluid resin pumped through the flow path, wherein the flow path couples the fluid pressure to a body of the detachable nose assembly to expand the one or more retractable grips to engage a wellbore wall and detach the detachable nose assembly from the housing. a housing configured to couple to a tubular work string, the housing comprising a flow path; a detachable nose assembly releasably coupled to a downhole end of the housing and fluidly coupled to the flow path, the detachable nose assembly comprising one or more retractable grips positioned at an external surface of the detachable nose assembly and configured to secure the nose assembly to a wellbore; a flexible wellbore liner comprising a first end coupled to the detachable nose assembly and a second end coupled within the housing, the flexible wellbore liner stored within the flow path of the housing; a seat formed in the flow path and configured to receive a member dropped in a wellbore from a terranean surface, the receipt of the member by the seat configured to increase a fluid pressure of a fluid resin pumped through the flow path, wherein the flow path couples the fluid pressure to a body of the detachable nose assembly to expand the one or more retractable grips to engage a wellbore wall and detach the detachable nose assembly from the housing.
A synergistic combination of (i) Nitazoxanide, a deuterated derivative of NTZ (NTZ-D), Tizoxanide or Tizoxanide glucuronide, or a pharmaceutically acceptable salt of NTZ, NTZ-D, TZ or TZG; and (ii) at least one statin selected in the group consisting of pitavastatin, fluvastatin, simvastatin, atorvastatin, lovastatin and pravastatin. (i) Nitazoxanide, a deuterated derivative of NTZ (NTZ-D), Tizoxanide or Tizoxanide glucuronide, or a pharmaceutically acceptable salt of NTZ, NTZ-D, TZ or TZG; and (ii) at least one statin selected in the group consisting of pitavastatin, fluvastatin, simvastatin, atorvastatin, lovastatin and pravastatin.
A maintenance controller for providing maintenance guidance of a printer to a human operator via an Augmented Reality headset including a display, the maintenance controller being communicatively coupled to the Augmented Reality headset and comprising: a memory configured to store image data of printer components, and maintenance information of the printer components; wherein the maintenance controller is in communication with a camera having a field of view overlapping with a field of view of the human operator, and in communication with the display to display images for the human operator, the maintenance controller is configured to obtain from the camera a first image of the printer components, to analyze the first image to determine locations of the printer components in the first image based on the image data of the printer components stored in the memory, to modify the first image to include highlighted areas corresponding with the locations of the printer components, and to send the modified first image to the display, and the maintenance controller is configured to receive an instruction from the human operator indicating one of the highlighted areas as a selected printer component, to retrieve the maintenance information of the selected printer component from the memory based on the instruction, and to send the maintenance information to the display, wherein: the maintenance controller is configured to obtain from the camera a second image of the printer components, wherein the instruction from the human operator is visible in the second image. the maintenance controller is in communication with a camera having a field of view overlapping with a field of view of the human operator, and in communication with the display to display images for the human operator, the maintenance controller is configured to obtain from the camera a first image of the printer components, to analyze the first image to determine locations of the printer components in the first image based on the image data of the printer components stored in the memory, to modify the first image to include highlighted areas corresponding with the locations of the printer components, and to send the modified first image to the display, and the maintenance controller is configured to receive an instruction from the human operator indicating one of the highlighted areas as a selected printer component, to retrieve the maintenance information of the selected printer component from the memory based on the instruction, and to send the maintenance information to the display, wherein: the maintenance controller is configured to obtain from the camera a second image of the printer components, wherein the instruction from the human operator is visible in the second image.
Method for preparing 4-cyanopiperidine hydrochloride of formula, in high yield and with high purity, characterized in that isonipecotamide is dehydrated with thionyl chloride in a diluent in the presence of a formamide of general formula, wherein the formamide of general formula is defined as follows: R 1, R 2 are mutually independently hydrogen, C 1 -C 6 -alkyl, C 6 -C 10 -aryl or together form a -CH 2 -CH 2 -X n -CH 2 -CH 2 - residue, in which X is CH 2, oxygen or sulphur and n is 0 or 1. R 1, R 2 are mutually independently hydrogen, C 1 -C 6 -alkyl, C 6 -C 10 -aryl or together form a -CH 2 -CH 2 -X n -CH 2 -CH 2 - residue, in which X is CH 2, oxygen or sulphur n is 0 or 1.
A semiconductor light emitting device including a photonic crystal comprising: a semiconductor structure including a light emitting region disposed between an n-type region (27, 29, 30) and a p-type region; and a reflector disposed on at least a portion of a bottom surface of the semiconductor structure, wherein: a plurality of holes in the semiconductor structure are provided in a first region of the semiconductor structure corresponding to a first portion of the light emitting region; a plurality of second regions of the semiconductor structure, each second region corresponding to a second portion of the light emitting region, are free of holes; each of the second regions is surrounded by the first region; in the first region, in areas of the semiconductor structure disposed between individual holes, a nonconductive material is disposed between the light emitting region and the reflector; and the device is configured such that when forward biased, current is injected in the second regions and the first region is substantially free of current. a semiconductor structure including a light emitting region disposed between an n-type region (27, 29, 30) and a p-type region; and a reflector disposed on at least a portion of a bottom surface of the semiconductor structure, wherein: a plurality of holes in the semiconductor structure are provided in a first region of the semiconductor structure corresponding to a first portion of the light emitting region; a plurality of second regions of the semiconductor structure, each second region corresponding to a second portion of the light emitting region, are free of holes; each of the second regions is surrounded by the first region; in the first region, in areas of the semiconductor structure disposed between individual holes, a nonconductive material is disposed between the light emitting region and the reflector; and the device is configured such that when forward biased, current is injected in the second regions and the first region is substantially free of current. a plurality of holes in the semiconductor structure are provided in a first region of the semiconductor structure corresponding to a first portion of the light emitting region; a plurality of second regions of the semiconductor structure, each second region corresponding to a second portion of the light emitting region, are free of holes; each of the second regions is surrounded by the first region; in the first region, in areas of the semiconductor structure disposed between individual holes, a nonconductive material is disposed between the light emitting region and the reflector; and the device is configured such that when forward biased, current is injected in the second regions and the first region is substantially free of current.
A position and orientation sensor package comprising: a dielectric substrate; a first magneto-resistance sensor chip attached to the dielectric substrate, the first magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit; a second magneto-resistance sensor chip attached to the dielectric substrate and positioned adjacent the first magneto-resistance sensor chip, the second magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit; wherein the at least one magneto-resistance sensor circuit of the first magneto-resistance sensor chip is oriented in a different direction than the at least one magneto-resistance sensor circuit of the second magneto-resistance sensor chip; and a common calibration coil positioned a fixed distance from the at least one magneto-resistance sensor circuit on each of the first and second magneto-resistance sensor chips, the common calibration coil configured to generate a calibration magnetic field that provides for calibration of each of the first and second magneto-resistance sensor chips. a dielectric substrate; a first magneto-resistance sensor chip attached to the dielectric substrate, the first magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit; a second magneto-resistance sensor chip attached to the dielectric substrate and positioned adjacent the first magneto-resistance sensor chip, the second magneto-resistance sensor chip comprising at least one magneto-resistance sensor circuit; wherein the at least one magneto-resistance sensor circuit of the first magneto-resistance sensor chip is oriented in a different direction than the at least one magneto-resistance sensor circuit of the second magneto-resistance sensor chip; and a common calibration coil positioned a fixed distance from the at least one magneto-resistance sensor circuit on each of the first and second magneto-resistance sensor chips, the common calibration coil configured to generate a calibration magnetic field that provides for calibration of each of the first and second magneto-resistance sensor chips.
A process for preparing sulfonated block polymers in non-halogenated aliphatic solvents, comprising the steps of: pre-forming micelles, other polymer aggregates, or a combination thereof comprising a precursor block polymer prior to sulfonation by: providing a precursor block polymer having at least one end block A and at least one interior block B wherein each A block is a polymer block resistant to sulfonation and each B block is a polymer block susceptible to sulfonation, wherein said A and B blocks are substantially free of olefinic unsaturation; and mixing the precursor block polymer with at least one non-halogenated solvent to form the micelles, other polymer aggregates, or the combination thereof comprising the precursor block polymer; and sulfonating at least some of the pre-formed micelles, other polymer aggregates, or the combination thereof comprising the precursor block polymer with an acyl sulfate in a reaction mixture to form a sulfonated block polymer, wherein the initial concentration of the precursor block polymer is in the range of from 1 wt% to 15 wt% based on the total weight of the reaction mixture. pre-forming micelles, other polymer aggregates, or a combination thereof comprising a precursor block polymer prior to sulfonation by: providing a precursor block polymer having at least one end block A and at least one interior block B wherein each A block is a polymer block resistant to sulfonation and each B block is a polymer block susceptible to sulfonation, wherein said A and B blocks are substantially free of olefinic unsaturation; and mixing the precursor block polymer with at least one non-halogenated solvent to form the micelles, other polymer aggregates, or the combination thereof comprising the precursor block polymer; and providing a precursor block polymer having at least one end block A and at least one interior block B wherein each A block is a polymer block resistant to sulfonation and each B block is a polymer block susceptible to sulfonation, wherein said A and B blocks are substantially free of olefinic unsaturation; and mixing the precursor block polymer with at least one non-halogenated solvent to form the micelles, other polymer aggregates, or the combination thereof comprising the precursor block polymer; and sulfonating at least some of the pre-formed micelles, other polymer aggregates, or the combination thereof comprising the precursor block polymer with an acyl sulfate in a reaction mixture to form a sulfonated block polymer, wherein the initial concentration of the precursor block polymer is in the range of from 1 wt% to 15 wt% based on the total weight of the reaction mixture.
Shoe, in particular sports shoe, comprising a one-piece sole element, wherein the sole element comprises: a. a sole area extending below the foot; and b. a heel cup, three-dimensionally encompassing the heel of the foot, c. wherein the heel cup alone forms at least a part of the sidewall of the shoe, and d. characterised in that the sole area is provided as a load distribution plate, wherein a plurality of individual cushioning elements are arranged below the load distribution plate. a. a sole area extending below the foot; and b. a heel cup, three-dimensionally encompassing the heel of the foot, c. wherein the heel cup alone forms at least a part of the sidewall of the shoe, and d. characterised in that the sole area is provided as a load distribution plate, wherein a plurality of individual cushioning elements are arranged below the load distribution plate.
An article coated with a composition comprising an ethylene homo- or copolymer resin which has been prepared by using a single-site catalyst wherein the amount of component is not less than 80 wt. % of the composition further characterized in that component has an MFR 21, measured according to ISO 1133 at 190°C and under a load of 21.6 kg, from 0.01 to 20 g/10 min, a molecular weight distribution of 1 to 4, measured by GPC according to a method based on ISO 16014-4:2003, and a density of at least 940 kg/m 3, measured according to ISO 1183/D using a sample preparation made according to ISO 1872-2B. an ethylene homo- or copolymer resin which has been prepared by using a single-site catalyst wherein the amount of component is not less than 80 wt. % of the composition further characterized in that component has an MFR 21, measured according to ISO 1133 at 190°C and under a load of 21.6 kg, from 0.01 to 20 g/10 min, a molecular weight distribution of 1 to 4, measured by GPC according to a method based on ISO 16014-4:2003, and a density of at least 940 kg/m 3, measured according to ISO 1183/D using a sample preparation made according to ISO 1872-2B.
A method for publishing location information, comprising: Receiving the location information from an entity located in a geographic location; identifying one or more entities in a geographic region to be notified of the location information, wherein identifying the one or more entities comprises determining the geographic region comprising the geographic location, wherein the one or more entities comprise associates and strangers and wherein notifications to associates or strangers are restricted based on relationship types or privacy settings so that the identifying includes identifying strangers and associates that meet the restrictions, wherein the one or more entities are prevented from being notified of the location information when the geographic location is within a specified distance of a home of the entity; sending the location information to the identified entities including strangers that are subscribed to the geographic region; receiving, for the one or more entities, a corresponding plurality of geographic locations, and a corresponding plurality of nicknames; and visualizing a map comprising the plurality ot nicknames at the corresponding plurality of geographic locations. Receiving the location information from an entity located in a geographic location; identifying one or more entities in a geographic region to be notified of the location information, wherein identifying the one or more entities comprises determining the geographic region comprising the geographic location, wherein the one or more entities comprise associates and strangers and wherein notifications to associates or strangers are restricted based on relationship types or privacy settings so that the identifying includes identifying strangers and associates that meet the restrictions, wherein the one or more entities are prevented from being notified of the location information when the geographic location is within a specified distance of a home of the entity; sending the location information to the identified entities including strangers that are subscribed to the geographic region; receiving, for the one or more entities, a corresponding plurality of geographic locations, and a corresponding plurality of nicknames; and visualizing a map comprising the plurality ot nicknames at the corresponding plurality of geographic locations.
A medical apparatus (300, 400, 500, 600) comprising: - a magnetic resonance imaging system comprising a magnet with an imaging zone adapted to acquire magnetic resonance data from a subject from within the imaging zone; - a heating system (320, 502, 601) operable for heating a target zone within the imaging zone; - a memory adapted to store machine executable instructions (350, 352, 450); - a processor adapted to control the medical apparatus, wherein the processor is adapted to receive (100, 200, 700, 800) a treatment plan, and to repeatedly control (102, 204, 704, 804, 900, 1002) the heating system in accordance with the treatment plan to heat the target zone during alternating heating periods and cooling periods; characterised in that the processor is further adapted to: - acquire (104, 208, 702, 706, 802, 806, 902, 906, 1000, 1004) magnetic resonance data by controlling the magnetic resonance imaging system in accordance with a first pulse sequence, wherein the instructions cause the processor to acquire the magnetic resonance data during a cooling period selected from at least one of the cooling periods; and - modify (110, 214, 712, 812, 1008) the treatment plan in accordance with the magnetic resonance data. - a magnetic resonance imaging system comprising a magnet with an imaging zone adapted to acquire magnetic resonance data from a subject from within the imaging zone; - a heating system (320, 502, 601) operable for heating a target zone within the imaging zone; - a memory adapted to store machine executable instructions (350, 352, 450); - a processor adapted to control the medical apparatus, wherein the processor is adapted to receive (100, 200, 700, 800) a treatment plan, and to repeatedly control (102, 204, 704, 804, 900, 1002) the heating system in accordance with the treatment plan to heat the target zone during alternating heating periods and cooling periods; - acquire (104, 208, 702, 706, 802, 806, 902, 906, 1000, 1004) magnetic resonance data by controlling the magnetic resonance imaging system in accordance with a first pulse sequence, wherein the instructions cause the processor to acquire the magnetic resonance data during a cooling period selected from at least one of the cooling periods; and - modify (110, 214, 712, 812, 1008) the treatment plan in accordance with the magnetic resonance data.