mhurhangee/patent-ind-claim-en huggingface dataset:
A drill dust receptacle for collecting drill dust formed at drilling of a hole in a surface wherein the drill dust receptacle is formed of a blank of foldable sheet material and is configured to be detachable attached to a surface, wherein the drill dust receptacle comprises a receptacle portion (1.1) for holding drill dust having an upper edge and a pointed bottom and further comprises a front panel , a back panel and a first and a second side section , wherein the first and the second side section , respectively, are coupled to the front and back panel by a joint , wherein - the first and a second side section , respectively, comprises at least a first and a second, and a third and a fourth side panel , wherein the first and the second side panel are coupled by a joint and the second and the third side panel are coupled by a joint and the third and the fourth side panel are coupled by a joint such that the front panel may be folded out from the back panel and; - the joints are formed by folds in the foldable sheet material extending between first and second positions on the upper edge of the receptacle portion (1.1) and intersecting in the pointed bottom of the receptacle portion (1.1), and wherein; - the receptacle portion (1.1) is formed of a rectangular receptacle section of the blank of foldable sheet material. - the first and a second side section , respectively, comprises at least a first and a second, and a third and a fourth side panel , wherein the first and the second side panel are coupled by a joint and the second and the third side panel are coupled by a joint and the third and the fourth side panel are coupled by a joint such that the front panel may be folded out from the back panel and; - the joints are formed by folds in the foldable sheet material extending between first and second positions on the upper edge of the receptacle portion (1.1) and intersecting in the pointed bottom of the receptacle portion (1.1), and wherein; - the receptacle portion (1.1) is formed of a rectangular receptacle section of the blank of foldable sheet material.
A terminal comprising: a receiving section configured to receive a synchronization signal block in a frequency range including a synchronization signal and a physical broadcast channel; and a control section that is configured to determine, when the frequency range is a given frequency range, an index of the synchronization signal block based on a demodulation reference signal sequence pattern associated with the physical broadcast channel and the frequency range, and that is configured to determine, when the frequency range is larger than the given frequency range, an index of the synchronization signal block based on the demodulation reference signal sequence pattern associated with the physical broadcast channel and bits of the physical broadcast channel. a receiving section configured to receive a synchronization signal block in a frequency range including a synchronization signal and a physical broadcast channel; and a control section that is configured to determine, when the frequency range is a given frequency range, an index of the synchronization signal block based on a demodulation reference signal sequence pattern associated with the physical broadcast channel and the frequency range, and that is configured to determine, when the frequency range is larger than the given frequency range, an index of the synchronization signal block based on the demodulation reference signal sequence pattern associated with the physical broadcast channel and bits of the physical broadcast channel.
Steering system for a vehicle, with a steering handle for the manual application of a steering angle, with a steering angle sensor for the detection of the steering angle (δ L ) and with a steering gear for the conversion of the steering angle (δ L ) into a wheel steering angle (δ V ) at one or more steerable wheels of the vehicle, the steering system being provided with a planetary gear mechanism which is coupled to the steering handle , by a steering shaft which is connected to the steering handle being connected to the sun gear of the planetary gear mechanism , the steering system being configured as a steer-by-wire steering system without mechanical or hydraulic coupling between the steering shaft of the steering handle and a steering gear , at least two planetary gears of the planetary gear mechanism being connected to steering angle sensors , and the outer gear of the planetary gear mechanism being connected to an actuator for the application of a torque to the steering handle .
A battery module, comprising: at least one secondary battery; a module case having an empty space formed therein to accommodate the at least one secondary battery in an inner space; and at least one heat pressure exchange member disposed to face the secondary battery in the inner space of the module case and configured to absorb and retain heat when a pressure applied from the secondary battery is equal to or less than a reference value and release the retained heat when the pressure applied from the secondary battery is higher than the reference value. at least one secondary battery; a module case having an empty space formed therein to accommodate the at least one secondary battery in an inner space; and at least one heat pressure exchange member disposed to face the secondary battery in the inner space of the module case and configured to absorb and retain heat when a pressure applied from the secondary battery is equal to or less than a reference value and release the retained heat when the pressure applied from the secondary battery is higher than the reference value.
A computer-implemented method for estimating the movement of an image position of an image feature (104; 204; 404; 414; 604) between a first image and a second image , wherein the method comprises: - determining a set of image windows (102; 202; 302; 412; 621; 622; 623) in the first image, wherein each image window contains the image feature, wherein the set of image windows comprises an initial image window, wherein the method comprises a detection of an edge in the initial image window, wherein the image window contained in addition to the initial image window in the set of image windows is determined on the basis of the detected edge, - identifying at least a portion of the set of the image windows in the second image, - for the portion of the set of image windows, evaluating the quality of a match (422; 424) between the particular image window in the first image and the corresponding image window in the second image, and selecting one of the image windows on the basis of the evaluation, and - estimating the movement of the image position of the image feature using the selected image window. - determining a set of image windows (102; 202; 302; 412; 621; 622; 623) in the first image, wherein each image window contains the image feature, wherein the set of image windows comprises an initial image window, wherein the method comprises a detection of an edge in the initial image window, wherein the image window contained in addition to the initial image window in the set of image windows is determined on the basis of the detected edge, - identifying at least a portion of the set of the image windows in the second image, - for the portion of the set of image windows, evaluating the quality of a match (422; 424) between the particular image window in the first image and the corresponding image window in the second image, and selecting one of the image windows on the basis of the evaluation, and - estimating the movement of the image position of the image feature using the selected image window.
A spectrum management system , comprising: circuitry configured to determine available spectrum for a secondary communication system based on a disturbance tolerance of a primary communication system managed by the spectrum management system and a disturbance tolerance of another primary communication system managed by another spectrum management system, and cause setting of a spectrum for the secondary communication system based on the available spectrum and whether or not a spectrum request is received from the secondary communication system. circuitry configured to determine available spectrum for a secondary communication system based on a disturbance tolerance of a primary communication system managed by the spectrum management system and a disturbance tolerance of another primary communication system managed by another spectrum management system, and cause setting of a spectrum for the secondary communication system based on the available spectrum and whether or not a spectrum request is received from the secondary communication system.
An ultrahigh-strength steel sheet consisting of, by wt%, carbon (C): 0.4% to 0.7%, manganese (Mn): 12% to 24%, aluminum (Al): 0.01% to 3.0%, silicon (Si): 0.3% or less, phosphorus (P): 0.03% or less, sulfur (S): 0.03% or less, nitrogen (N): 0.04% or less, nickel (Ni): 0.05% to 1.0%, chromium (Cr): 0.05% to 1.0%, tin (Sn): 0.01% to 0.03%, and a balance of iron (Fe) and inevitable impurities, wherein the ultrahigh-strength steel sheet consisting of austenite as a microstructure, wherein the microstructure of the ultrahigh-strength steel sheet comprises grains of austenite in an amount of 70% or greater that have an aspect ratio of 2 or greater in a rolling direction by an effect of work hardening, wherein the steel sheet has a tensile strength of 1300 MPa or greater and a yield strength of 1000 MPa or greater, the parameters being measured according to the description.
A collector comprising a container and a removable cap attached to the container , the cap defining an opening dimensioned for receiving the tip of a Kerrison rongeur therethrough, and further comprising a scraper attached to an underside of the cap such that extension of the rongeur through the opening dislodges material carried in a cutting area of the rongeur, which dislodged material is received within an interior space of the container .
A method of removing a bearing compartment (38-5, 38-6) from a gas turbine engine , comprising: inserting a tool between an aft portion of a low pressure turbine (46; 120) and a forward portion of a turbine exhaust case (70; 130), wherein the tool is configured to be positioned between the low pressure turbine (46; 120) and the turbine exhaust case (70; 130) in order to remove a bearing compartment housing from the gas turbine engine ; and removing a plurality of fasteners coupling a flange of the bearing compartment housing to the turbine exhaust case (70; 130), the bearing compartment housing containing the bearing compartment (38-5, 38-6); and removing the bearing compartment housing from an aft portion of the gas turbine engine , characterised by the tool comprising one of a single wedge-shaped ring or a plurality of wedge-shaped segments. inserting a tool between an aft portion of a low pressure turbine (46; 120) and a forward portion of a turbine exhaust case (70; 130), wherein the tool is configured to be positioned between the low pressure turbine (46; 120) and the turbine exhaust case (70; 130) in order to remove a bearing compartment housing from the gas turbine engine ; and removing a plurality of fasteners coupling a flange of the bearing compartment housing to the turbine exhaust case (70; 130), the bearing compartment housing containing the bearing compartment (38-5, 38-6); and removing the bearing compartment housing from an aft portion of the gas turbine engine , characterised by the tool comprising one of a single wedge-shaped ring or a plurality of wedge-shaped segments.
A device for testing interfaces between a filling adapter and a motor vehicle air conditioning system, wherein the filling adapter is configured for filling with at least one refrigerant (R134a; R1234yf), characterized in that the device has a base body with two hexagonal side surfaces which are interconnected by means of a circumferential rectangular contour which is aligned at a right angle to each of the side surfaces, wherein one vehicle nipple is attached to each contour section for testing the high-pressure , side of the filling adapters, wherein three of the overall six vehicle nipples is configured for one refrigerant and wherein out of the three vehicle nipples for one refrigerant, a first vehicle nipple represents the lower tolerance limit and a second vehicle nipple represents the upper tolerance limit, and a third vehicle nipple is configured for setting the path measuring systems of the nipple detection system on the filling adapter.
A management device comprising: a vehicle information receiver configured to receive from a vehicle configured to travel by battery power, vehicle information relating to travel of the vehicle; a power information receiver configured to receive from a local power management device configured to control power supply to a power network in each area, power information relating to power for the power network ; a charging information estimator configured to calculate, for each vehicle, power consumption amount of the vehicle based on a distance for the vehicle from a present position to reach a power stand which is configured to charge the vehicle in an area in which the vehicle performs charging of power next time, based on the vehicle information , and estimate power consumption amount of the power stand based on a remaining power of a battery of the vehicle and power consumption amount; and a local power consumption amount estimator configured to estimate a power consumption amount for the power network in each area, based on a result of estimation by the charging information estimator and the power information. a vehicle information receiver configured to receive from a vehicle configured to travel by battery power, vehicle information relating to travel of the vehicle; a power information receiver configured to receive from a local power management device configured to control power supply to a power network in each area, power information relating to power for the power network ; a charging information estimator configured to calculate, for each vehicle, power consumption amount of the vehicle based on a distance for the vehicle from a present position to reach a power stand which is configured to charge the vehicle in an area in which the vehicle performs charging of power next time, based on the vehicle information , and estimate power consumption amount of the power stand based on a remaining power of a battery of the vehicle and power consumption amount; and a local power consumption amount estimator configured to estimate a power consumption amount for the power network in each area, based on a result of estimation by the charging information estimator and the power information.
A method for the contactless detection of at least one movement sequence with a passage detection system , having at least one sensor unit for capturing at least one movement state within a capture range of the sensor unit , a transmitting unit for transmitting the at least one captured movement state , a computer unit with a receiving unit for receiving the at least one captured movement state , with an evaluation unit for evaluating the at least one captured movement state and with a provision unit for providing the at least one evaluated movement state and/or the at least one captured movement sequence , wherein the sensor unit comprises a plurality of sensors, at least two, particularly advantageously four sensors, which are arranged one above the other and/or diagonally to one another in the sensor unit, wherein the sensor unit is configured as a light barrier, one-way light barrier, reflection light barrier and/or light grid, wherein the method comprises the following steps: - capturing at least one first movement state and at least one second movement state within the capture range by the at least one sensor unit , wherein a first movement state and a second movement state are captured at different times, - transmitting the at least two captured movement states by the transmitting unit to the receiving unit of the computer unit , - receiving the at least two captured movement states by the receiving unit of the computer unit , - detecting at least one movement sequence on the basis of the at least two received movement states by the evaluation unit of the computer unit , - providing the at least two evaluated movement states and/or the at least two detected movement states by a provision unit of the computer unit , wherein the method further comprises: - determining a front profile line of a person and/or an object within the capture range on the basis of the at least one received movement state by the computer unit . - capturing at least one first movement state and at least one second movement state within the capture range by the at least one sensor unit , wherein a first movement state and a second movement state are captured at different times, - transmitting the at least two captured movement states by the transmitting unit to the receiving unit of the computer unit , - receiving the at least two captured movement states by the receiving unit of the computer unit , - detecting at least one movement sequence on the basis of the at least two received movement states by the evaluation unit of the computer unit , - providing the at least two evaluated movement states and/or the at least two detected movement states by a provision unit of the computer unit , wherein the method further comprises: - determining a front profile line of a person and/or an object within the capture range on the basis of the at least one received movement state by the computer unit .
Method for heat treating a steel component with a carbon content of 0.60 to 1.20 weight %, comprising the steps of: a) carbonitriding the steel component , and then b) ferritically nitrocarburizing the steel component , subsequently c) quenching the steel component in a salt or oil bath, and then d) tempering the steel component at a temperature of 150-260 °C to toughen the steel component . a) carbonitriding the steel component , and then b) ferritically nitrocarburizing the steel component , subsequently c) quenching the steel component in a salt or oil bath, and then d) tempering the steel component at a temperature of 150-260 °C to toughen the steel component .
A method of forming a reinforced composite layer comprising: disposing a fiber preform on a target platform ; placing a pair of electrodes onto a single surface of the fiber preform with a gap between the electrodes ; applying an electrical voltage through the pair of electrodes and across the gap on the fiber preform ; disposing a layer of powder onto at least a portion of the heated fiber preform ; and impregnating the powder into the fiber preform and consolidating the powder and the fiber preform , thereby forming a reinforced composite layer. disposing a fiber preform on a target platform ; placing a pair of electrodes onto a single surface of the fiber preform with a gap between the electrodes ; applying an electrical voltage through the pair of electrodes and across the gap on the fiber preform ; disposing a layer of powder onto at least a portion of the heated fiber preform ; and impregnating the powder into the fiber preform and consolidating the powder and the fiber preform , thereby forming a reinforced composite layer.
A microfluidic device comprising: a plurality of reaction wells; and a plurality of solid supports, each of the solid supports having a reagent attached thereto, wherein the reagent is attached to the solid support via a labile reagent/support bond such that the reagent is configured to be cleaved from the support via a cleaving operation; wherein the plurality of wells each include a solid support containment region and a reaction region, wherein the solid support containment region is configured to receive a single one of the plurality of solid supports; and wherein the microfluidic device further comprises a sealing member or an immiscible fluid to fluidically isolate each of the plurality of wells, such that, in use, reaction solution can be added to the wells and the wells are sealed with the sealing member or immiscible fluid such that the reaction wells are fluidically isolated from one another, and in each fluidically isolated reaction well a cleaving operation can be performed to separate the reagent from the solid support so as to deliver reagent to the reaction region. a plurality of reaction wells; and a plurality of solid supports, each of the solid supports having a reagent attached thereto, wherein the reagent is attached to the solid support via a labile reagent/support bond such that the reagent is configured to be cleaved from the support via a cleaving operation; wherein the plurality of wells each include a solid support containment region and a reaction region, wherein the solid support containment region is configured to receive a single one of the plurality of solid supports; and wherein the microfluidic device further comprises a sealing member or an immiscible fluid to fluidically isolate each of the plurality of wells, such that, in use, reaction solution can be added to the wells and the wells are sealed with the sealing member or immiscible fluid such that the reaction wells are fluidically isolated from one another, and in each fluidically isolated reaction well a cleaving operation can be performed to separate the reagent from the solid support so as to deliver reagent to the reaction region.
A monoclonal antibody antagonizing and inhibiting the binding of human PD-1 antigen to its ligand, characterized in that it contains the first and the second variable regions: the first variable region is an antibody light chain variable region, of which the amino acid sequences of CDR 1, CDR 2 and CDR 3 are shown in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively, while the second variable region is an antibody heavy chain variable region, of which the amino acid sequences of CDR 1, CDR 2 and CDR 3 are shown in SEQ ID NO: 8, SEQ ID NO:9 and SEQ ID NO: 10, respectively and wherein the said first variable region is an antibody light chain variable region, with the amino acid sequence shown in SEQ ID NO: 11, while the said second variable region is an antibody heavy chain variable region, with the amino acid sequence shown in SEQ ID NO: 12.