mhurhangee/patent-ind-claim-en huggingface dataset:
A valve stem seal comprising: a reinforcement ring having a tubular body section; and a rubber-like elastic body which is integrally provided with the reinforcement ring, the valve stem seal being configured to be fixed to a valve stem guide that guides a valve stem, wherein the rubber-like elastic body includes: a seal section which is slidable on the valve stem ; and a fitting section which is provided on an inner peripheral surface of the body section and which is configured to be fitted and fixed to the valve stem guide , and an inner peripheral surface of the fitting section is provided with a plurality of annular seal protrusions , each including a first inclined surface having a diameter that increases from a radially inward tip toward the seal section and a second inclined surface having a diameter that increases from the radially inward tip toward a side opposite to the seal section , characterized in that a first seal protrusion which is closest to the seal section is configured so that an inclination of the second inclined surface is smaller than that of the first inclined surface , and a second seal protrusion which is farthest from the seal section is configured so that an inclination of the first inclined surface is smaller than that of the second inclined surface . a reinforcement ring having a tubular body section; and a rubber-like elastic body which is integrally provided with the reinforcement ring, the valve stem seal being configured to be fixed to a valve stem guide that guides a valve stem, wherein the rubber-like elastic body includes: a seal section which is slidable on the valve stem ; and a fitting section which is provided on an inner peripheral surface of the body section and which is configured to be fitted and fixed to the valve stem guide , and an inner peripheral surface of the fitting section is provided with a plurality of annular seal protrusions , each including a first inclined surface having a diameter that increases from a radially inward tip toward the seal section and a second inclined surface having a diameter that increases from the radially inward tip toward a side opposite to the seal section , characterized in that a seal section which is slidable on the valve stem ; and a fitting section which is provided on an inner peripheral surface of the body section and which is configured to be fitted and fixed to the valve stem guide , and an inner peripheral surface of the fitting section is provided with a plurality of annular seal protrusions , each including a first inclined surface having a diameter that increases from a radially inward tip toward the seal section and a second inclined surface having a diameter that increases from the radially inward tip toward a side opposite to the seal section , characterized in that a first seal protrusion which is closest to the seal section is configured so that an inclination of the second inclined surface is smaller than that of the first inclined surface , and a second seal protrusion which is farthest from the seal section is configured so that an inclination of the first inclined surface is smaller than that of the second inclined surface .
A computer-implemented method comprising: receiving well plan information for drilling at least a section of a well at a site; generating a set of candidate bottom hole assemblies based at least in part on at least a portion of the well plan information and bottom hole assembly component information; generating a refined set of bottom hole assemblies as a subset of the candidate bottom hole assemblies based at least in part on simulation results that simulate bottom hole assembly physics in at least a portion of the well at the site; generating a set of performance indexes and drilling parameters associated with at least a portion of the refined set of bottom hole assemblies; and selecting one of the refined set of bottom hole assemblies as an optimal bottom hole assembly for drilling the section of the well at the site. receiving well plan information for drilling at least a section of a well at a site; generating a set of candidate bottom hole assemblies based at least in part on at least a portion of the well plan information and bottom hole assembly component information; generating a refined set of bottom hole assemblies as a subset of the candidate bottom hole assemblies based at least in part on simulation results that simulate bottom hole assembly physics in at least a portion of the well at the site; generating a set of performance indexes and drilling parameters associated with at least a portion of the refined set of bottom hole assemblies; and selecting one of the refined set of bottom hole assemblies as an optimal bottom hole assembly for drilling the section of the well at the site.
An image corrector comprising: a shift determiner configured to determine a shift direction and a shift amount of an image corresponding to first image data; an area determiner configured to divide the image into a plurality of areas, based on the shift direction and to determine a first area (A1) of the plurality of areas as a reduction area, a second area (A2) of the plurality of areas as an enlargement area, and a third area (A3) between the first area (A1) and the second area (A2) as a shift area; and an image data generator configured to generate second image (DI2) data by converting the first image data (DI1) such that the first area (A1) is reduced in the shift direction, the second area (A2) is enlarged in the shift direction, and the third area (A3) is shifted in the shift direction towards a location of the first area (A1), wherein the shift determiner is configured to determine the y-axis shift direction (SDy) and the y-axis shift amount (SQy) after determining the x-axis shift direction (SDx) and the x-axis shift amount (SQx), or wherein the shift determiner is configured to determine the x-axis shift direction (SDx) and the x-axis shift amount (SQx) after determining the y-axis shift direction (SDy) and the y-axis shift amount (SQy). a shift determiner configured to determine a shift direction and a shift amount of an image corresponding to first image data; an area determiner configured to divide the image into a plurality of areas, based on the shift direction and to determine a first area (A1) of the plurality of areas as a reduction area, a second area (A2) of the plurality of areas as an enlargement area, and a third area (A3) between the first area (A1) and the second area (A2) as a shift area; and an image data generator configured to generate second image (DI2) data by converting the first image data (DI1) such that the first area (A1) is reduced in the shift direction, the second area (A2) is enlarged in the shift direction, and the third area (A3) is shifted in the shift direction towards a location of the first area (A1), wherein the shift determiner is configured to determine the y-axis shift direction (SDy) and the y-axis shift amount (SQy) after determining the x-axis shift direction (SDx) and the x-axis shift amount (SQx), or wherein the shift determiner is configured to determine the x-axis shift direction (SDx) and the x-axis shift amount (SQx) after determining the y-axis shift direction (SDy) and the y-axis shift amount (SQy).
A method, comprising: receiving, by a hardware processor, a first software program, wherein the first software program is designed to execute using a second software program, a first symbolic value indicating a characteristic of the second software program; analyzing, by the hardware processor, the first software program using a static program analysis, wherein the static program analysis includes a symbolic computation for the second software program and a concrete computation for the first software program and generates a second symbolic value based on the first symbolic value, the second symbolic value comprising the first symbolic value and a concrete non-symbolic value associated with the first software program and indicating a characteristic of the first software program, wherein the first software program is analyzed independent of an availability of the second software program; determining, by the hardware processor, that the second symbolic value is associated with a predetermined characteristic and that the first software program would perform an action associated with the second symbolic value if the first software program was executed using the second software program; and in response to the determining, generating, by the hardware processor, a warning signal. receiving, by a hardware processor, a first software program, wherein the first software program is designed to execute using a second software program, a first symbolic value indicating a characteristic of the second software program; analyzing, by the hardware processor, the first software program using a static program analysis, wherein the static program analysis includes a symbolic computation for the second software program and a concrete computation for the first software program and generates a second symbolic value based on the first symbolic value, the second symbolic value comprising the first symbolic value and a concrete non-symbolic value associated with the first software program and indicating a characteristic of the first software program, wherein the first software program is analyzed independent of an availability of the second software program; determining, by the hardware processor, that the second symbolic value is associated with a predetermined characteristic and that the first software program would perform an action associated with the second symbolic value if the first software program was executed using the second software program; and in response to the determining, generating, by the hardware processor, a warning signal.
A method for separating and purifying mogroside V by subcritical water desorption technology, characterized in that , desorption-extraction is carried out on a macroporous adsorption resin enriched with mogroside V using 5 to 8 BV purified water in a subcritical state under a pressure of 8 to 15 MPa and a temperature of 120 to 170°C at a circulation velocity of 5 to 8 BV/h, to give a Siraitia grosvenori aqueous solution.
A vibration damper configured to be installed on an outer casing of a gas turbine to damp vibrations generated in the gas turbine, the vibration damper comprising: a reinforcing support part comprising a plurality of reinforcing plates , wherein the plurality of reinforcing plates are arranged in parallel and each of the plurality of reinforcing plates is erected and installed on an outer circumferential surface of the outer casing ; characterized in that : the vibration damper further comprising: one or two first flanges coupled to both longitudinal ends of the reinforcing support part and fixed to a protruding support protruding from the outer casing , wherein the one or two first flanges is or are fixed to both longitudinal end sides of the plurality of reinforcing plates ; and a second flange disposed between the plurality of reinforcing plates to connect the plurality of reinforcing plates . a reinforcing support part comprising a plurality of reinforcing plates , wherein the plurality of reinforcing plates are arranged in parallel and each of the plurality of reinforcing plates is erected and installed on an outer circumferential surface of the outer casing ; characterized in that : the vibration damper further comprising: one or two first flanges coupled to both longitudinal ends of the reinforcing support part and fixed to a protruding support protruding from the outer casing , wherein the one or two first flanges is or are fixed to both longitudinal end sides of the plurality of reinforcing plates ; and a second flange disposed between the plurality of reinforcing plates to connect the plurality of reinforcing plates . one or two first flanges coupled to both longitudinal ends of the reinforcing support part and fixed to a protruding support protruding from the outer casing , wherein the one or two first flanges is or are fixed to both longitudinal end sides of the plurality of reinforcing plates ; and a second flange disposed between the plurality of reinforcing plates to connect the plurality of reinforcing plates .
Method of flow optimisation of a timber flow with mixed dimensions in a system for handling timber pieces, said system comprising a timber handling device , and, arranged in connection with the timber handling device a first conveyor belt which supplies the timber pieces to the timber handling device so that timber pieces being supplied to the timber handling device are in contact with each other, a measuring system and a control system for controlling the timber handling device, said method characterised by measurement of at least two timber pieces entering the timber handling device which are in contact with each other and are on the first conveyor belt and controlling, based on measuring data from the measurement of said at least two timber pieces, of at least a first control parameter in the control system of the timber handling device to optimise the timber flow. a timber handling device , and, arranged in connection with the timber handling device a first conveyor belt which supplies the timber pieces to the timber handling device so that timber pieces being supplied to the timber handling device are in contact with each other, a measuring system and a control system for controlling the timber handling device, said method characterised by measurement of at least two timber pieces entering the timber handling device which are in contact with each other and are on the first conveyor belt and controlling, based on measuring data from the measurement of said at least two timber pieces, of at least a first control parameter in the control system of the timber handling device to optimise the timber flow.
A manufacturing method of a PCB board, comprising: cutting (S101), to obtain a glass substrate layer of a preset size; arranging (S102) a conductive wiring layer on a top surface of the glass substrate layer , wherein the conductive wiring layer is a silver paste wiring layer printed by silver paste; coating (S201) a non-transparent ink material layer on a bottom surface of the glass substrate layer ; heating (S202) the glass substrate layer such that the glass substrate layer is uniformly heated to a preset temperature; cooling (S203) the heated glass substrate layer by adopting a preset cooling manner, to temper and fuse the non-transparent ink material layer and the silver paste wiring with the glass substrate layer ; coating (S103) a white reflective ink material layer on the conductive wiring layer , and preserving a preset position clear of coating for pre-installing an electronic component ; and curing processing (S104) the white reflective ink material layer . cutting (S101), to obtain a glass substrate layer of a preset size; arranging (S102) a conductive wiring layer on a top surface of the glass substrate layer , wherein the conductive wiring layer is a silver paste wiring layer printed by silver paste; coating (S201) a non-transparent ink material layer on a bottom surface of the glass substrate layer ; heating (S202) the glass substrate layer such that the glass substrate layer is uniformly heated to a preset temperature; cooling (S203) the heated glass substrate layer by adopting a preset cooling manner, to temper and fuse the non-transparent ink material layer and the silver paste wiring with the glass substrate layer ; coating (S103) a white reflective ink material layer on the conductive wiring layer , and preserving a preset position clear of coating for pre-installing an electronic component ; and curing processing (S104) the white reflective ink material layer .
A golf aid buckle comprising a first portion , a second portion , and a clamp portion , wherein the first portion is connected to the second portion and wherein the first portion is situated in front of the second portion when the buckle is in use, wherein the clamp portion is configured to clamp a first end of a belt against the second portion , and wherein the first portion is configured to clamp a second end of the belt against the second portion , characterized in that the first portion comprises at least one groove provided from a first vertical side portion to a second vertical side portion of the first portion to form an elongate channel adapted to receive and clamp an elongate object between the first and second portions when the buckle is in a closed position.
A liquid emulsion comprising a) a carmine lake; b) a calcium compound; c) glycerol; d) a surfactant; e) oil; f) water; g) a thickener; h) wherein the calcium compound is calcium acetate or calcium chloride. a) a carmine lake; b) a calcium compound; c) glycerol; d) a surfactant; e) oil; f) water; g) a thickener; h) wherein the calcium compound is calcium acetate or calcium chloride.
A debris fin for a robotic cleaner dust cup comprising: a fin mount ; an airflow body extending from the fin mount according to a divergence angle, the airflow body defining an airflow surface , the airflow body being configured to straighten fibrous debris entrained within air that is incident thereon; characterized in that the debris fin further comprises an overlay , the overlay extending along at least a portion of the airflow body . a fin mount ; an airflow body extending from the fin mount according to a divergence angle, the airflow body defining an airflow surface , the airflow body being configured to straighten fibrous debris entrained within air that is incident thereon; characterized in that the debris fin further comprises an overlay , the overlay extending along at least a portion of the airflow body .
A method for providing sensor data for a portable device , comprising: providing a first sensor integrated with the portable device having multiple axes of measurement; providing at least a second sensor integrated with the portable device having multiple axes of measurement, wherein the operation of the first and second sensor is interrelated in a sensor fusion technique; and generating a synthetic signal for a first axis of measurement of the first sensor, the first axis of measurement of the first sensor being one of the multiple axes of measurement of the first sensor, by combining data from another axis or other axes of the multiple axes of measurement of the first sensor together with data from one or more axes of the multiple axes of measurement of the second sensor, wherein the synthetic signal is suitable to replace or correct an output of the first axis of measurement of the first sensor; further comprising providing to the sensor fusion technique a substitute signal for the first axis of the first sensor based, at least in part, on the synthetic signal; further comprising detecting a malfunction in the first axis of the first sensor, wherein the substitute signal for the first axis of the first sensor is provided to the sensor fusion technique upon detection of the malfunction. providing a first sensor integrated with the portable device having multiple axes of measurement; providing at least a second sensor integrated with the portable device having multiple axes of measurement, wherein the operation of the first and second sensor is interrelated in a sensor fusion technique; and generating a synthetic signal for a first axis of measurement of the first sensor, the first axis of measurement of the first sensor being one of the multiple axes of measurement of the first sensor, by combining data from another axis or other axes of the multiple axes of measurement of the first sensor together with data from one or more axes of the multiple axes of measurement of the second sensor, wherein the synthetic signal is suitable to replace or correct an output of the first axis of measurement of the first sensor; further comprising providing to the sensor fusion technique a substitute signal for the first axis of the first sensor based, at least in part, on the synthetic signal; further comprising detecting a malfunction in the first axis of the first sensor, wherein the substitute signal for the first axis of the first sensor is provided to the sensor fusion technique upon detection of the malfunction.
A feedback method, applied to a first transmission node, comprising: receiving, by the first transmission node, a signal comprising a Transmission Block, TB, from a second transmission node, wherein the TB comprises K Code Blocks, CBs, and the K CBs are divided into P CB sets, K and P are positive integers, K≥3 and 2≤P≤K (S101); obtaining, by the first transmission node, states of the P CB sets according to the signal comprising the TB (S102); determining, by the first transmission node, at least one kind of feedback information in a preset feedback information set according to the states of the P CB sets, wherein the feedback information set at least comprises: correctness indication information and n kinds of incorrectness indication information, n is an integer greater than or equal to 1 (S103); and sending, by the first transmission node, the determined feedback information to the second transmission node (S104) wherein the number P of the CB sets is one of m preset positive integers, and is determined by the first transmission node and sent from the first transmission node to the second transmission node, and m≥1. receiving, by the first transmission node, a signal comprising a Transmission Block, TB, from a second transmission node, wherein the TB comprises K Code Blocks, CBs, and the K CBs are divided into P CB sets, K and P are positive integers, K≥3 and 2≤P≤K (S101); obtaining, by the first transmission node, states of the P CB sets according to the signal comprising the TB (S102); determining, by the first transmission node, at least one kind of feedback information in a preset feedback information set according to the states of the P CB sets, wherein the feedback information set at least comprises: correctness indication information and n kinds of incorrectness indication information, n is an integer greater than or equal to 1 (S103); and sending, by the first transmission node, the determined feedback information to the second transmission node (S104) wherein the number P of the CB sets is one of m preset positive integers, and is determined by the first transmission node and sent from the first transmission node to the second transmission node, and m≥1.