mhurhangee/ep-ind-claims huggingface dataset:
A blast treatment method for blasting a treatment subject having an outer shell and a chemical agent charged into an interior of the outer shell, comprising the steps of: disposing an explosive on the outer side of the outer shell such that a difference occurs in a detonation pressure of the explosive that acts on the outer shell from an outer side between one side and another side of a predetermined cutting position of the outer shell and the outer shell is cut by a shearing force generated as a result of the difference in the detonation pressure; and detonating the explosive, wherein, in the step of detonating the explosive, the chemical agent is exposed by cutting the outer shell in the cutting position through detonation of the explosive, and the chemical agent is decomposed using the detonation, wherein the step of disposing the explosive on the outer side of the outer shell includes a step of disposing the explosive in direct contact with an outer surface of the outer shell on only one side of the cutting position, wherein the step of disposing the explosive on only one side of the cutting position includes the steps of: disposing the treatment subject inside a container; disposing a spacer in direct contact with the outer surface of the outer shell of the treatment subject on the other side of the cutting position; and charging the explosive into a space inside the container not occupied by the treatment subject and the spacer. disposing an explosive on the outer side of the outer shell such that a difference occurs in a detonation pressure of the explosive that acts on the outer shell from an outer side between one side and another side of a predetermined cutting position of the outer shell and the outer shell is cut by a shearing force generated as a result of the difference in the detonation pressure; and detonating the explosive, wherein, in the step of detonating the explosive, the chemical agent is exposed by cutting the outer shell in the cutting position through detonation of the explosive, and the chemical agent is decomposed using the detonation, wherein the step of disposing the explosive on the outer side of the outer shell includes a step of disposing the explosive in direct contact with an outer surface of the outer shell on only one side of the cutting position, wherein the step of disposing the explosive on only one side of the cutting position includes the steps of: disposing the treatment subject inside a container; disposing a spacer in direct contact with the outer surface of the outer shell of the treatment subject on the other side of the cutting position; and charging the explosive into a space inside the container not occupied by the treatment subject and the spacer. disposing the treatment subject inside a container; disposing a spacer in direct contact with the outer surface of the outer shell of the treatment subject on the other side of the cutting position; and charging the explosive into a space inside the container not occupied by the treatment subject and the spacer.
A method for calibrating a pump during a blood separation procedure having at least a first state where fluid is flowed to or from a reservoir by the pump, comprising: a) providing a predetermined value for a flow rate of fluid to or from the reservoir for the first state of the procedure; b) obtaining the weight of the reservoir at the beginning of the first state of the procedure; c) operating the pump to flow fluid to or from the reservoir to perform the first state of the procedure; d) obtaining the weight of the reservoir at the end of the first state of the procedure; e) comparing the weight of the reservoir at the beginning of the first state of the procedure to the weight of the reservoir at the end of the first state of the procedure to determine an actual flow rate of fluid to or from the reservoir; f) determining a variance between the actual flow rate and the predetermined value for the flow rate; and g) adjusting, based on the variance, the predetermined value for the flow rate for a second state of the procedure where fluid is flowed from a reservoir by the pump or for a subsequent performance of the first state if a calculated pump volume for the first state of the procedure is greater than or equal to (≥) a first predetermined amount. a) providing a predetermined value for a flow rate of fluid to or from the reservoir for the first state of the procedure; b) obtaining the weight of the reservoir at the beginning of the first state of the procedure; c) operating the pump to flow fluid to or from the reservoir to perform the first state of the procedure; d) obtaining the weight of the reservoir at the end of the first state of the procedure; e) comparing the weight of the reservoir at the beginning of the first state of the procedure to the weight of the reservoir at the end of the first state of the procedure to determine an actual flow rate of fluid to or from the reservoir; f) determining a variance between the actual flow rate and the predetermined value for the flow rate; and g) adjusting, based on the variance, the predetermined value for the flow rate for a second state of the procedure where fluid is flowed from a reservoir by the pump or for a subsequent performance of the first state if a calculated pump volume for the first state of the procedure is greater than or equal to (≥) a first predetermined amount.
A system for building and deploying an elongate element in a J-lay operation, comprising: an upright structure; a loading arm for holding a segment of the elongate element adjacent to the upright structure; a moveable clamping element for clamping the segment and lowering the segment; wherein the upright structure is shorter in length than the loading arm; wherein the moveable clamping element is moveable along the upright structure through a stroke length, wherein the stroke length is between 25% and 100% of the length of the upright structure an upright structure; a loading arm for holding a segment of the elongate element adjacent to the upright structure; a moveable clamping element for clamping the segment and lowering the segment; wherein the upright structure is shorter in length than the loading arm;
A computer implemented method of computer security for a host computer system in communication with remote computer systems, the method comprising: generating an attack map as a directed graph data structure modelling individual events leading to an exploitation of the host computer system, the attack map being generated in a training phase of the host computer system in which the host is subjected to attacks by one or more attacking remote computer systems, and generating the attack map includes the steps of: a) collecting a log of each of a plurality of attack events occurring at the host including network packets involved in each attack event; b) using stacked autoencoders to extract features from the log event in each attack; c) generating a directed graph representation based on each of the extracted features based on a temporal relationship between events for each extracted feature and a predefined definition of each of a plurality of attack patterns defining events and temporal relationships between events, responsive to an occurrence of a new attack in the host computer system, the attack not resulting in the generation of attack events constituting a path through the attack map to a known exploitation, triggering the regeneration of the attack map by the above steps including additionally events generated in respect of the new attack. generating an attack map as a directed graph data structure modelling individual events leading to an exploitation of the host computer system, the attack map being generated in a training phase of the host computer system in which the host is subjected to attacks by one or more attacking remote computer systems, and generating the attack map includes the steps of: a) collecting a log of each of a plurality of attack events occurring at the host including network packets involved in each attack event; b) using stacked autoencoders to extract features from the log event in each attack; c) generating a directed graph representation based on each of the extracted features based on a temporal relationship between events for each extracted feature and a predefined definition of each of a plurality of attack patterns defining events and temporal relationships between events, a) collecting a log of each of a plurality of attack events occurring at the host including network packets involved in each attack event; b) using stacked autoencoders to extract features from the log event in each attack; c) generating a directed graph representation based on each of the extracted features based on a temporal relationship between events for each extracted feature and a predefined definition of each of a plurality of attack patterns defining events and temporal relationships between events, responsive to an occurrence of a new attack in the host computer system, the attack not resulting in the generation of attack events constituting a path through the attack map to a known exploitation, triggering the regeneration of the attack map by the above steps including additionally events generated in respect of the new attack.
A method comprising: based on a known position of a reference object on a robot, causing the robot to move a tool toward the reference object on the robot, wherein the tool is connected to the robot at an attachment point; determining that the tool has contacted the reference object on the robot during a first contact event; receiving robot position data indicative of a position of the robot when the tool contacts the reference object on the robot during the first contact event; determining tool offset data for the tool based on at least the position of the reference object on the robot and the robot position data, wherein the tool offset data for the tool describes a distance between the attachment point and at least one point on the tool; and iteratively causing a plurality of contact events corresponding to a plurality of different robot positions by causing the tool to contact the reference object; receiving robot position data indicative of the plurality of different robot positions corresponding to the plurality of contact events; and determining a three-dimensional model of the tool based on the received robot position data. based on a known position of a reference object on a robot, causing the robot to move a tool toward the reference object on the robot, wherein the tool is connected to the robot at an attachment point; determining that the tool has contacted the reference object on the robot during a first contact event; receiving robot position data indicative of a position of the robot when the tool contacts the reference object on the robot during the first contact event; determining tool offset data for the tool based on at least the position of the reference object on the robot and the robot position data, wherein the tool offset data for the tool describes a distance between the attachment point and at least one point on the tool; and iteratively causing a plurality of contact events corresponding to a plurality of different robot positions by causing the tool to contact the reference object; receiving robot position data indicative of the plurality of different robot positions corresponding to the plurality of contact events; and determining a three-dimensional model of the tool based on the received robot position data.
A display device, wherein the display device comprises: color filters, which comprise red color filters, blue color filters, first green color filters configured to transmit a first green, and second green color filters configured to transmit a second green having a hue closer to a blue side than the first green; and a display portion, in which the color filters are disposed, and comprising pixels, characterized in that in the display portion, each pixel comprises either a first group of color filters or a second group of color filters, the first groups and second groups being arranged to form a repeating cell composed of two columns and n rows, n being an integer larger than 1, wherein in the first row of the cell, the first group and the second group alternate and in the last row of the cell, the first group and the second group alternate in a way opposite to the first row, the rest of the rows comprise only first groups, the first groups comprise the red color filters, the blue color filters and the first green color filters, the second groups comprise the red color filters, the blue color filters and the second green color filters, and the second group is equal to the first group in number of the color filters and different from the first group in a color filter combination. color filters, which comprise red color filters, blue color filters, first green color filters configured to transmit a first green, and second green color filters configured to transmit a second green having a hue closer to a blue side than the first green; and a display portion, in which the color filters are disposed, and comprising pixels, characterized in that in the display portion, each pixel comprises either a first group of color filters or a second group of color filters, the first groups and second groups being arranged to form a repeating cell composed of two columns and n rows, n being an integer larger than 1, wherein in the first row of the cell, the first group and the second group alternate and in the last row of the cell, the first group and the second group alternate in a way opposite to the first row, the rest of the rows comprise only first groups, the first groups comprise the red color filters, the blue color filters and the first green color filters, the second groups comprise the red color filters, the blue color filters and the second green color filters, and the second group is equal to the first group in number of the color filters and different from the first group in a color filter combination.
Rotatable drilling tool for chip removing machining comprising a basic body and an insert top that is detachably connectable to the basic body, the insert top having an axial extension along a longitudinal axis between a front insert end having chip removing capacity and a rear coupling end, which front insert end has a cutting diameter that in an associated cross-section defines a cutting circle having the longitudinal axis as the centre, the basic body having an axial extension along a longitudinal axis between a front coupling end and a rear fixing end, and comprising at least one chip flute (9, 40, 41), each at least one chip flute (9, 40, 41) extending from the coupling end toward the fixing end and being formed in such a way that, when the insert top is connected to the basic body, chips that are removed by the insert end are received in some one of each at least one chip flute for the transportation to the fixing end, in its coupling end, the insert top having a male part that extends axially outward from the coupling end, in its coupling end, the basic body having a female part that extends from the coupling end axially inward in the basic body, which female part is formed for the receipt of the male part of the insert top when the insert top is connected to the basic body, wherein, the basic body comprises a wall portion (34, 36) between the female part and each at least one chip flute (9, 40, 41), and each at least one chip flute (9, 40, 41), in each cross-section along the longitudinal axis of the basic body, having a depth that is equal to the difference between the radius of said cutting circle and a radius of a greatest possible core circle (29, 32, 46, 48, 50, 52) that has the longitudinal axis as the centre and that is tangent to a limiting curve of the respective chip flute in the cross-section in question, characterized in that the basic body is longitudinally divided into a coupling segment that extends axially rearward from the coupling end of the basic body, and into a transportation segment that is situated axially behind the coupling segment, extends rearward toward the fixing end of the basic body, and is longer than the coupling segment, each at least one chip flute (9, 40, 41) extending through the coupling segment and the transportation segment, at least essentially the entire female part is situated in the coupling segment, and each at least one chip flute (9, 40, 41) has a smaller depth in the coupling segment than in the transportation segment.
Door handle for a vehicle door of a motor vehicle, with a movable emergency opening element which can be brought into a mechanical operative connection with a locking system of the vehicle door, wherein the emergency opening element comprises a pulling means for actuating the locking system, in particular for unlocking and/or opening the vehicle door, and wherein the emergency opening element is movable between at least two positions (I, II), namely a rest position in which the emergency opening element is fixed to the door handle, and an operating position in which the emergency opening element can be actuated by a user to actuate the locking system by pulling on the pulling means, and a release device for the emergency opening element in order to automatically transfer the emergency opening element from the rest position to the operating position, in particular in an emergency situation, characterized in that the emergency opening element is arranged on a bottom side of the door handle.
A method of producing a grain oriented electrical steel sheet, the method comprising performing coating formation treatment on a surface of a grain oriented electrical steel sheet having no forsterite coating, wherein the coating formation treatment is performed with tension being applied by a roll (20, 40) to the grain oriented electrical steel sheet having no forsterite coating, wherein a tension measurement device (25, 45) measures a tension applied to the grain oriented electrical steel sheet having no forsterite coating, wherein a tension controller controls driving of the roll (20, 40) based on a measurement result of the tension measurement device (25, 45) to maintain the tension applied to the grain oriented electrical steel sheet having no forsterite coating at a constant value, and wherein the coating formation treatment is carried out by a chemical vapor deposition method or a physical vapor deposition method. wherein a tension measurement device (25, 45) measures a tension applied to the grain oriented electrical steel sheet having no forsterite coating, wherein a tension controller controls driving of the roll (20, 40) based on a measurement result of the tension measurement device (25, 45) to maintain the tension applied to the grain oriented electrical steel sheet having no forsterite coating at a constant value, and wherein the coating formation treatment is carried out by a chemical vapor deposition method or a physical vapor deposition method.
An article, comprising: a network of interconnected polymeric strands; wherein each of the interconnected polymeric strands has a height of from 100 to 2000 μm and an average width of from 10 to 500 μm; wherein each of the interconnected polymeric strands has a first surface adapted to contact a tissue site; wherein none of the interconnected polymeric strand has a feature extending from the first surface of the interconnected polymeric strands; wherein at least one of the interconnected polymeric strands is non-linear; and a plurality of openings between adjacent interconnected polymeric strands; wherein the article is a negative pressure wound therapy article, and wherein the aspect ratio of the openings is in the range of from greater than 1:1 to 100:1, wherein the aspect ratio is a length to width ratio of the openings, wherein the length of an opening is the longest lateral distance parallel to x direction, and the width of an opening is the longest distance parallel to y direction. a network of interconnected polymeric strands; wherein each of the interconnected polymeric strands has a height of from 100 to 2000 μm and an average width of from 10 to 500 μm; wherein each of the interconnected polymeric strands has a first surface adapted to contact a tissue site; wherein none of the interconnected polymeric strand has a feature extending from the first surface of the interconnected polymeric strands; wherein at least one of the interconnected polymeric strands is non-linear; and a plurality of openings between adjacent interconnected polymeric strands; wherein the article is a negative pressure wound therapy article, and wherein the aspect ratio of the openings is in the range of from greater than 1:1 to 100:1, wherein the aspect ratio is a length to width ratio of the openings, wherein the length of an opening is the longest lateral distance parallel to x direction, and the width of an opening is the longest distance parallel to y direction.
A cavity filter comprising: a dielectric resonator element; and a corrugated tube structure that surrounds the dielectric resonator element such that an outer wall surface of the dielectric resonator element is in contact with an inner sidewall of the corrugated tube structure, the corrugated tube structure including at least two spaced-apart corrugations (210A-210J) configured to deformably expand and contract the corrugated tube structure and further configured to clamp the dielectric resonator element within the corrugated tube structure. a dielectric resonator element; and a corrugated tube structure that surrounds the dielectric resonator element such that an outer wall surface of the dielectric resonator element is in contact with an inner sidewall of the corrugated tube structure, the corrugated tube structure including at least two spaced-apart corrugations (210A-210J) configured to deformably expand and contract the corrugated tube structure and further configured to clamp the dielectric resonator element within the corrugated tube structure.
A method of processing audio for source separation, the method comprising: obtaining an audio signal (S in) including a mixture of speech content and noise content; determining (S2a), from the audio signal, speech content (Ŝ 1); determining (S2b), from the audio signal, stationary noise content (N̂ 2); determining (S2c), from the audio signal, non-speech content (N̂ 1), wherein the stationary noise content (N̂ 2) is a true subset of the non-speech content (N̂ 1); determining, based on a difference between the stationary noise content (N̂ 2) and the non-speech content (N̂ 1) a non-stationary noise content (N̂ NS); obtaining a set of weighting factors, the set comprising a weighting factor corresponding to each of said speech content (Ŝ 1), said stationary noise content (N̂ 2), and said non-stationary noise content (N̂ NS) respectively; and forming a processed audio signal based on a combination of the speech content (Ŝ 1), the stationary noise content (N̂ 2), and the non-stationary noise content (N̂ NS) weighted with the respective weighting factor. obtaining an audio signal (S in) including a mixture of speech content and noise content; determining (S2a), from the audio signal, speech content (Ŝ 1); determining (S2b), from the audio signal, stationary noise content (N̂ 2); determining (S2c), from the audio signal, non-speech content (N̂ 1), wherein the stationary noise content (N̂ 2) is a true subset of the non-speech content (N̂ 1); determining, based on a difference between the stationary noise content (N̂ 2) and the non-speech content (N̂ 1) a non-stationary noise content (N̂ NS); obtaining a set of weighting factors, the set comprising a weighting factor corresponding to each of said speech content (Ŝ 1), said stationary noise content (N̂ 2), and said non-stationary noise content (N̂ NS) respectively; and forming a processed audio signal based on a combination of the speech content (Ŝ 1), the stationary noise content (N̂ 2), and the non-stationary noise content (N̂ NS) weighted with the respective weighting factor.