mhurhangee/ep-ind-claims huggingface dataset:
A folding wing for a missile, comprising: - a wing root, - an upper wing part foldably supported at the wing root around a swiveling axis, the upper wing part having a first hinge component with at least one first hinge bushing, said wing root comprising a second hinge component having at least one second hinge bushing, - at least one first elastically pre-stressed force element and - a latching device having form-fit means (30, 32, 35, 54) that are corresponding with each other,wherein the at least one first elastically pre-stressed force element is coupled with the wing root and the upper wing part, and is designed for permanently urging the upper wing part into a working position relative to the wing root through introducing a torque, wherein the latching device is designed for arresting the upper wing part on reaching the working position automatically, wherein an axle element extends through axle openings (22, 40) of the first hinge bushing and the second hinge bushing for defining the swiveling axis, wherein the first hinge bushing and the second hinge bushing are adapted for gliding along each other at least outside of the working position, wherein the first hinge bushing comprises a base, first form fit means (30, 32) at a distance to the swiveling axis and facing the wing root that is shaped in correspondence to second form fit means (35, 54), wherein said first form fit means (30, 32) are in the form of a first protrusion and a second protrusion which further extends from the base than the first protrusion, both protrusions (30,32) being at opposite edges of the base of the first hinge bushing, wherein second form fit means (35, 54) are in the form of a first upper resting surface at the second hinge bushing and a second resting surface at the wing root, and wherein the first form fit means (30, 32) and the second form fit means (35, 54) are arranged relative to each other in such a manner that the first form fit means (30, 32) only directly before and in the working position engages the second form-fit means (35, 54). - a wing root, - an upper wing part foldably supported at the wing root around a swiveling axis, the upper wing part having a first hinge component with at least one first hinge bushing, said wing root comprising a second hinge component having at least one second hinge bushing, - at least one first elastically pre-stressed force element and - a latching device having form-fit means (30, 32, 35, 54) that are corresponding with each other,wherein the at least one first elastically pre-stressed force element is coupled with the wing root and
A method of imaging a heterogeneous object having a first portion and a second portion, the first portion having the property of attenuating x-rays more than the second portion, the method comprising: positioning the heterogeneous object within a fixture having a chamber; adding an inert gas to the chamber, the inert gas comprising at least one of argon, xenon, and krypton; sealing the chamber to substantially contain the gas within the chamber; increasing the pressure within the sealed chamber as a function of the density of the second portion of the object, the density of the gas increasing with the increased pressure within the sealed chamber; penetrating x-rays through the object to produce a plurality of images of the object, the pressurized gas contrasting with the second portion of the object in at least some of the plurality of images to form a contrasting boundary, said boundary having topological details at least of the second portion of the object; generating a three-dimensional representation of the object using the contrast produced by the pressurized gas in the plurality of images, the three-dimensional representation of the object showing the topological details of the object; and measuring at least one of the topological object details of the contrasting boundary using the three-dimensional representation of the object. positioning the heterogeneous object within a fixture having a chamber; adding an inert gas to the chamber, the inert gas comprising at least one of argon, xenon, and krypton; sealing the chamber to substantially contain the gas within the chamber; increasing the pressure within the sealed chamber as a function of the density of the second portion of the object, the density of the gas increasing with the increased pressure within the sealed chamber; penetrating x-rays through the object to produce a plurality of images of the object, the pressurized gas contrasting with the second portion of the object in at least some of the plurality of images to form a contrasting boundary, said boundary having topological details at least of the second portion of the object; generating a three-dimensional representation of the object using the contrast produced by the pressurized gas in the plurality of images, the three-dimensional representation of the object showing the topological details of the object; and measuring at least one of the topological object details of the contrasting boundary using the three-dimensional representation of the object.
An agricultural machine arrangement comprising a tractor having a control device for open-loop and closed-loop control of the tractor, and a first working implement connected to the tractor, wherein the first working implement has ground engaging means, with which the first working implement is substantially supported on the ground, characterised in that the first working implement has an assembly for power generation, wherein at least one ground engaging means of the first working implement is drivable by the assembly, and wherein the ground engaging means are wheels and/or tracks.
A laminated chemical barrier fabric including at least first and second chemical barrier layers, which have an interfacial region therebetween and which are intermittently point bonded providing a point-bonded area which is in the minority and an un-bonded area which is in the majority in the interfacial region, wherein each of the chemical barrier layers (18, 20) comprises a single layer polymer film or a co-extruded (multilayer) film.
An active pixel formed in a semiconductor substrate comprising: a field oxide, "FOX", region formed on said substrate defining an active area; a photodiode formed from a junction of a first top portion of said substrate having a first conductivity type and a second bottom portion of said substrate having a second conductivity type opposite to the first conductivity type, the first top portion of said photodiode being formed underneath and substantially covered by said FOX region; an output node formed within said active area and adjacent to said photodiode; and a transfer gate formed over said substrate and between said output node and said photodiode, further wherein said transfer gate is formed on top of a second portion of said photodiode, such that the entire surface of the photodiode is covered by the transfer gate in combination with the FOX region; wherein: said substrate is a P-type substrate and said output node is an N+ region; and said photodiode is formed by an N-well formed in said P-type substrate; characterized in that said output node is formed within a P-well formed in said P-type substrate and said P-well is separated from said photodiode by a gap (A, B); and in that said gap is part of said P-type substrate and the doping concentration in the P-type substrate is lower than the doping concentration in the P-well. a field oxide, "FOX", region formed on said substrate defining an active area; a photodiode formed from a junction of a first top portion of said substrate having a first conductivity type and a second bottom portion of said substrate having a second conductivity type opposite to the first conductivity type, the first top portion of said photodiode being formed underneath and substantially covered by said FOX region; an output node formed within said active area and adjacent to said photodiode; and a transfer gate formed over said substrate and between said output node and said photodiode, further wherein said transfer gate is formed on top of a second portion of said photodiode, such that the entire surface of the photodiode is covered by the transfer gate in combination with the FOX region; said substrate is a P-type substrate and said output node is an N+ region; and said photodiode is formed by an N-well formed in said P-type substrate; characterized in that said output node is formed within a P-well formed in said P-type substrate and said P-well is separated from said photodiode by a gap (A, B); and
A bending method that feeds a long workpiece material (W,Wa-d) made of metal and having a plurality of thickness portions (W1-3) disposed at an angle relative to each other between rollers and bends the workpiece material (W,Wa-d) while rolling the workpiece material (W,Wa-d) with the rollers, wherein an initial shape of the workpiece material (W,Wa-d) is a straight line or a bend with a bend radius dimension larger than a target bend radius dimension, a thickness dimension of a cross section of the initial shape of the workpiece material (W,Wa-d) along a bend radius direction is set such that the thickness dimension on an inner peripheral part of the workpiece material (W,Wa-d) at an inner target bend radius (r) is set to a target thickness dimension (m) of the workpiece material (W,Wa-d) at the completion of bending, and the thickness dimension on an outer peripheral part of the workpiece material (W,Wa-d) at an outer target bend radius is set to a dimension obtained by multiplying the target thickness dimension (m) by a value that is obtained by dividing the outer target bend radius of the workpiece material (W,Wa-d) by the inner target bend radius (r) of the workpiece material (W,Wa-d), and the workpiece material (W,Wa-d) is fed between the rollers and is rolled in a way that an amount of rolling in a region on the outer side of the bend radius direction is larger than an amount of rolling in a region on the inner side of the bend radius direction, thereby bending the workpiece material (W,Wa-d) until it has the target bend radius dimensions and the target thickness dimension (m) at the outer peripheral part of the workpiece material (W,Wa-d). an initial shape of the workpiece material (W,Wa-d) is a straight line or a bend with a bend radius dimension larger than a target bend radius dimension, a thickness dimension of a cross section of the initial shape of the workpiece material (W,Wa-d) along a bend radius direction is set such that the thickness dimension on an inner peripheral part of the workpiece material (W,Wa-d) at an inner target bend radius (r) is set to a target thickness dimension (m) of the workpiece material (W,Wa-d) at the completion of bending, and the thickness dimension on an outer peripheral part of the workpiece material (W,Wa-d) at an outer target bend radius is set to a dimension obtained by multiplying the target thickness dimension (m) by a value that is obtained by dividing the outer target bend radius of the workpiece material (W,Wa-d) by the inner target bend radius (r) of the workpiece material (W,Wa-d), and the workpiece material (W,Wa-d) is fed between the rollers and is rolled in a way that an amount of rolling in a region on the outer side of the bend radius direction is larger than an amount of rolling in a region on the inner side of the bend radius direction, thereby bending the workpiece material (W,Wa-d) until it has the target bend radius dimensions and the target thickness dimension (m) at the outer peripheral part of the workpiece material (W,Wa-d).
A profile assembly, particularly of wing profiles of a side-hung/sash window, wherein the profile assembly comprises the following: - a first profile formed by a first outer profile and a first inner profile connected thereto by means of at least one insulating bar (50, 51); and - a second profile formed by a second outer profile and a second inner profile connected thereto by means of at least one insulating bar (52, 53), wherein the profiles (10, 11, 12, 13) can be brought into a closed position in which the profiles (10, 11, 12, 13) define a hollow space, wherein the profile assembly further comprises at least one inset which at least partly projects into the hollow space, wherein the at least one inset comprises a wall region which at least partly extends into the hollow space, characterized in that at least part of the wall region of the at least one inset is provided with a heat-reflecting layer, preferably a heat-reflecting film. - a first profile formed by a first outer profile and a first inner profile connected thereto by means of at least one insulating bar (50, 51); and - a second profile formed by a second outer profile and a second inner profile connected thereto by means of at least one insulating bar (52, 53),
A system for interpreting an electrocardiogram, comprising: an interpretation module configured to interpret an ECG to provide interpretation statements based on measurements of ECG waveforms, each interpretation statement describing a clinical condition detected from said measurements; and a display configured to display the interpretation statements and the ECG waveforms; characterized in that the system further comprises: a rendering module configured in non-transitory storage media to associate each interpretation statement with corresponding measurements of the ECG waveforms and to annotate the corresponding measurements associated with said interpretation statement on the ECG waveforms; and a selection device configured to select an interpretation statement for digitally highlighting portions of ECG waveforms that contribute to an interpretation statement, such that the rendering module renders, on a display, the annotations associated with the interpretation statement on the ECG waveforms to indicate reference locations and provide labels. an interpretation module configured to interpret an ECG to provide interpretation statements based on measurements of ECG waveforms, each interpretation statement describing a clinical condition detected from said measurements; and a display configured to display the interpretation statements and the ECG waveforms; characterized in that the system further comprises: a rendering module configured in non-transitory storage media to associate each interpretation statement with corresponding measurements of the ECG waveforms and to annotate the corresponding measurements associated with said interpretation statement on the ECG waveforms; and a selection device configured to select an interpretation statement for digitally highlighting portions of ECG waveforms that contribute to an interpretation statement, such that the rendering module renders, on a display, the annotations associated with the interpretation statement on the ECG waveforms to indicate reference locations and provide labels. a rendering module configured in non-transitory storage media to associate each interpretation statement with corresponding measurements of the ECG waveforms and to annotate the corresponding measurements associated with said interpretation statement on the ECG waveforms; and a selection device configured to select an interpretation statement for digitally highlighting portions of ECG waveforms that contribute to an interpretation statement, such that the rendering module renders, on a display, the annotations associated with the interpretation statement on the ECG waveforms to indicate reference locations and provide labels.
A method of operating a vehicle to process vehicle-generated data, comprising: applying, by the vehicle, a hash function to a combination of a first salt and a personally identifiable information that uniquely identifies a driver to generate a driver pseudonymized identifier, and applying the hash function to a combination of a second salt and a vehicle identification information that uniquely identifies the vehicle to generate a vehicle pseudonymized identifier; transmitting, by the vehicle, a salt generation information for a reconstruction of the first salt and the second salt to a vehicle manufacturer server having the personally identifiable information and the vehicle identification information; and transmitting, by the vehicle, pseudonymized vehicle-generated data identified by the driver pseudonymized identifier and the vehicle pseudonymized identifier to a data server different from the vehicle manufacturer server. applying, by the vehicle, a hash function to a combination of a first salt and a personally identifiable information that uniquely identifies a driver to generate a driver pseudonymized identifier, and applying the hash function to a combination of a second salt and a vehicle identification information that uniquely identifies the vehicle to generate a vehicle pseudonymized identifier; transmitting, by the vehicle, a salt generation information for a reconstruction of the first salt and the second salt to a vehicle manufacturer server having the personally identifiable information and the vehicle identification information; and transmitting, by the vehicle, pseudonymized vehicle-generated data identified by the driver pseudonymized identifier and the vehicle pseudonymized identifier to a data server different from the vehicle manufacturer server.
A demisable fuel supply system characterized in that it comprises: aluminum alloy liquid storage tank for storing a liquid propellant; aluminum alloy propellant management devices; and a plasma powder sprayed highly wettable and corrosion resistant titanium based coating covering selected internal surfaces of the liquid storage tank and propellant management devices. aluminum alloy liquid storage tank for storing a liquid propellant; aluminum alloy propellant management devices; and a plasma powder sprayed highly wettable and corrosion resistant titanium based coating covering selected internal surfaces of the liquid storage tank and propellant management devices.
A method for constructing a regular Quasi-Cyclic Low-Density Parity-Check, QC-LDPC, code, comprising: initializing each element of a first row and a first column in a cyclic shift value matrix of the regular QC-LDPC code to 0; obtaining K values satisfying a preset condition, wherein a value of K is equal to the number of columns of the cyclic shift value matrix, and the preset condition comprises that one of the K values is 0 and no duplicate number exists in a set consisting of differences each between any two of the K values; assigning the K values to K elements of a second row in the cyclic shift value matrix, respectively, wherein a first element of the second row is assigned a value of 0; searching, based on dimension quantity information of a circulant permutation matrix of the regular QC-LDPC code, for a value satisfying a preset girth condition for each element to be assigned a value, to obtain the cyclic shift value matrix, wherein each element to be assigned a value refers to an element other than elements of the first row, the second row, and the first column in the cyclic shift value matrix; constructing a check matrix of the regular QC-LDPC code based on the cyclic shift value matrix; and using the constructed regular QC-LDPC code for error correction by processing data to be transmitted or processing received data. initializing each element of a first row and a first column in a cyclic shift value matrix of the regular QC-LDPC code to 0; obtaining K values satisfying a preset condition, wherein a value of K is equal to the number of columns of the cyclic shift value matrix, and the preset condition comprises that one of the K values is 0 and no duplicate number exists in a set consisting of differences each between any two of the K values; assigning the K values to K elements of a second row in the cyclic shift value matrix, respectively, wherein a first element of the second row is assigned a value of 0; searching, based on dimension quantity information of a circulant permutation matrix of the regular QC-LDPC code, for a value satisfying a preset girth condition for each element to be assigned a value, to obtain the cyclic shift value matrix, wherein each element to be assigned a value refers to an element other than elements of the first row, the second row, and the first column in the cyclic shift value matrix; constructing a check matrix of the regular QC-LDPC code based on the cyclic shift value matrix; and using the constructed regular QC-LDPC code for error correction by processing data to be transmitted or processing received data.
A heat exchange unit for an absorption refrigerator, comprising: a first container; a first heat transfer tube group including a plurality of first heat transfer tubes arranged in rows and columns inside the first container; a first drip feed having a plurality of first portions for dripping arranged along a longitudinal direction of the first heat transfer tubes, the first drip feed being configured to drip a refrigerant liquid from the first portions toward the first heat transfer tube group; a second container; a second heat transfer tube group including a plurality of second heat transfer tubes arranged in rows and columns inside the second container; and a second drip feed having a plurality of second portions for dripping arranged along a longitudinal direction of the second heat transfer tubes, the second drip feed being configured to drip a solution from the second portions toward the second heat transfer tube group, characterised in that an interval between the second portions adjacent to each other in the longitudinal direction of the second heat transfer tubes is smaller than an interval between the first portions adjacent to each other in the longitudinal direction of the first heat transfer tubes. a first container; a first heat transfer tube group including a plurality of first heat transfer tubes arranged in rows and columns inside the first container; a first drip feed having a plurality of first portions for dripping arranged along a longitudinal direction of the first heat transfer tubes, the first drip feed being configured to drip a refrigerant liquid from the first portions toward the first heat transfer tube group; a second container; a second heat transfer tube group including a plurality of second heat transfer tubes arranged in rows and columns inside the second container; and a second drip feed having a plurality of second portions for dripping arranged along a longitudinal direction of the second heat transfer tubes, the second drip feed being configured to drip a solution from the second portions toward the second heat transfer tube group, characterised in that an interval between the second portions adjacent to each other in the longitudinal direction of the second heat transfer tubes is smaller than an interval between the first portions adjacent to each other in the longitudinal direction of the first heat transfer tubes.
A method of preparing a heat-treated product, comprising the sequential steps of: a) providing a raw material which comprises carbohydrate, protein and water, b) treating the raw material with an asparaginase, and c) heat treating to reach a final water content below 35 % by weight, wherein the heat treatment involves frying at temperatures of 150-180°C, baking in hot air at 160-310°C for 2-10 minutes, hot-plate heating and/or kilning of green malt. a) providing a raw material which comprises carbohydrate, protein and water, b) treating the raw material with an asparaginase, and c) heat treating to reach a final water content below 35 % by weight,
An aqueous solution for administration to a subject by subcutaneous, intravenous or intramuscular injection comprising an antibody protein at a concentration of at least 10 mg/mL and a stabilizing amount of polyethyleneimine, wherein the weight ratio of antibody protein to polyethyleneimine is at least 20.