mhurhangee/ep-ind-claims huggingface dataset:
A gas impingement in-process cooling system, comprising: a deposition head (420; 720; 1120) which is movable relative to base materials (411; 711; 1112) and configured to execute a repair operation comprising a deposition of additional materials (421; 721; 1121) onto the base materials during deposition head movements; and a gas impingement assembly comprising impingement diffusers, a support structure to support the impingement diffusers at opposite sides of the base materials (411; 711; 1112) in a trailing position relative to the deposition head (420; 720; 1120) and a supply system configured to supply the impingement diffusers with impingement gas; characterized in that: each impingement diffuser comprises an elongate tubular element with an outer shell that is formed to define perforations, and each impingement diffuser is configured such that impingement gas supplied thereto is directed through the perforations toward the base materials (411; 711; 1112) and the additional materials (421; 721; 1121) in multiple directions. a deposition head (420; 720; 1120) which is movable relative to base materials (411; 711; 1112) and configured to execute a repair operation comprising a deposition of additional materials (421; 721; 1121) onto the base materials during deposition head movements; and a gas impingement assembly comprising impingement diffusers, a support structure to support the impingement diffusers at opposite sides of the base materials (411; 711; 1112) in a trailing position relative to the deposition head (420; 720; 1120) and a supply system configured to supply the impingement diffusers with impingement gas; characterized in that: each impingement diffuser comprises an elongate tubular element with an outer shell that is formed to define perforations, and each impingement diffuser is configured such that impingement gas supplied thereto is directed through the perforations toward the base materials (411; 711; 1112) and the additional materials (421; 721; 1121) in multiple directions.
A computer-implemented method for estimating shape parameters of an image data set of a fovea comprising the steps of: - Acquiring an image data set of the macula of an eye, the macula comprising a foveal pit and a foveal rim at least partially, - Estimating the center of the foveal pit from the image data set, - Estimating from the center of the foveal pit, radially extending height profiles (c) of the fovea, - For each height profile (c), fitting a model-function to the height profile (c), - Estimating for each height profile (c) a set of fit parameters from the fitted model-function, - Determining from the sets of estimated fit parameters at least one shape parameter of the fovea, particularly of the foveal pit, - Determining at least one shape feature of at least a part of the fovea, particularly of the foveal pit from the at least on shape parameter, characterized in that the model function is a Bézier function or wherein the model-function is a smooth composite Bézier path comprising Bézier-functions. - Acquiring an image data set of the macula of an eye, the macula comprising a foveal pit and a foveal rim at least partially, - Estimating the center of the foveal pit from the image data set, - Estimating from the center of the foveal pit, radially extending height profiles (c) of the fovea, - For each height profile (c), fitting a model-function to the height profile (c), - Estimating for each height profile (c) a set of fit parameters from the fitted model-function, - Determining from the sets of estimated fit parameters at least one shape parameter of the fovea, particularly of the foveal pit, - Determining at least one shape feature of at least a part of the fovea, particularly of the foveal pit from the at least on shape parameter,
Bucket with a wall and with a handle arrangement for carrying the bucket formed by at least one handle connected with the wall, pivotable in handle mountings around an axis of rotation, wherein the wall has an expansion extending in a longitudinal direction from one narrow side to an opposite narrow side as well as a an expansion in transverse direction from one wide side of the wall to an opposite wide side of the wall, wherein the expansion in longitudinal direction is greater than the expansion of transverse direction and the handle extends in longitudinal direction with a grab area to be grabbed by the user and is mounted on the wall in such a way that tilting the handle around an axis that is parallel to the transverse direction applies a tilting moment to the bucket, characterised in that the handle has a pouring spout on at least one of its ends, wherein the handle arrangement and the wall are designed in such a way that an outlet floor can flow through the outlet opening in the handle when the bucket is tilted at a right angle to the axis of rotation in the direction of one of the handle mountings.
A pharmaceutical formulation in the form of a tablet comprising a core and an optional coating, the core comprising quetiapine fumarate salt, or a solvate, or a polymorph thereof, characterized in that the core of said formulation comprises a non-gelling ethyl cellulose with an ethoxyl content of 48 - 49.5% and a viscosity of 18 to 24 mPa.s, wherein the proportion by weight of ethyl cellulose to the total weight of formulation is between 20 to 40%, wherein said quetiapine is in the form of its fumarate salt, and wherein the weight ratio of quetiapine to ethyl cellulose is between 0.1 to 10.
Method for producing a layer system on a dielectric substrate in which a metal layer is applied onto the substrate by a coating step and a further layer with a predetermined layer thickness is subsequently applied by a further coating step, the metal layer having a sheet resistance > 10 Mohm and an average reflectance > 50%, characterized in that - the further layer is applied by reactive sputtering with at least one element of the group titanium, zirconium, silicon, niobium, tantalum, cerium, aluminum, iridium, or chromium, with a reactive gas which comprises at least one element of the group nitrogen, carbon, oxygen, or boron, in which the further layer, if it is applied onto the substrate with the same layer thickness, would have a sheet resistance < 1 Mohm, and - the layer system comprising of the metal layer and the further layer has a sheet resistance > 10 mohm. - the further layer is applied by reactive sputtering with at least one element of the group titanium, zirconium, silicon, niobium, tantalum, cerium, aluminum, iridium, or chromium, with a reactive gas which comprises at least one element of the group nitrogen, carbon, oxygen, or boron, in which the further layer, if it is applied onto the substrate with the same layer thickness, would have a sheet resistance < 1 Mohm, and - the layer system comprising of the metal layer and the further layer has a sheet resistance > 10 mohm.
Device for the tolerance-compensating fitting of an attachment to a carrier part with a support plate and with a number of suspension arms (9, 10, 11) elastically designed in a radial direction, wherein a foot ring is present at an axial distance from the support plate, on which the ends of the suspension arms (9, 10, 11) that face away from the support plate are formed, wherein the foot ring is connected with the support plate via a number of connection bridges (5, 6, 7), and wherein each suspension arm (9, 10, 11) is arranged between two connection bridges (5, 6, 7) in a circumferential direction, characterised in that each connection bridge (5, 6, 7) has a foot section connected with the foot ring and extending in an axial direction, a head section connected with the support plate and extending in an axial direction as well as arranged radially inside the foot section, and a radial section extending in a radial direction and connecting the head section as well as foot section.
A communication apparatus for communicating with a plurality of base stations (1, 2,..., n) in an area covered by a plurality of sectors corresponding to said base stations (1,2,..., n), respectively, said communication apparatus comprising: receiving means (11, 12) for receiving signals from said sectors; calculating means for calculating a plurality of kinds of variation patterns for each of the signals from said sectors; and selecting means for selecting, as a selected sector, a particular sector suitable for connection with reference to a relationship among said sectors in said plurality of kinds of variation patterns, wherein said plurality of kinds of variation patterns are an average reception level of each of the signals from said sectors over a predetermined time range, a variation amount of each of the signals from said sectors over the predetermined time range, and a variation direction of each of the signals from said sectors over the predetermined time range, wherein said selecting means selects, as said particular sector, a sector superior in said average reception level, said variation amount, and said variation direction, and wherein said variation amount is obtained by calculating a difference between a current measured value and a previous measured value of a reception level of each of the signals from said sectors and summing up absolute values of the differences over the predetermined time range. receiving means (11, 12) for receiving signals from said sectors; calculating means for calculating a plurality of kinds of variation patterns for each of the signals from said sectors; and selecting means for selecting, as a selected sector, a particular sector suitable for connection with reference to a relationship among said sectors in said plurality of kinds of variation patterns, wherein said plurality of kinds of variation patterns are an average reception level of each of the signals from said sectors over a predetermined time range, a variation amount of each of the signals from said sectors over the predetermined time range, and a variation direction of each of the signals from said sectors over the predetermined time range, wherein said selecting means selects, as said particular sector, a sector superior in said average reception level, said variation amount, and said variation direction, and wherein said variation amount is obtained by calculating a difference between a current measured value and a previous measured value of a reception level of each of the signals from said sectors and summing up absolute values of the differences over the predetermined time range.
Aircraft seat with an armrest (100a, 102a; 100b) and with an aircraft seat device comprising at least one seat bottom unit (28a; 28b; 28c; 28d; 28e) which at least partly forms a sitting surface (30a; 30b; 30c), a backrest unit (40a; 40b; 40c; 40d; 40e), a mounting unit (14a; 14b; 14c; 14e) which is configured to be mounted on a mounting plane, the seat bottom unit (28a; 28b; 28d) being configured to be pivotally connected with the mounting unit (14a; 14b; 14d), and having at least one support element (52a, 54a, 56a, 58a; 52b, 54b; 52c, 54c; 52d, 54d; 52e) which extends at least over a large portion of a sitting depth of the sitting surface (30a; 30b; 30c) and which is configured to couple the seat bottom unit (28a; 28b; 28c; 28d; 28e) with the mounting unit (28a; 28b; 28c; 28e), wherein in at least one sitting position the at least one support element (52a, 54a, 56a, 58a; 52b, 54b; 52c, 54c; 52d, 54d; 52e) is arranged at least substantially underneath an upper edge of the seat bottom unit (28a; 28b; 28c), characterised in that the armrest (100a, 102a; 100b) is directly connected with the backrest unit (40a; 40b; 40c; 40d; 40e). the seat bottom unit (28a; 28b; 28d) being configured to be pivotally connected with the mounting unit (14a; 14b; 14d), and having at least one support element (52a, 54a, 56a, 58a; 52b, 54b; 52c, 54c; 52d, 54d; 52e) which extends at least over a large portion of a sitting depth of the sitting surface (30a; 30b; 30c) and which is configured to couple the seat bottom unit (28a; 28b; 28c; 28d; 28e) with the mounting unit (28a; 28b; 28c; 28e), wherein in at least one sitting position the at least one support element (52a, 54a, 56a, 58a; 52b, 54b; 52c, 54c; 52d, 54d; 52e) is arranged at least substantially underneath an upper edge of the seat bottom unit (28a; 28b; 28c), characterised in that the armrest (100a, 102a; 100b) is directly connected with the backrest unit (40a; 40b; 40c; 40d; 40e).
A computer-implemented method for training an adversarial neural network to simulate a stealthy blind false data injection attack on a cyber physical system, comprising: • using (step 204) supervised learning to generate an initial attack vector, by an adversarial attack generation model, based on inferred grid topology and historical measurements, wherein the adversarial attack generation model generates a mapping representing the inferred grid topology, and wherein the adversarial neural network is trained (step 202) by the adversarial attack generation model, with a subset of historical measurements as input and all historical measurements as output; • determining (step 206), by an adversarial verification model, a substitute bad data detection threshold by obtaining (step 205) pseudo-estimated measurements from the adversarial neural network utilizing the subset of the historical measurements as input; • generating (step 208) a final attack vector, by the adversarial verification model, based on a filtered subset of the initial attack vector utilizing the substitute bad data detection threshold, wherein the final attack vector enables creation (step 209) of a counter measure, wherein the final attack vector includes malicious data and wherein the counter measure includes storing final attack vectors in a security catalog for security purposes; • classifying, by the adversarial verification model, data in the initial attack vector into abnormal data and malicious data; and • generating and sending updated security parameters to the cyber physical system based on the counter measure. • using (step 204) supervised learning to generate an initial attack vector, by an adversarial attack generation model, based on inferred grid topology and historical measurements, wherein the adversarial attack generation model generates a mapping representing the inferred grid topology, and wherein the adversarial neural network is trained (step 202) by the adversarial attack generation model, with a subset of historical measurements as input and all historical measurements as output; • determining (step 206), by an adversarial verification model, a substitute bad data detection threshold by obtaining (step 205) pseudo-estimated measurements from the adversarial neural network utilizing the subset of the historical measurements as input; • generating (step 208) a final attack vector, by the adversarial verification model, based on a filtered subset of the initial attack vector utilizing the substitute bad data detection threshold, wherein the final attack vector enables creation (step 209) of a counter measure, wherein the final attack vector includes malicious data and wherein the counter measure includes storing final attack vectors in a security catalog for security purposes; • classifying, by the adversarial verification model, data in the initial attack vector into abnormal data and malicious data; and • generating and sending updated security parameters to the cyber physical system based on the counter measure.
Sorter for handling a fibrous material slurry having a screen basket and a system for monitoring the state of the screen basket of the sorter, having a wireless identification unit, which is associated with the screen basket arranged in a housing of the sorter, and an external, in particular mobile, reading unit for contactlessly reading technical data relating to the screen basket from the identification unit and for making a connection to a further external database containing data relating to the sorter.
A sealing structure comprising: a sealing device including a first seal lip having a first seal-lip end; and a support ring that supports the first seal lip; and a plurality of members that define an attachment space into which the sealing device is attached, the members including an inner peripheral wall arranged on the inner periphery side of the sealing device, a first end wall arranged on one axial end of the sealing device, a second end wall arranged on another axial end of the sealing device, and an outer peripheral wall arranged on the outer periphery side of the sealing device, wherein the first seal-lip end has a certain amount of interference with the inner peripheral wall and the first end wall so that its radial reaction force radially presses the support ring outward and its axial reaction force presses the support ring toward the second end wall, characterized in that: the sealing device is attached to the attachment space without contact with the outer peripheral wall. a sealing device including a first seal lip having a first seal-lip end; and a support ring that supports the first seal lip; and a plurality of members that define an attachment space into which the sealing device is attached, the members including an inner peripheral wall arranged on the inner periphery side of the sealing device, a first end wall arranged on one axial end of the sealing device, a second end wall arranged on another axial end of the sealing device, and an outer peripheral wall arranged on the outer periphery side of the sealing device, wherein the first seal-lip end has a certain amount of interference with the inner peripheral wall and the first end wall so that its radial reaction force radially presses the support ring outward and its axial reaction force presses the support ring toward the second end wall, an inner peripheral wall arranged on the inner periphery side of the sealing device, a first end wall arranged on one axial end of the sealing device, a second end wall arranged on another axial end of the sealing device, and an outer peripheral wall arranged on the outer periphery side of the sealing device, characterized in that: the sealing device is attached to the attachment space without contact with the outer peripheral wall.
An autoinjector comprising a body that is adapted to receive a reservoir containing fluid and including a piston and a needle, such as a pre-filled syringe, said body comprising a distal portion axially opposite from said needle, a middle portion, and a proximal portion on the needle side, said middle portion of said body including at least one middle window showing, before use, 100% of the fluid contained in said reservoir, and showing, after injection, said piston, said at least one middle window having an external shape in the shape of an arrow that points towards the proximal portion of said body, the proximal portion of said at least one middle window including a triangular end portion, forming the point of the arrow, the base of said triangular end portion, remote from said point, forming the widest portion of said middle window, so as to emphasize the arrow shape of the proximal portion of the middle window, characterized in that first anti rolling means are formed by at least one radically projecting edge of said at least one middle window, said middle portion of said body including two diametrically opposite middle windows, each including said first anti rolling means.
System for changing formats of products, in particular of foodstuffs, and conveying products in a main conveying direction, comprising a belt, a lining-up belt and a further belt, wherein the lining-up belt is arranged downstream of the belt in the main conveying direction, wherein the further belt is arranged downstream of the lining-up belt in the main conveying direction, wherein the lining-up belt has a transfer line for receiving foodstuffs from a preceding belt onto the lining-up belt, wherein the preceding belt is positioned as an intermediate belt between the belt and the lining-up belt, wherein the transfer line is variable in the main conveying direction, characterized in that the lining-up belt is rotatable about an axis of rotation, wherein the axis of rotation is positioned substantially orthogonal to the main conveying direction and in the main extent plane of the lining-up belt.
A force sensor, comprising an elastic tube and a strain gauge arranged on the elastic tube, wherein: the force sensor further comprises a pierced transverse slot formed in the elastic tube, the transverse slot having a first wall and a second wall; the force sensor characterised in that it further comprises at least one first limiting structure disposed between two opposing ends of the transverse slot, each of the at least first limiting structure comprising a first limiting portion and a second limiting portion, the first limiting portion being connected to the first wall, the second limiting portion being connected to the second wall; the first limiting portion is a female portion with a first internal surface and the second limiting portion is a male portion with a second external surface, the first internal surface and the second external surface being arranged opposite to each other and defining a clearance between the first internal surface and the second external surface, and wherein the second limiting portion is confined within the first limiting portion; and when the elastic tube is stretched by a force and the transverse slot deforms in an axial direction of the elastic tube, the first limiting portion and the second limiting portion are able to responsively move away from each other in the axial direction until being engaged with each other; wherein the first limiting portion and second limiting portion are both L-shaped portions that match each other in shape; or the first limiting portion is a trapezoidal male portion, and the second limiting portion is a trapezoidal female portion. the force sensor further comprises a pierced transverse slot formed in the elastic tube, the transverse slot having a first wall and a second wall; the force sensor characterised in that it further comprises at least one first limiting structure disposed between two opposing ends of the transverse slot, each of the at least first limiting structure comprising a first limiting portion and a second limiting portion, the first limiting portion being connected to the first wall, the second limiting portion being connected to the second wall; the first limiting portion is a female portion with a first internal surface and the second limiting portion is a male portion with a second external surface, the first internal surface and the second external surface being arranged opposite to each other and defining a clearance between the first internal surface and the second external surface, and wherein the second limiting portion is confined within the first limiting portion; and when the elastic tube is stretched by a force and the transverse slot deforms in an axial direction of the elastic tube, the first limiting portion and the second limiting portion are able to responsively move away from each other in the axial direction until being engaged with each other; wherein the first limiting portion and second limiting portion are both L-shaped portions that match each other in shape; or the first limiting portion is a trapezoidal male portion, and the second limiting portion is a trapezoidal female portion.