mhurhangee/ep-ind-claims huggingface dataset:
Method of detecting an attack by controlling a pre-charge process of a data line (21, 22) within a temporarily not selected memory area of a memory matrix in an integrated circuit, characterised in that a value of a voltage applied to the data line is differentiated to monitor a rate of change of the applied voltage to detect a voltage peak in opposite direction to the pre-charge.
A reel assembly for accepting, holding, and deploying cable, hose or umbilical connections, comprising: a spool assembly including a frame and a drum mounted in said frame, the drum including a core and end flanges for storing said cable, hose or umbilical connection; an air motor; an electro-pneumatic drive unit including a plurality of pneumatic valves, electro-pneumatic valves, or both, the air motor coupled to the drum via the electro-pneumatic drive unit; an electronic control unit coupled to the electro-pneumatic drive unit, where the electronic control unit receives input and transmits electrical signals to the electro-pneumatic drive unit to cause the electro-pneumatic drive unit to control the motor to rotate the drum, where the electronic control unit receives input and transmits electrical signals to the electro-pneumatic drive unit to cause the electro-pneumatic drive unit to increase or decrease the air pressure associated with the assembly characterized in that the reel assembly further comprises a sheave coupled to one or more sensors (502, 504) that determine either a force applied to the sheave, a length of cable, hose or umbilical connection deployed, or both, where the sheave is coupled to the electronic control unit and the electronic control unit receives information indicative of either the determined force, the length of cable, hose or umbilical connection deployed, or both. a spool assembly including a frame and a drum mounted in said frame, the drum including a core and end flanges for storing said cable, hose or umbilical connection; an air motor; an electro-pneumatic drive unit including a plurality of pneumatic valves, electro-pneumatic valves, or both, the air motor coupled to the drum via the electro-pneumatic drive unit; an electronic control unit coupled to the electro-pneumatic drive unit, where the electronic control unit receives input and transmits electrical signals to the electro-pneumatic drive unit to cause the electro-pneumatic drive unit to control the motor to rotate the drum, where the electronic control unit receives input and transmits electrical signals to the electro-pneumatic drive unit to cause the electro-pneumatic drive unit to increase or decrease the air pressure associated with the assembly characterized in that
A modular exterior component (100; 500) for a printing device, the exterior component (100; 500) comprising: a board; a cut-out in the board to accommodate user controls on the printing device; a lateral portion of the board that is lateral to the cut-out to cover a pocket (214; 220) in the printing device to contain a device adding functionality to the printing device; and a fastener to removably attach the board to the printing device; characterised in that the exterior component further comprises at least one of (i) an additional user input device incorporated into the board with a connector to connect to circuitry of the printing device, or (ii) a security hardware circuit incorporated into the board with a connector for connecting to circuitry of the printing device. a board; a cut-out in the board to accommodate user controls on the printing device; a lateral portion of the board that is lateral to the cut-out to cover a pocket (214; 220) in the printing device to contain a device adding functionality to the printing device; and a fastener to removably attach the board to the printing device; characterised in that the exterior component further comprises at least one of (i) an additional user input device incorporated into the board with a connector to connect to circuitry of the printing device, or (ii) a security hardware circuit incorporated into the board with a connector for connecting to circuitry of the printing device.
A method for transmitting sounding reference signal, SRS, in a multi-antenna system, characterized by comprising: acquiring antenna grouping information and grouping antennas according to said antenna grouping information; and transmitting SRS on the respective antennas, wherein different antenna groups transmit the SRS in different frequency bands at a same moment; before the transmitting, the method further comprising: determining parameters for the respective antenna groups to transmit SRS, wherein the parameters include a frequency hopping rule among different branches. acquiring antenna grouping information and grouping antennas according to said antenna grouping information; and transmitting SRS on the respective antennas, wherein different antenna groups transmit the SRS in different frequency bands at a same moment; determining parameters for the respective antenna groups to transmit SRS, wherein the parameters include a frequency hopping rule among different branches.
A computer-implemented method for providing third party data assets to clients, the method comprising: sending, by a computing device, a software development kit, wherein the software development kit comprises a template for building one or more rendering effect shaders; receiving, by the computing device, data assets, wherein the data assets comprise one or more rendering effect shaders built using the software development kit; storing, by the computing device, the data assets; and providing, by the computing device, an augmented reality rendering experience, wherein augmented reality renderings are based at least in part on the data assets, wherein the augmented reality rendering is generated by: receiving, by the computing device, user data including image data or video data captured by a user device; processing, by the computing device, the user data with an encoder model to generate a user mesh; and processing, by the computing device, the user mesh with an augmentation model to generate the augmented reality rendering, wherein the augmentation model comprises shaders based at least in part on the data assets. sending, by a computing device, a software development kit, wherein the software development kit comprises a template for building one or more rendering effect shaders; receiving, by the computing device, data assets, wherein the data assets comprise one or more rendering effect shaders built using the software development kit; storing, by the computing device, the data assets; and providing, by the computing device, an augmented reality rendering experience, wherein augmented reality renderings are based at least in part on the data assets, wherein the augmented reality rendering is generated by: receiving, by the computing device, user data including image data or video data captured by a user device; processing, by the computing device, the user data with an encoder model to generate a user mesh; and processing, by the computing device, the user mesh with an augmentation model to generate the augmented reality rendering, wherein the augmentation model comprises shaders based at least in part on the data assets. receiving, by the computing device, user data including image data or video data captured by a user device; processing, by the computing device, the user data with an encoder model to generate a user mesh; and processing, by the computing device, the user mesh with an augmentation model to generate the augmented reality rendering, wherein the augmentation model comprises shaders based at least in part on the data assets.
An outsole for a shoe, wherein the outsole is intended to be ground-contacting and comprises a rubber composition comprising, based on parts by weight per 100 parts by weight elastomer (phr): conjugated diene-based elastomer comprising: from 20 to 45 phr of solvent solution polymerization prepared styrene/butadiene elastomer (SSBR) extended with vegetable triglyceride oil, wherein said solvent solution polymerization prepared styrene/butadiene elastomer (SSBR) has a glass transition temperature (Tg) in a range of from -20°C to +10°C, a bound styrene content in a range of from 25 to 50 percent and a vinyl 1,2-content in a range of from 10 to 80 percent based on butadiene content; from 55 to 80 phr of at least one additional conjugated diene-based elastomer comprising at least one of polybutadiene, polyisoprene rubber, cis 1,4-polyisoprene rubber, acrylonitrile-butadiene rubber and combinations thereof; and from 20 to 70 phr of a reinforcing filler comprising a combination of a rubber reinforcing carbon black and silica, preferably precipitated silica, where the reinforcing filler comprises from 50 to 100 weight percent of said silica, preferably precipitated silica. conjugated diene-based elastomer comprising: from 20 to 45 phr of solvent solution polymerization prepared styrene/butadiene elastomer (SSBR) extended with vegetable triglyceride oil, wherein said solvent solution polymerization prepared styrene/butadiene elastomer (SSBR) has a glass transition temperature (Tg) in a range of from -20°C to +10°C, a bound styrene content in a range of from 25 to 50 percent and a vinyl 1,2-content in a range of from 10 to 80 percent based on butadiene content; from 55 to 80 phr of at least one additional conjugated diene-based elastomer comprising at least one of polybutadiene, polyisoprene rubber, cis 1,4-polyisoprene rubber, acrylonitrile-butadiene rubber and combinations thereof; and from 20 to 45 phr of solvent solution polymerization prepared styrene/butadiene elastomer (SSBR) extended with vegetable triglyceride oil, wherein said solvent solution polymerization prepared styrene/butadiene elastomer (SSBR) has a glass transition temperature (Tg) in a range of from -20°C to +10°C, a bound styrene content in a range of from 25 to 50 percent and a vinyl 1,2-content in a range of from 10 to 80 percent based on butadiene content; from 55 to 80 phr of at least one additional conjugated diene-based elastomer comprising at least one of polybutadiene, polyisoprene rubber, cis 1,4-polyisoprene rubber, acrylonitrile-butadiene rubber and combinations thereof; and from 20 to 70 phr of a reinforcing filler comprising a combination of a rubber reinforcing carbon black and silica, preferably precipitated silica, where the reinforcing filler comprises from 50 to 100 weight percent of said silica, preferably precipitated silica.
An implantable delivery device for delivery of a bioactive agent to a subject, the device comprising: a bioactive agent within or on the implantable delivery device; a wall having a surface; a plurality of nanostructures extending from the surface of the wall, and a plurality of microstructures extending from the surface of the wall; wherein the nanostructures have a cross-sectional dimension smaller than the microstructures; and wherein the plurality of nanostructures and plurality of microstructures are arranged in a fractal dimension of greater than 1. a bioactive agent within or on the implantable delivery device; a wall having a surface; a plurality of nanostructures extending from the surface of the wall, and a plurality of microstructures extending from the surface of the wall; wherein the nanostructures have a cross-sectional dimension smaller than the microstructures; and wherein the plurality of nanostructures and plurality of microstructures are arranged in a fractal dimension of greater than 1.
An air electrode for a metal-air battery, the air electrode comprising: a separator comprising a hydroxide-ion-conductive inorganic solid electrolyte being a dense ceramic material; characterized by an air electrode layer (12, 12', 12") disposed on the separator and comprising an air electrode catalyst, an electron-conductive material, and a hydroxide-ion-conductive material (15, 15'), or comprising an air electrode catalyst also serving as an electron-conductive material and a hydroxide-ion-conductive material (15, 15'), wherein the air electrode layer (12, 12', 12") comprises a first air electrode sublayer having a higher content of hydroxide-ion-conductive material (15, 15') than a second air electrode sublayer having a lower content of the hydroxide-ion-conductive material (15, 15') wherein the first air electrode sublayer is in contact with the separator and the second air electrode sublayer is exposed to external air. a separator comprising a hydroxide-ion-conductive inorganic solid electrolyte being a dense ceramic material; characterized by an air electrode layer (12, 12', 12") disposed on the separator and comprising an air electrode catalyst, an electron-conductive material, and a hydroxide-ion-conductive material (15, 15'), or comprising an air electrode catalyst also serving as an electron-conductive material and a hydroxide-ion-conductive material (15, 15'), wherein the air electrode layer (12, 12', 12") comprises a first air electrode sublayer having a higher content of hydroxide-ion-conductive material (15, 15') than a second air electrode sublayer having a lower content of the hydroxide-ion-conductive material (15, 15') wherein the first air electrode sublayer is in contact with the separator and the second air electrode sublayer is exposed to external air.
A device for sharpening a cutting tool blade, of the knife type or the like, comprising at least two flexible discs each having an abrasive inner face, side by side with their abrasive faces facing each other, mounted in rotation in a same direction and at the same speed about a same axis, characterized in that said sharpening device comprises: - pressing means, arranged outwardly and clamping said flexible discs along a non-diametric chord, - means inside said discs exerting a bearing pressure on the inner faces of the discs, in their portions delimited by the chord and through which does not pass the axis, the choice of the positioning of said internal means relative to said pressing means defining the sharpening angle (a). - pressing means, arranged outwardly and clamping said flexible discs along a non-diametric chord, - means inside said discs exerting a bearing pressure on the inner faces of the discs, in their portions delimited by the chord and through which does not pass the axis, the choice of the positioning of said internal means relative to said pressing means defining the sharpening angle (a).
A compound of the following general formula: wherein R 1 is a hydrogen atom; R 2, R 3, R 4, R 5, R 6, and R 7 are a hydrogen atom; R 8 and R 9 are a hydrogen atom; X is a C 1 alkylene group; R 10 is a monovalent substituent cleaved by contact with calpain, and said monovalent substituent is consisting of an oligopeptide residue having a sequence of Leu-Leu-Tyr or Leu-Met (the amino acid at the right end of the sequence bonds directly to the NH group bonded to the xanthene skeleton), the N end of said oligopeptide residue may be protected; or a salt thereof. wherein R 1 is a hydrogen atom; R 2, R 3, R 4, R 5, R 6, and R 7 are a hydrogen atom; R 8 and R 9 are a hydrogen atom; X is a C 1 alkylene group; R 10 is a monovalent substituent cleaved by contact with calpain, and said monovalent substituent is consisting of an oligopeptide residue having a sequence of Leu-Leu-Tyr or Leu-Met (the amino acid at the right end of the sequence bonds directly to the NH group bonded to the xanthene skeleton), the N end of said oligopeptide residue may be protected; or a salt thereof.
Sliding element, in particular piston ring, which on at least one running surface from the inside to the outside has a coating with a metal-containing adhesive layer and a DLC layer of the type ta-C having a thickness of at least 10 μm, wherein the ta-C layer has an sp3 content of hybridised carbon atoms of at least 40 at%, characterised in that the ta-C layer has hydrogen with a content of less than 0.5 at% and the sp3 content is reduced in the outer 1 μm to 3 μm of the layer.
A method for manufacturing a vacuum heat insulator (100A-I, 100A-II, 100B-I, 100B-II), the vacuum heat insulator (100A-I, 100A-II, 100B-I, 100B-II) comprising an envelop made by arranging films each having a heat-weld layer and an airtight layer such that the heat-weld layers face each other, and a core member housed in an interior of the envelop, the envelop having a welded part (X1, X2) where the heat-weld layers are heat-welded together in a predetermined width over an entire periphery of the core member and a protective welded part formed outside the welded part, and the vacuum heat insulator (100A-I, 100A-II, 100B-I, 100B-II) having the interior in an reduced-pressure state, the method comprising the steps of: housing the core member in the interior of the envelop having an unwelded part where a portion becoming later the welded part is still unwelded; heat-welding the heat-weld layers together under reduced pressure into a state in which all the unwelded part is welded, after or without heat-welding in advance the heat-weld layers of the unwelded part while leaving a part thereof necessary for pressure reduction, for the envelop housing the core member, wherein any of the heat-welding is performed to leave outside of the welded part an end part of a predetermined width from an outer edge of the envelop housing the core member; cleaning surfaces of the heat-weld layers facing each other at the end part of the envelop left outside a post-housing welded part which has been heat-welded after housing the core member, wherein the cleaning is at least one selected from the group consisting of wiping out a dust on the surfaces using paper or cloth, causing the dust to adhere to a sticky material, blowing away the dust by blowing of air, and sucking the dust by a vacuum cleaner; and forming the protective welded part to have a region where the cleaned heat-weld layers are heat-welded together outside the post-housing welded part. housing the core member in the interior of the envelop having an unwelded part where a portion becoming later the welded part is still unwelded; heat-welding the heat-weld layers together under reduced pressure into a state in which all the unwelded part is welded, after or without heat-welding in advance the heat-weld layers of the unwelded part while leaving a part thereof necessary for pressure reduction, for the envelop housing the core member, wherein any of the heat-welding is performed to leave outside of the welded part an end part of a predetermined width from an outer edge of the envelop housing the core member; cleaning surfaces of the heat-weld layers facing each other at the end part of the envelop left outside a post-housing welded part which has been heat-welded after housing the core member, wherein the cleaning is at least one selected from the group consisting of wiping out a dust on the surfaces using paper or cloth, causing the dust to adhere to a sticky material, blowing away the dust by blowing of air, and sucking the dust by a vacuum cleaner; and forming the protective welded part to have a region where the cleaned heat-weld layers are heat-welded together outside the post-housing welded part.
A computer-implemented method for providing a template for a casting matrix configured for casting one or more artificial gingiva parts of a removable denture, the casting matrix comprising one or more recesses, each of the recesses having a 3D geometric form, which is a negative of a 3D geometric form of a section of the removable denture with one of the artificial gingiva parts to be casted, the method comprising: providing a 3D digital tissue model of tissue of an oral cavity of a patient on which the removable denture is to be arranged, providing a 3D digital denture model of the removable denture using the 3D digital tissue model, the removable denture comprising one or more artificial teeth arranged within the one or more artificial gingiva parts arranged on the 3D digital tissue model, generating using the 3D digital tissue model and the 3D digital denture model a 3D digital matrix model of the casting matrix, the 3D digital matrix model enveloping the one or more sections of the 3D digital denture model with the one or more artificial gingiva parts arranged on the 3D digital tissue model, providing the 3D digital matrix model as the template for manufacturing the casting matrix, the 3D digital matrix model being provided in a two-part form comprising a vestibular part and an oral part, the vestibular and oral parts being configured to establish a non-destructive detachable connection with each other. providing a 3D digital tissue model of tissue of an oral cavity of a patient on which the removable denture is to be arranged, providing a 3D digital denture model of the removable denture using the 3D digital tissue model, the removable denture comprising one or more artificial teeth arranged within the one or more artificial gingiva parts arranged on the 3D digital tissue model, generating using the 3D digital tissue model and the 3D digital denture model a 3D digital matrix model of the casting matrix, the 3D digital matrix model enveloping the one or more sections of the 3D digital denture model with the one or more artificial gingiva parts arranged on the 3D digital tissue model, providing the 3D digital matrix model as the template for manufacturing the casting matrix, the 3D digital matrix model being provided in a two-part form comprising a vestibular part and an oral part, the vestibular and oral parts being configured to establish a non-destructive detachable connection with each other.
The use of barium sulphate and water for increasing the Notched Izod Impact Strength (determined in accordance with ISO180 as described in the description) of a polymeric material which comprises a repeat unit of formula where t1 and w1 independently represent 0 or 1 and v1 represents 0, 1 or 2, wherein the ratio of the wt% of barium sulphate to the wt% of polymeric material is greater than 0.04 and is less than 0.4; wherein the wt% of said polymeric material in a composition which includes said barium sulphate is at least 50wt%.
A control device for a vehicle configured to determine the perceptual load corresponding to a level of information load of a visual and dynamic driving scene, directly from the latter and without requiring intrusive measures of the driver behaviour, the driving scene corresponding to a driver's perspective, the control device being configured to: receive a sensor output of a sensor, the sensor sensing the visual driving scene, extract a set of scene features from the sensor output, the set of scene features representing static and/or dynamic information of the visual driving scene, and determine the perceptual load corresponding to a level of information load of the set of extracted scene features using a predetermined load model, wherein the load model is predetermined by training using reference video scenes each being labelled with a load value that is human-based determined, the reference video scenes showing examples of various driving scenarios and corresponding to a driver's perspective. receive a sensor output of a sensor, the sensor sensing the visual driving scene, extract a set of scene features from the sensor output, the set of scene features representing static and/or dynamic information of the visual driving scene, and determine the perceptual load corresponding to a level of information load of the set of extracted scene features using a predetermined load model, wherein the load model is predetermined by training using reference video scenes each being labelled with a load value that is human-based determined, the reference video scenes showing examples of various driving scenarios and corresponding to a driver's perspective.