mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit device comprising: a deep learning processor comprising: a matrix execution sub-system that comprises one or more processing elements; and a control unit configured to: monitor one or more parameters of a deep learning algorithm implemented in the deep learning processor; and based at least in part on the one or more monitored parameters, reconfigure the one or more processing elements to increase efficiency of the deep learning processor, wherein monitoring the one or more parameters comprises tracking a latency of the deep learning processor, wherein reconfiguring the deep learning processor comprises reconfiguring the deep learning processor to decrease latency when the latency has exceeded a threshold by reconfiguring the deep learning processor to arrange a broadcast configuration of one or more processing elements in a parallel configuration. a matrix execution sub-system that comprises one or more processing elements; and a control unit configured to: monitor one or more parameters of a deep learning algorithm implemented in the deep learning processor; and based at least in part on the one or more monitored parameters, reconfigure the one or more processing elements to increase efficiency of the deep learning processor, monitor one or more parameters of a deep learning algorithm implemented in the deep learning processor; and based at least in part on the one or more monitored parameters, reconfigure the one or more processing elements to increase efficiency of the deep learning processor,
A method for producing a fiber-containing particulate resin structure, comprising: a preparation step of solidifying bundles of fibers having an average length of from 3 mm to 50 mm with a resin to obtain pellets, wherein the average fiber length is determined by a method according to the description; a first step of melting the pellets to obtain a molten mixture of a resin composition in which the fibers are dispersed in an opened state in the resin that is molten; and a second step of extruding the molten mixture through a discharge port (12a, 22a), and cutting off the resin composition from the discharge port (12a, 22a) after a diameter of the resin composition that has been extruded through the discharge port (12a, 22a) has expanded to a value of 110% to 220% with respect to a diameter of the discharge port (12a, 22a), wherein the resin is a phenol novolac resin, a resol resin, or a combination thereof, the phenol novolac resin has a weight average molecular weight of 1,000 to 8,000, the resol resin has a weight average molecular weight of 1,000 to 100,000, wherein the weight average molecular weight is measured by gel permeation chromatography defined as the weight molecular weight calculated relative to polystyrene standards, and the fibers are glass fibers subjected to a surface treatment with a silane-based coupling agent. a preparation step of solidifying bundles of fibers having an average length of from 3 mm to 50 mm with a resin to obtain pellets, wherein the average fiber length is determined by a method according to the description; a first step of melting the pellets to obtain a molten mixture of a resin composition in which the fibers are dispersed in an opened state in the resin that is molten; and a second step of extruding the molten mixture through a discharge port (12a, 22a), and cutting off the resin composition from the discharge port (12a, 22a) after a diameter of the resin composition that has been extruded through the discharge port (12a, 22a) has expanded to a value of 110% to 220% with respect to a diameter of the discharge port (12a, 22a), wherein the resin is a phenol novolac resin, a resol resin, or a combination thereof, the phenol novolac resin has a weight average molecular weight of 1,000 to 8,000, the resol resin has a weight average molecular weight of 1,000 to 100,000, wherein the weight average molecular weight is measured by gel permeation chromatography defined as the weight molecular weight calculated relative to polystyrene standards, and the fibers are glass fibers subjected to a surface treatment with a silane-based coupling agent.
A method for producing a non-surface-treated hydrogel contact lens, comprising: forming a plurality of mold sections, each mold section being substantially identically structured and comprising a lens forming region which comprises a concave surface which is a negative of an optical quality anterior surface of a contact lens, and a convex surface which is a negative of an optical quality posterior surface of a contact lens; placing a lens precursor composition on the concave surface of a first mold section; placing a second mold section on the first mold section so that the convex surface of the second mold section and the concave surface of the first mold section form a contact lens shaped cavity; polymerizing the lens precursor composition in the contact lens shaped cavity to form a hydrogel contact lens; separating the second mold section and the first mold section; removing the hydrogel contact lens from either the first mold section or the second mold section; placing the hydrogel contact lens in an aqueous medium to hydrate the hydrogel contact lens; CHARACTERISED BY the non-surface-treated hydrogel contact lens being a non-surface-treated, wettable, silicone hydrogel contact lens; the lens precursor composition comprising at least one silicone containing monomer or macromer; the hydrogel contact lens formed by polymerizing the lens precursor composition being a silicone hydrogel contact lens; contacting the silicone hydrogel contact lens with a liquid to detach the lens from a surface of the mold section; extracting extractable components from the silicone hydrogel contact lens. forming a plurality of mold sections, each mold section being substantially identically structured and comprising a lens forming region which comprises a concave surface which is a negative of an optical quality anterior surface of a contact lens, and a convex surface which is a negative of an optical quality posterior surface of a contact lens; placing a lens precursor composition on the concave surface of a first mold section; placing a second mold section on the first mold section so that the convex surface of the second mold section and the concave surface of the first mold section form a contact lens shaped cavity; polymerizing the lens precursor composition in the contact lens shaped cavity to form a hydrogel contact lens; separating the second mold section and the first mold section; removing the hydrogel contact lens from either the first mold section or the second mold section; placing the hydrogel contact lens in an aqueous medium to hydrate the hydrogel contact lens;
A wound dressing composition comprising a chitosan, chitosan salt or a chitosan derivative, the chitosan derivative being a partially deacetylated chitin or a reaction product of chitosan with another compound; an anionic surfactant selected from sodium dodecyl sulphate, ammonium lauryl sulphate, dioctyl sodium sulfosuccinate, potassium lauryl sulphate, sodium dodecylbenzenesulfonate, sodium laureth sulphate, sodium myreth sulphate, sodium pareth sulphate, and combinations of any two or more thereof; a copolymer comprising a non-ionic triblock copolymer composed of a central hydrophobic chain of poly(propylene oxide) flanked by two hydrophilic chains of poly(ethylene oxide); and a physiologically acceptable acid in an amount of between 15% and 55% by weight of the wound dressing composition; wherein the wound dressing composition forms a gel upon contact with a fluid from a human or animal body, and is able to maintain gel integrity for at least 24 hours.
A method comprising: displaying to a user a current virtual scene of a virtual space from a current point of view at a current position, the virtual scene comprising a user-input artificial virtual object; mapping (110, 112) a three-dimensional gesture of the user to a corresponding three-dimensional gesture in the virtual space that interacts with the user-input artificial virtual object; and characterised by, in response to determining that the corresponding three-dimensional gesture in the virtual space interacts with the user-input artificial virtual object, displaying to the user a new virtual scene of the virtual space from a new point of view at a new position different to the current position. displaying to a user a current virtual scene of a virtual space from a current point of view at a current position, the virtual scene comprising a user-input artificial virtual object; mapping (110, 112) a three-dimensional gesture of the user to a corresponding three-dimensional gesture in the virtual space that interacts with the user-input artificial virtual object; and characterised by, in response to determining that the corresponding three-dimensional gesture in the virtual space interacts with the user-input artificial virtual object, displaying to the user a new virtual scene of the virtual space from a new point of view at a new position different to the current position.
A method of signing data, comprising: receiving, from a requestor, a request to sign the data according to a requested configuration selected from a first configuration, in which the data is for use with any of the set of devices, and a second configuration in which the data is for use only with a subset of a set of devices; modifying the data according to the requested configuration by: determining if the selected configuration is the first configuration; if the selected configuration is the first configuration, verifying that the requestor is permitted to sign the data in the first configuration; determining if the selected configuration is the second configuration; and adding an identifier to the data if the selected configuration is the second configuration; generating a data signature using the modified data; transmitting the generated data signature to the requestor; receiving the modified data and the data signature in a device of the subset of the set of devices; verifying the data signature; determining if the added identifier matches an expected identifier; and accepting the data (500, 500') for use by the device only if the data signature is verified and the added identifier matches the expected identifier, wherein the data (500, 500') comprises a code image and the added identifier renders the modified code image unusable by devices of the set of devices other than the subset of devices. receiving, from a requestor, a request to sign the data according to a requested configuration selected from a first configuration, in which the data is for use with any of the set of devices, and a second configuration in which the data is for use only with a subset of a set of devices; modifying the data according to the requested configuration by: determining if the selected configuration is the first configuration; if the selected configuration is the first configuration, verifying that the requestor is permitted to sign the data in the first configuration; determining if the selected configuration is the second configuration; and adding an identifier to the data if the selected configuration is the second configuration; determining if the selected configuration is the first configuration; if the selected configuration is the first configuration, verifying that the requestor is permitted to sign the data in the first configuration; determining if the selected configuration is the second configuration; and adding an identifier to the data if the selected configuration is the second configuration; generating a data signature using the modified data; transmitting the generated data signature to the requestor; receiving the modified data and the data signature in a device of the subset of the set of devices; verifying the data signature; determining if the added identifier matches an expected identifier; and accepting the data (500, 500') for use by the device only if the data signature is verified and the added identifier matches the expected identifier, wherein the data (500, 500') comprises a code image and the added identifier renders the modified code image unusable by devices of the set of devices other than the subset of devices.
A composition comprising at least one pentacyclic triterpene or one of the pharmaceutically acceptable salts thereof for use in the treatment and/or prevention of an oral-dental pathology, wherein the at least one pentacyclic triterpene is a mix of celastrol, tingenin A, and tingenin B.
A press hardened steel part wherein the chemical composition of the steel comprises, in weight: 0.062 ≤ C ≤ 0.095% 1.4% ≤ Mn ≤ 1.9% 0.2% ≤ Si ≤ 0.5% 0.020% ≤ Al ≤ 0.070% 0.02% ≤ Cr ≤ 0.1%, wherein: 1.5% ≤ (C + Mn+ Si+ Cr) ≤ 2.7% 0.040% ≤ Nb ≤ 0.060% 3.4 x N ≤Ti ≤ 7 x N wherein: 0.044% ≤ (Nb + Ti) ≤0,090% 0.0002 ≤ B ≤ 0.004% 0.001 % ≤N ≤ 0.009% 0.0005% ≤ S ≤ 0.003% 0.001 % ≤ P ≤ 0.020% optionally: 0.0001 % ≤ Ca ≤0.003%, the remainder being Fe and unavoidable impurities, and wherein the microstructure comprises, in the majority of said part, in surface fractions: less than 40% of bainite, less than 5% of austenite, less than 5% of ferrite, the remainder being martensite, said martensite consisting of fresh martensite and of self-tempered martensite. 0.062 ≤ C ≤ 0.095% 1.4% ≤ Mn ≤ 1.9% 0.2% ≤ Si ≤ 0.5% 0.020% ≤ Al ≤ 0.070% 0.02% ≤ Cr ≤ 0.1%, 1.5% ≤ (C + Mn+ Si+ Cr) ≤ 2.7% 0.040% ≤ Nb ≤ 0.060% 3.4 x N ≤Ti ≤ 7 x N 0.044% ≤ (Nb + Ti) ≤0,090% 0.0002 ≤ B ≤ 0.004% 0.001 % ≤N ≤ 0.009% 0.0005% ≤ S ≤ 0.003% 0.001 % ≤ P ≤ 0.020%
A method comprising: computing position information from a global navigation satellite system; computing altitude based on retrieved information from a vertical position sensor and a terrain database; computing a horizontal protection level associated with the position information; estimating an error for the terrain database based on the altitude, position information, and the horizontal protection level; and calculating a new protection level based on the position information and the altitude accounting for the estimated error for the terrain database. computing position information from a global navigation satellite system; computing altitude based on retrieved information from a vertical position sensor and a terrain database; computing a horizontal protection level associated with the position information; estimating an error for the terrain database based on the altitude, position information, and the horizontal protection level; and calculating a new protection level based on the position information and the altitude accounting for the estimated error for the terrain database.
An apparatus for a leading edge assembly for a wing of an aircraft comprising: a main wing structure having an upper surface, a lower surface, and a fixed leading edge; a leading edge device having a leading edge device outer surface forward of the main wing structure and a leading edge device inner surface extending between the leading edge device outer surface and the main wing structure, the leading edge device movable between a stowed position, in which at least a portion of the inner surface engages the main wing structure, and a deployed position, in which the inner surface is spaced from the main wing structure; and the main wing structure upper surface including a panel comprising a panel outer surface and having a rear edge, the panel being movable from a retracted position to an extended position, wherein in the retracted position, the leading edge device is in the stowed position such that the leading edge device outer surface and an intermediate portion of the main wing structure upper surface define a first continuous outer shape, and in the extended position, the leading edge device is in the deployed position such that the panel outer surface and the intermediate portion of the main wing structure upper surface define a second continuous outer shape; and wherein: the panel includes a front edge rotatably coupled to a front portion of the main wing structure upper surface by a hinge, the front portion being disposed forward of the intermediate portion; characterised by the apparatus further comprising a panel actuator operably coupled to the panel and configured to actuate the panel to the retracted position and to the extended position as the leading edge device moves to the deployed position. a main wing structure having an upper surface, a lower surface, and a fixed leading edge; a leading edge device having a leading edge device outer surface forward of the main wing structure and a leading edge device inner surface extending between the leading edge device outer surface and the main wing structure, the leading edge device movable between a stowed position, in which at least a portion of the inner surface engages the main wing structure, and a deployed position, in which the inner surface is spaced from the main wing structure; and the main wing structure upper surface including a panel comprising a panel outer surface and having a rear edge, the panel being movable from a retracted position to an extended position, wherein the panel includes a front edge rotatably coupled to a front portion of the main wing structure upper surface by a hinge, the front portion being disposed forward of the intermediate portion;
A capsule for containing a substance from which a beverage can be produced, comprising: - a capsule body that comprises: ∘ a base wall; and ∘ a side wall, wherein the side wall and the base wall define a space for containing said substance, - a centre element (28, 38, 52) which extends towards said space from the base wall, wherein the capsule body has been injection moulded including said centre element (28, 38, 52), and wherein a closure element is provided for closing an external end of the centre element (28, 38, 52), characterized in that, an internal end of the centre element is at least partially closed by a transverse wall, wherein there are outlet openings in the centre element for permitting liquid to flow from the capsule body, wherein an inner surface of the base wall has ribs (24, 34, 36, 54) thereon which stand proud of the base wall and define flow channels in between the ribs (24, 34, 36, 54) that connect to the outlet openings in the centre element (28, 38, 52), and wherein the centre element extends towards said space from the base wall to a height that is substantially equal to heights of radially inward ones of the ribs (24, 34, 36, 54) or radially inward portions of the ribs (34, 36, 54) that lie adjacent or terminate against the centre element (28, 38, 52). - a capsule body that comprises: ∘ a base wall; and ∘ a side wall, wherein the side wall and the base wall define a space for containing said substance, ∘ a base wall; and ∘ a side wall, - a centre element (28, 38, 52) which extends towards said space from the base wall, wherein the capsule body has been injection moulded including said centre element (28, 38, 52), and wherein a closure element is provided for closing an external end of the centre element (28, 38, 52), characterized in that, an internal end of the centre element is at least partially closed by a transverse wall, wherein there are outlet openings in the centre element for permitting liquid to flow from the capsule body, wherein an inner surface of the base wall has ribs (24, 34, 36, 54) thereon which stand proud of the base wall and define flow channels in between the ribs (24, 34, 36, 54) that connect to the outlet openings in the centre element (28, 38, 52), and wherein the centre element extends towards said space from the base wall to a height that is substantially equal to heights of radially inward ones of the ribs (24, 34, 36, 54) or radially inward portions of the ribs (34, 36, 54) that lie adjacent or terminate against the centre element (28, 38, 52).
A preparation method of a hemostatic anti-infection wound dressing, comprising the following steps of: dissolving N-hexylated chitosan in an acetum to obtain an N-hexylated chitosan acetum; wherein the degree of substitution of the N-hexylated chitosan is 8%-39%; mixing the N-hexylated chitosan acetum with glycerol and Manuka honey to obtain a mixture; coating the mixture onto a dressing substrate and then drying in order to obtain a hemostatic anti-infection wound dressing. dissolving N-hexylated chitosan in an acetum to obtain an N-hexylated chitosan acetum; wherein the degree of substitution of the N-hexylated chitosan is 8%-39%; mixing the N-hexylated chitosan acetum with glycerol and Manuka honey to obtain a mixture; coating the mixture onto a dressing substrate and then drying in order to obtain a hemostatic anti-infection wound dressing.
Device for interacting with a microswitch comprising: - an actuator mounted with the ability to rotate about an axis between at least a first angular position and a second angular position; - a microswitch comprising a body and a mobile part mounted on the body and able to be moved between an active position and a rest position; the mobile part being kept in the active position when the actuator is moved between the first angular position and a first intermediate position, said first intermediate position being situated between the first angular position and the second angular position, characterized in that the device for interaction comprises an elastic blade configured to keep the mobile part in the active position, said actuator being configured to move the elastic blade such that the mobile part moves into the rest position when said actuator is moved between the first intermediate position and a second intermediate position, said second intermediate position being situated between the first intermediate position and the second angular position. - an actuator mounted with the ability to rotate about an axis between at least a first angular position and a second angular position; - a microswitch comprising a body and a mobile part mounted on the body and able to be moved between an active position and a rest position; the mobile part being kept in the active position when the actuator is moved between the first angular position and a first intermediate position, said first intermediate position being situated between the first angular position and the second angular position, characterized in that the device for interaction comprises an elastic blade configured to keep the mobile part in the active position, said actuator being configured to move the elastic blade such that the mobile part moves into the rest position when said actuator is moved between the first intermediate position and a second intermediate position, said second intermediate position being situated between the first intermediate position and the second angular position.
A gas turbine manufacturing method for manufacturing a derivative gas turbine having a different cycle from a reference gas turbine including a reference compressor, the gas turbine manufacturing method comprising: designing a compressor of the derivative gas turbine by adding at least one additional stage between the last stage and a pre-stage immediately preceding the last stage of the reference compressor, wherein a disk (62a-62f) of the at least one additional stage is formed in structure same as structure of a disk of the pre-stage of the last stage of the reference compressor, and wherein a rotor blade of the at least one additional stage is formed in a shape same as a shape of a rotor blade of; the pre-stage and manufacturing the compressor of the derivative gas turbine on the basis of the design and manufacturing the derivative gas turbine. designing a compressor of the derivative gas turbine by adding at least one additional stage between the last stage and a pre-stage immediately preceding the last stage of the reference compressor, wherein a disk (62a-62f) of the at least one additional stage is formed in structure same as structure of a disk of the pre-stage of the last stage of the reference compressor, and wherein a rotor blade of the at least one additional stage is formed in a shape same as a shape of a rotor blade of; the pre-stage and manufacturing the compressor of the derivative gas turbine on the basis of the design and manufacturing the derivative gas turbine.