mhurhangee/ep-ind-claims huggingface dataset:
An anti-flooding device, comprising: - an expandable supporting structure, apt to assume a first configuration of minimum encumbrance, wherein it can be transported on a site subject to flooding, and a second deployed operating configuration, wherein said structure is longitudinally expanded to form a substantially oblong body apt to define, in use, an artificial embankment, said supporting structure being formed by a plurality of segments arranged angled relative to one another so as to define a sequence of sub-structures or coils, wherein said device, in said deployed configuration, has a side proximal to the water to contain substantially oblique; and - a tubular covering element, made of waterproof and deformable material, covering said supporting structure, said covering element further having, at least at a portion thereof apt to be exposed on said side proximal to the water to contain, a plurality of holes or micro-holes apt to allow a passage of water, wherein said supporting structure has a longitudinally expandable-helix construction with said sub-structures or coils in such a way to realize a bellows system, the device being configured in such a way that, in said first configuration of minimum encumbrance, said polygonal coils are arranged longitudinally juxtaposed to each other and said covering element has its own flaps folded between said said sub-structures or coils, and the device being configured to provide, in said deployed configuration, a curved extension suitable to fit the curvature of the natural banks and / or define any privileged path for a watercourse, characterised in that said sub-structures or coils are triangular, the device comprising a plurality of reinforcement support elements arranged or apt to be arranged internally to said supporting structure and connected to the latter, wherein each reinforcement support element has a profile mating with said supporting structure, each reinforcement support element being configured to be disposed internally of said supporting structure at a sub-structure or coil thereof, of which reproduces the triangular profile. - an expandable supporting structure, apt to assume a first configuration of minimum encumbrance, wherein it can be transported on a site subject to flooding, and a second deployed operating configuration, wherein said structure is longitudinally expanded to form a substantially oblong body apt to define, in use, an artificial embankment, said supporting structure being formed by a plurality of segments arranged angled relative to one another so as to define a sequence of sub-structures or coils, wherein said device, in said deployed configuration, has a side proximal to the water to contain substantially oblique; and - a tubular covering element, made of waterproof and deformable material, covering said supporting structure, said covering element further having, at least at a portion thereof apt to be exposed on said side proximal to the water to contain, a plurality of holes or micro-holes apt to allow a passage of water,
A composition comprising a cosmetically or pharmaceutically acceptable base and at least 0.01 % by weight of the oxidized peptide (SEQ ID NO: 1) Y - G - G - F - M-O Tyr - Gly - Gly - Phe - MetO. (SEQ ID NO: 1) Y - G - G - F - M-O Tyr - Gly - Gly - Phe - MetO.
An inverter circuit (500, 600), comprising: a first PMOS transistor (505, 615) comprising a first terminal connected to an input (VHVP-IN) of the inverter circuit, a second terminal, and a gate; a first capacitor (515, 620) comprising a first terminal coupled to the second terminal of the first PMOS transistor and a second terminal; a first NMOS transistor (510, 625) comprising a first terminal connected to the first terminal of the first capacitor, a second terminal connected to ground, and a gate; a second MOS transistor (520, 630) comprising a first terminal coupled to the second terminal of the first capacitor, a second terminal, and a gate; a third MOS transistor (525, 635) comprising a first terminal coupled to the second terminal of the second MOS transistor, a second terminal coupled to ground, and a gate coupled to the gate of the second MOS transistor; a fourth PMOS transistor (535, 610) comprising a first terminal, a second terminal coupled to the second terminal of the first capacitor, and a gate coupled to the second terminal of the first capacitor; and a fifth PMOS transistor (530, 605) comprising a first terminal coupled to an output (VHVN-OUT) of the inverter circuit, a second terminal coupled to the first terminal of the fourth PMOS transistor, and a gate coupled to the second terminal of the first capacitor; wherein the inverter circuit inverts a voltage on the input to generate a voltage on the output. a first PMOS transistor (505, 615) comprising a first terminal connected to an input (VHVP-IN) of the inverter circuit, a second terminal, and a gate; a first capacitor (515, 620) comprising a first terminal coupled to the second terminal of the first PMOS transistor and a second terminal; a first NMOS transistor (510, 625) comprising a first terminal connected to the first terminal of the first capacitor, a second terminal connected to ground, and a gate; a second MOS transistor (520, 630) comprising a first terminal coupled to the second terminal of the first capacitor, a second terminal, and a gate; a third MOS transistor (525, 635) comprising a first terminal coupled to the second terminal of the second MOS transistor, a second terminal coupled to ground, and a gate coupled to the gate of the second MOS transistor; a fourth PMOS transistor (535, 610) comprising a first terminal, a second terminal coupled to the second terminal of the first capacitor, and a gate coupled to the second terminal of the first capacitor; and a fifth PMOS transistor (530, 605) comprising a first terminal coupled to an output (VHVN-OUT) of the inverter circuit, a second terminal coupled to the first terminal of the fourth PMOS transistor, and a gate coupled to the second terminal of the first capacitor; wherein the inverter circuit inverts a voltage on the input to generate a voltage on the output.
A method of operating a computing system by a creator of controller program content to facilitate protecting control data used in an industrial automation environment, the method comprising: generating an encryption key pair for an industrial controller, wherein the encryption key pair comprises a public key and a private key; storing the private key within a secure storage system of the industrial controller; creating controller program content intended for execution on the industrial controller, wherein controller program content provides control instructions that are processed by the industrial controller to drive a machine system (130, 420) in the industrial automation environment; encrypting controller program content using the public key to generate encrypted controller content; and providing the encrypted controller content to the industrial controller, wherein the industrial controller is configured to decrypt the encrypted controller content using the private key, to execute the controller program content to drive a machine system in the industrial automation environment, to only execute encrypted controller program content that is decrypted with the private key and to disallow execution of any content received in an unencrypted format, wherein the industrial controller is configured to always retrieve the private encryption key from the secure storage system prior to execution and to not execute controller program content that was not encrypted using the public key. generating an encryption key pair for an industrial controller, wherein the encryption key pair comprises a public key and a private key; storing the private key within a secure storage system of the industrial controller; creating controller program content intended for execution on the industrial controller, wherein controller program content provides control instructions that are processed by the industrial controller to drive a machine system (130, 420) in the industrial automation environment; encrypting controller program content using the public key to generate encrypted controller content; and providing the encrypted controller content to the industrial controller, wherein the industrial controller is configured to decrypt the encrypted controller content using the private key, to execute the controller program content to drive a machine system in the industrial automation environment, to only execute encrypted controller program content that is decrypted with the private key and to disallow execution of any content received in an unencrypted format, wherein the industrial controller is configured to always retrieve the private encryption key from the secure storage system prior to execution and to not execute controller program content that was not encrypted using the public key.
A wind turbine blade comprising: a blade body whose chord length increases from a blade tip toward a blade root, wherein if the blade body is represented by a thickness ratio and a suction-side convexity YS, the thickness ratio being a percentage obtained by dividing a maximum thickness by the chord length, the suction-side convexity YS being a percentage obtained by dividing a distance from a chord on a suction side, at a maximum-thickness position, by the chord length, then the blade body has a suction-side convexity YS of 12.0±0.6% at a position having a thickness ratio of 21%, a suction-side convexity YS of 12.3±0.7% at a position having a thickness ratio of 24%, and a suction-side convexity YS of 13.3±1.2%, preferably 13.3±1.0%, and more preferably 13.3±0.8%, at a position having a thickness ratio of 30%. a blade body whose chord length increases from a blade tip toward a blade root, wherein if the blade body is represented by a thickness ratio and a suction-side convexity YS, the thickness ratio being a percentage obtained by dividing a maximum thickness by the chord length, the suction-side convexity YS being a percentage obtained by dividing a distance from a chord on a suction side, at a maximum-thickness position, by the chord length, then the blade body has a suction-side convexity YS of 12.0±0.6% at a position having a thickness ratio of 21%, a suction-side convexity YS of 12.3±0.7% at a position having a thickness ratio of 24%, and a suction-side convexity YS of 13.3±1.2%, preferably 13.3±1.0%, and more preferably 13.3±0.8%, at a position having a thickness ratio of 30%.
An apparatus comprising a block-based instruction set architecture processor being a processor configured to execute atomic blocks of instructions according to an instruction set architecture, the processor comprising: one or more processing cores (110, 111, 730, 1110) configured to fetch and execute a sequence of instruction blocks, each of the processing cores (110, 111, 730, 1110) comprising functional resources for performing operations specified by the instruction blocks; and characterised by: one or more core schedulers (165, 206, 725) configured to adjust the number of processing cores used for performing at least a portion of the operations, the number of the processing cores being allocated for executing the sequence of instruction blocks based at least in part on comparing a confidence rating to one or more predetermined values, wherein the confidence rating is based at least in part on branch prediction accuracy for one or more branch instructions of the allocated instruction blocks. one or more processing cores (110, 111, 730, 1110) configured to fetch and execute a sequence of instruction blocks, each of the processing cores (110, 111, 730, 1110) comprising functional resources for performing operations specified by the instruction blocks; and characterised by: one or more core schedulers (165, 206, 725) configured to adjust the number of processing cores used for performing at least a portion of the operations, the number of the processing cores being allocated for executing the sequence of instruction blocks based at least in part on comparing a confidence rating to one or more predetermined values, wherein the confidence rating is based at least in part on branch prediction accuracy for one or more branch instructions of the allocated instruction blocks.
Process for preparing a suspension of cerium oxide particles in a liquid phase, these particles (secondary particles) having an average size of at most 200 nm, these secondary particles consisting of primary particles whose average size measured by TEM is of at most 150 nm with a standard deviation of at most 30% of the value of said average size, and for which the ratio of the average size measured by TEM to the average size measured by BET is at least 1.5; which process comprises the following steps: - (a) a solution of a cerium III salt which also comprises cerium IV is prepared; - (b) this solution is brought into contact with a base, under an inert atmosphere, by virtue of which procedure a precipitate is obtained; - (c) the medium obtained in the preceding step is subjected to a thermal treatment under an inert atmosphere, at least one of steps (a), (b) or (c) being carried out in the presence of nitrate ions; - (d) an acidification and a washing of the medium thus obtained are carried out successively but in any order, by virtue of which procedure the suspension is obtained; process characterized in that, in the solution of step (a), the cerium IV is provided in the form of a colloidal dispersion of this element. - (a) a solution of a cerium III salt which also comprises cerium IV is prepared; - (b) this solution is brought into contact with a base, under an inert atmosphere, by virtue of which procedure a precipitate is obtained; - (c) the medium obtained in the preceding step is subjected to a thermal treatment under an inert atmosphere, at least one of steps (a), (b) or (c) being carried out in the presence of nitrate ions; - (d) an acidification and a washing of the medium thus obtained are carried out successively but in any order, by virtue of which procedure the suspension is obtained;
A micro-abrasive dental blasting device, comprising: • a chamber having a chamber wall and a hollow interior; • an inlet port in said chamber wall; • a discharge port in the chamber wall; • an elongated delivery conduit extending from a delivery conduit inlet external to said chamber to a delivery conduit outlet disposed within the chamber and extending in fluid communications through said inlet port wherein a portion of said delivery conduit external to the chamber is adapted to be connected to a handheld pressurized-gas supply connector; • an elongated discharge conduit extending from a discharge conduit inlet internal to the chamber to a discharge conduit outlet external to the chamber and extending in fluid communications through said discharge port; • a quantity of particulate matter disposed within said chamber; characterised in that said discharge conduit is operable to be manually displaced from a first position wherein said discharge conduit inlet abuts said delivery conduit outlet to seal said particulate matter within said chamber and to allow pressurized-gas to pass through the delivery conduit into the discharge conduit to exit the micro-abrasive blasting device without entering the chamber to a second position wherein said discharge conduit inlet is displaced away from the delivery conduit outlet to allow pressurized-gas to flow into the chamber to generate an abrasive laden gas stream which is dispensed through the discharge conduit. • a chamber having a chamber wall and a hollow interior; • an inlet port in said chamber wall; • a discharge port in the chamber wall; • an inlet port in said chamber wall; • a discharge port in the chamber wall; • an elongated delivery conduit extending from a delivery conduit inlet external to said chamber to a delivery conduit outlet disposed within the chamber and extending in fluid communications through said inlet port wherein a portion of said delivery conduit external to the chamber is adapted to be connected to a handheld pressurized-gas supply connector; • an elongated discharge conduit extending from a discharge conduit inlet internal to the chamber to a discharge conduit outlet external to the chamber and extending in fluid communications through said discharge port; • a quantity of particulate matter disposed within said chamber;
An installation for treating a plastics melt, in particular a polycondensate melt, and setting the intrinsic viscosity thereof, having a reactor which has a reactor housing with at least one first reactor housing part with an upper end region and a lower end region and which has a chamber part extending between the upper and lower end regions (6, 7), wherein the first chamber part has a vertical height extent, and the reactor housing has, in the region of the lower end region of the at least first reactor housing part, an at least second reactor housing part which directly adjoins said first reactor housing part and which has a second chamber part, wherein the two chamber parts (8, 9) are connected to one another in terms of flow and are formed so as to be sealed off with respect to the external surroundings, and in the region of the upper end region of the first reactor housing part at least one feed line for the plastics melt opens into the first reactor housing part at at least one inlet opening, and at least one outlet opening for the plastics melt is arranged in the second reactor housing part, and having at least one mixing element which is arranged in the second reactor housing part, which mixing element is mounted in the second reactor housing part so as to be rotatable about an axis of rotation, and wherein the mixing element is connected in terms of drive to a separate, independent first drive device, characterized in, - that the reactor is supported on a standing surface with the interposition of at least one first weight-determining device, - that a discharge device for the plastics melt is arranged so as to adjoin the outlet opening of the second reactor housing part, which discharge device is in the form of a melt pump or in the form of an extruder, - that the discharge device is also supported on the standing surface with the interposition of at least one separate second weight-determining device, and - that the discharge device is connected in terms of drive to a second drive device, wherein the second drive device is driven independently of the first drive device of the mixing element. - that the reactor is supported on a standing surface with the interposition of at least one first weight-determining device, - that a discharge device for the plastics melt is arranged so as to adjoin the outlet opening of the second reactor housing part, which discharge device is in the form of a melt pump or in the form of an extruder, - that the discharge device is also supported on the standing surface with the interposition of at least one separate second weight-determining device, and - that the discharge device is connected in terms of drive to a second drive device, wherein the second drive device is driven independently of the first drive device of the mixing element.
A method of screening for therapeutic agents for histologically scirrhous anaplastic adenocarcinoma, comprising: (a) determining an ability of test substances to inhibit activation of a polypeptide having an amino acid mutation where Arg at position 5 is substituted by Trp or Gln in the amino acid sequence set forth in SEQ ID NO: 1, and selecting compound having the ability to inhibit activation of the polypeptide as candidates for the therapeutic agents for histologically scirrhous anaplastic adenocarcinoma; or (b) contacting a test substance with cells comprising said polypeptide, or with the cells comprising a vector comprising a polynucleotide encoding said polypeptide, and monitoring a property of the cells. (a) determining an ability of test substances to inhibit activation of a polypeptide having an amino acid mutation where Arg at position 5 is substituted by Trp or Gln in the amino acid sequence set forth in SEQ ID NO: 1, and selecting compound having the ability to inhibit activation of the polypeptide as candidates for the therapeutic agents for histologically scirrhous anaplastic adenocarcinoma; or (b) contacting a test substance with cells comprising said polypeptide, or with the cells comprising a vector comprising a polynucleotide encoding said polypeptide, and monitoring a property of the cells.
A method for generating a MAP message describing the static physical geometry layout of one or more intersections, the method comprising: receiving, over a network, map data for an intersection; calculating (409A, 409B), using a processor, a reference point location of a reference point for the intersection from the map data; calculating, using the processor, offset values relative to the reference point location for a plurality of lanes of the intersection from the map data, so as to define the physical structure of the lanes leading to and away from the reference point of the intersection; and generating the MAP message using the reference point location and offset values. receiving, over a network, map data for an intersection; calculating (409A, 409B), using a processor, a reference point location of a reference point for the intersection from the map data; calculating, using the processor, offset values relative to the reference point location for a plurality of lanes of the intersection from the map data, so as to define the physical structure of the lanes leading to and away from the reference point of the intersection; and generating the MAP message using the reference point location and offset values.
A reinforced composite comprising a reinforcement material in a cross-linked polymer matrix, wherein the cross-linked polymer comprises a cross-linking group derived from a curing agent represented by formula I: Wherein R 1 is hydrogen, alkyl, cylcoalkyl, heterocycloalkyl, alkenyl, cycloalkenyl, aryl, heteroaryl, alkoxy alkyl or alkynyl; A is alkyl, alkenyl, alkenene, alkylene-hetero-alkylene, alkylene-heterocyclo-alkylene, alkylene, alkylene-oxy-alkylene, 1,4-alkyl substituted piperazine, carbonyl, or thiocarbonyl; B is alkyl, alkenyl, alkenene, alkylene-hetero-alkylene, alkylene-heterocyclo-alkylene, alkylene, alkylene-oxy-alkylene, 1,4-alkyl substituted piperazine, carbonyl, or thiocarbonyl; R 2 is hydrogen, alkyl, aminoalkyl, alkyl-amino-alkyl, cylcoalkyl, heterocycloalkyl, alkenyl, aryl, or heteroaryl; and R 3 is hydrogen, alkyl, aminoalkyl, alkyl-amino-alkyl, cylcoalkyl, heterocycloalkyl, alkenyl, aryl, or heteroaryl.
1. A neural-Model Predictive Control controller, comprising: one or more non-transitory electronic processors, the non-transitory electronic processors configured to perform operations of: receiving, in a forward module, a measurement of a current state of a plant and a control signal from a controller to generate a forward module prediction; receiving, in a forward module corrector, the measurement of the current state of the plant and the control signal to generate an additive correction to the forward module prediction to generate a predicted plant state; generating control sequences of pairs of control signals and corresponding predicted plant states; and generating a next plant control signal based on the control sequences.