mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for encrypting data comprising the steps of: implementing a key manager in memory on at least one computing device, said key manager configured for creating and managing at least one encryption key to be used for encrypting the data; implementing at least one key file in memory on the at least one computing device, said key file associated with at least one authorized user and containing a key field comprising a pseudo random string of bytes and a unique hash value used to associate the key file to said at least one user: wherein the method is characterised by: constructing a set of base characters that are randomly selected using a key extraction algorithm from the key field, the set of base characters being a subset of the key field with at least one such randomly selected character from the key field being non-contiguous with at least one other such randomly selected character from the key field, such that the at least one such randomly selected character and the at least one other such randomly selected character are not connected in an unbroken sequence of characters within the key field; generating the encryption key by inputting the base characters into an encryption algorithm; receiving the data to be encrypted and encrypting the data using the encryption key. implementing a key manager in memory on at least one computing device, said key manager configured for creating and managing at least one encryption key to be used for encrypting the data; implementing at least one key file in memory on the at least one computing device, said key file associated with at least one authorized user and containing a key field comprising a pseudo random string of bytes and a unique hash value used to associate the key file to said at least one user: constructing a set of base characters that are randomly selected using a key extraction algorithm from the key field, the set of base characters being a subset of the key field with at least one such randomly selected character from the key field being non-contiguous with at least one other such randomly selected character from the key field, such that the at least one such randomly selected character and the at least one other such randomly selected character are not connected in an unbroken sequence of characters within the key field; generating the encryption key by inputting the base characters into an encryption algorithm; receiving the data to be encrypted and encrypting the data using the encryption key.
A threat analysis apparatus, comprising: an update manager that obtains update information for software installed in an loT device; a threat information manager that stores threat information of a cyberattack; a risk level manager that manages risk level information defining a risk level of the loT device; a related threat information manager that manages the threat information and related threat information associating the loT device with the risk level; and an outputter that outputs updated related threat information, after the related threat information is updated using the threat information and the risk level of the loT device, based on the update information. an update manager that obtains update information for software installed in an loT device; a threat information manager that stores threat information of a cyberattack; a risk level manager that manages risk level information defining a risk level of the loT device; a related threat information manager that manages the threat information and related threat information associating the loT device with the risk level; and an outputter that outputs updated related threat information, after the related threat information is updated using the threat information and the risk level of the loT device, based on the update information.
A compound represented by the following formula: wherein, A is -S- or -SO 2 -; R 1 is straight or branched C 1-10 alkylene; R 2 is -R 3 Y; R 3 is straight or branched C 1-10 alkylene; each of X and Y respectively is -OH or -OCOR 4; and R 4 is straight or branched C 3-10 alkenyl. A is -S- or -SO 2 -; R 1 is straight or branched C 1-10 alkylene; R 2 is -R 3 Y; R 3 is straight or branched C 1-10 alkylene; each of X and Y respectively is -OH or -OCOR 4; and R 4 is straight or branched C 3-10 alkenyl.
The use of unfired, graphite-free refractory bricks formed by pressing, containing binders and in each case granulations of at least one refractory material which forms a ceramic bond at temperatures above 900°C, in particular above 1000°C as a firing-side refractory lining of large-volume industrial furnaces operated with an oxidising or substantially oxidising atmosphere for the purpose of producing cement, lime, magnesia and doloma, wherein the bricks have a cold compression strength of greater than 20 MPa, preferably between 30 and 130, in particular between 40 and 120 MPa, and the bricks contain at least one first temporary binder, which ensures adequate binding of the grains of the granulation in a temperature range between room temperature and 500°C, in particular between room temperature and 400°C, and at least one second temporary binder, which ensures adequate binding of the grains of the granulation in the temperature range between 300 and 1000, in particular between 400 and 900°C, wherein there is adequate binding if, after cooling, the bricks have a cold bending strength according to DIN EN 993-6 of ≥ 1 MPa for all temperatures up to 1400°C wherein at least one binder from the following group is present as a second temporary binder: Al, Mg, Si, Fe and their alloys, SiC, B 4 C, Si 3 N 4, AlN, BN, sialon, fine-grained mineral materials, e.g. MgO, spinel, alumina, zirconium oxide, silicon dioxide, especially microsilica, calcium aluminates, aluminium silicates and clays, compounds containing iron, especially compounds containing iron oxide, e.g. magnetite, haematite, goethite, limonite, siderite in amounts between 0.5 and 15%, in particular between 1 and 4% with reference to the dry material or the dry mixture of refractory materials, with fineness values here of ≤ 150 μm, preferably ≤ 90 μm, wherein the bricks are bricks of the following brick types: magnesia chromite bricks, magnesia spinel and spinel bricks, magnesia zirconia and magnesia zircon bricks, magnesia hercynite and magnesia galaxite bricks, dolomite, dolomite-magnesia, and lime bricks, forsterite and olivine bricks, magnesia forsterite bricks, magnesia pleonast bricks, magnesia bricks. Al, Mg, Si, Fe and their alloys, SiC, B 4 C, Si 3 N 4, AlN, BN, sialon, fine-grained mineral materials, e.g. MgO, spinel, alumina, zirconium oxide, silicon dioxide, especially microsilica, calcium aluminates, aluminium silicates and clays, compounds containing iron, especially compounds containing iron oxide, e.g. magnetite, haematite, goethite, limonite, siderite in amounts between 0.5 and 15%, in particular between 1 and 4% with reference to the dry material or the dry mixture of refractory materials, with fineness values here of ≤ 150 μm, preferably ≤ 90 μm, magnesia chromite bricks, magnesia spinel and spinel bricks, magnesia zirconia and magnesia zircon bricks, magnesia hercynite and magnesia galaxite bricks, dolomite, dolomite-magnesia, and lime bricks, forsterite and olivine bricks, magnesia forsterite bricks, magnesia pleonast bricks, magnesia bricks.
A sliding caliper air disc brake, comprising: a brake disc; a brake carrier; a brake caliper slidably mounted on the brake carrier; a first brake pad assembly slidably mounted to the brake carrier on an inboard side of the brake disc, and a second brake pad assembly slidably mounted to the brake carrier on an outboard side of the brake disc, each brake pad assembly including a support plate (16, 20) and a friction material (18, 20) fixed to the support plate (16, 20); at least one pin, a spring supported on the pin for urging the first brake pad assembly away from the second brake pad assembly; and characterised in that the pin is located in a fixed position relative to the first brake pad assembly, and extends towards and is slidable through an aperture in the second brake pad assembly. a brake disc; a brake carrier; a brake caliper slidably mounted on the brake carrier; a first brake pad assembly slidably mounted to the brake carrier on an inboard side of the brake disc, and a second brake pad assembly slidably mounted to the brake carrier on an outboard side of the brake disc, each brake pad assembly including a support plate (16, 20) and a friction material (18, 20) fixed to the support plate (16, 20); at least one pin, a spring supported on the pin for urging the first brake pad assembly away from the second brake pad assembly; and characterised in that the pin is located in a fixed position relative to the first brake pad assembly, and extends towards and is slidable through an aperture in the second brake pad assembly.
An emergency pod configured for use with a rotary wing aircraft, comprising: a rigid, generally hollow shell including a movable portion configured to move between a closed position and an open position; an inflatable life raft arranged within an interior portion of the hollow shell, the life raft being coupled to an inflation mechanism; a first activation device and a second activation device operably coupled to the inflation mechanism, wherein the first activation device and the second activation device are configured to operate the inflation mechanism to initiate inflation of the life raft when a force is applied thereto; wherein a portion of the first activation device is arranged adjacent an exterior surface of the shell; characterised in that the second activation device is coupled to the movable portion of the shell; and that the movable portion of the shell is configured to pivot to the open position to apply a force to the second activation device, thereby initiating inflation of the inflatable life raft. a rigid, generally hollow shell including a movable portion configured to move between a closed position and an open position; an inflatable life raft arranged within an interior portion of the hollow shell, the life raft being coupled to an inflation mechanism; a first activation device and a second activation device operably coupled to the inflation mechanism, wherein the first activation device and the second activation device are configured to operate the inflation mechanism to initiate inflation of the life raft when a force is applied thereto; wherein a portion of the first activation device is arranged adjacent an exterior surface of the shell;
A system comprising: a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient via at least one electrode to a first anatomical location near a spine of the patient characterized in that the lower intensity electrical stimulation signal has a stimulation intensity of less than or equal to 40% of a paresthesia threshold or perception threshold of the patient. a stimulation generator configured to generate and deliver electrical stimulation therapy to a patient via at least one electrode; and a processor configured to control the stimulation generator to: generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient via at least one electrode to a first anatomical location near a spine of the patient generate a lower intensity electrical stimulation signal comprising a plurality of pulses; and deliver the lower intensity electrical stimulation signal to the patient via at least one electrode to a first anatomical location near a spine of the patient
A sheet manufacturing apparatus comprising: a shredder that separates feedstock containing at least fiber into shreds in air; a defibrating unit that defibrates at least the shreds in air; a forming unit that forms a sheet using defibrated material defibrated by the defibrating unit; characterized by a separator that separates the defibrated material into passed material that passes through multiple apertures, and remnants that do not pass; and a first conveyance path that conveys the remnants to the defibrating unit; wherein the defibration capacity, which is the amount defibrated per unit time by the defibrating unit, is greater than or equal to the sum of the amount passing through the first conveyance path per unit time and the shredding capacity, which is the amount shredded per unit time by the shredder. a shredder that separates feedstock containing at least fiber into shreds in air; a defibrating unit that defibrates at least the shreds in air; a forming unit that forms a sheet using defibrated material defibrated by the defibrating unit; characterized by a separator that separates the defibrated material into passed material that passes through multiple apertures, and remnants that do not pass; and a first conveyance path that conveys the remnants to the defibrating unit; wherein the defibration capacity, which is the amount defibrated per unit time by the defibrating unit, is greater than or equal to the sum of the amount passing through the first conveyance path per unit time and the shredding capacity, which is the amount shredded per unit time by the shredder.
An absorbent article comprising an absorbent assembly having an absorbent member and an outer cover disposed on a non-skin facing side of the absorbent assembly, having a front section adapted to be worn about the front of a wearer, a rear section adapted to be worn about the back of the wearer, and a crotch section located between the front and rear sections, and having a longitudinal direction corresponding to the direction from the front section to the rear section through the crotch section and a lateral direction perpendicular to the longitudinal direction, the outer cover comprising an outer sheet on a non-skin facing side defining an exterior side of the absorbent article, an inner sheet on a skin facing side of the outer sheet, and a plurality of elastic members between the outer and inner sheets, the outer cover having a waist elasticized region longitudinally distal to the absorbent assembly and a lower elasticized region located longitudinally proximal to the waist elasticized region in a region longitudinally overlapping the absorbent assembly, the outer and inner sheets (22, 23) being bonded at bonds spaced apart in the lateral direction in a pattern forming between laterally adjacent bonds a non-bonded region where the outer and the inner sheets (22, 23) are not bonded to each other continuously in the longitudinal direction, the outer sheet being configured to bulge away from a wearer's skin upon contraction of the elastic members to form a plurality of longitudinally extending folds, and the waist elasticized region having a lower bond strength than the lower elasticized region, the bond strength being measured in accordance with the method described in paragraph of the A1-publication. the outer cover comprising an outer sheet on a non-skin facing side defining an exterior side of the absorbent article, an inner sheet on a skin facing side of the outer sheet, and a plurality of elastic members between the outer and inner sheets, the outer cover having a waist elasticized region longitudinally distal to the absorbent assembly and a lower elasticized region located longitudinally proximal to the waist elasticized region in a region longitudinally overlapping the absorbent assembly, the outer and inner sheets (22, 23) being bonded at bonds spaced apart in the lateral direction in a pattern forming between laterally adjacent bonds a non-bonded region where the outer and the inner sheets (22, 23) are not bonded to each other continuously in the longitudinal direction, the outer sheet being configured to bulge away from a wearer's skin upon contraction of the elastic members to form a plurality of longitudinally extending folds, and the waist elasticized region having a lower bond strength than the lower elasticized region, the bond strength being measured in accordance with the method described in paragraph of the A1-publication.
A centreless rubber cot arbour holding and guiding device for automatic rubber cot arbour grinding or buffing machine comprising rotary means for conveying rubber cots to a grinding station and holding means for holding rubber cots for grinding characterized by multiple head units mounted on a rotary table, each of the said head units comprises a T-bracket, guided on needle or ball bearing housings, coupled with a rotary device such as a pneumatic rotary device or electro mechanical device mounted on a box, a fixed shaft fitted on the said T-bracket, an arbour clamp fixed on the said fixed shaft for holding an arbour for grinding, a carriage and an ejector fitted with pneumatic or hydraulic cylinder supported on the said box for pushing the finished rubber cot arbour after grinding on to the carriage, a guiding device provided on the said box, the said guiding device consisting of a knurled shaft and a rubber dust cleaning brush provided adjacent to the parallel to the said knurled shaft, and is guided on needle or ball bearing pedestals and driven by a prime mover, such as an A.C. or D.C. geared motor, in clock wise or anti clock wise direction, the said rotary table being supported on said box with the help of support bars and rotated in a desired manner with the help of servo geared motor or pneumatic/hydraulic rotary table, whereby the pressing cylinder and jaw opening cylinder hold each head unit at the time of receiving the unfinished rubber cot arbour, feed the unfinished rubber cot arbour to the grinding head and deliver the finished rubber cot arbour to the carriage or the finished rubber cot arbour storage unit.
Open-pored catalyst support consisting of a material which comprises a natural sheet silicate and also ZrO 2 in the tetragonal modification, characterized in that the catalyst support is in the form of a shaped body, liberates less than 0.06% by weight of Zr, calculated as ZrO 2 and based on the weight of the ZrO 2 present in the catalyst support, in boiling acetic acid, the ZrO 2 is present in particulate form and is statistically distributed uniformly in the support.
An ultrasound transducer array probe for transmission of ultrasound pulses in a low frequency and a high frequency band and reception of pulses at least in the HF band, comprising: - an LF array transmit radiation surface for transmission of ultrasound in the LF band and an HF array transmit radiation surface for transmission of ultrasound in the HF band each with its outer boundaries, - a first layer defining an array of transducer elements configured for LF electro-acoustic transduction (LF: 202, 502, 503, 504, 505) and a second layer defining an array of transducer elements configured for HF electro-acoustic transduction (201, 501), the array for the LF electro-acoustic transduction having at least one LF array element and the array for the HF electro-acoustic transduction having at least one HF array element, wherein - the at least one LF array element has a larger radiation surface (LF: 502, 503, 504, 505) than does the at least one HF array element(HF: 501), and - at least a portion of said array transmit radiation surfaces for the LF and HF bands has at least one HF element with radiation surface that is fully within the LF array transmit radiation surface in a common radiation surface (501, 502, 505), characterized by - the outer boundaries of said LF array transmit radiation surface being at least in a region outside the outer boundaries of said HF array transmit radiation surface (202, 503, 504). - an LF array transmit radiation surface for transmission of ultrasound in the LF band and an HF array transmit radiation surface for transmission of ultrasound in the HF band each with its outer boundaries, - a first layer defining an array of transducer elements configured for LF electro-acoustic transduction (LF: 202, 502, 503, 504, 505) and a second layer defining an array of transducer elements configured for HF electro-acoustic transduction (201, 501), the array for the LF electro-acoustic transduction having at least one LF array element and the array for the HF electro-acoustic transduction having at least one HF array element, wherein - the at least one LF array element has a larger radiation surface (LF: 502, 503, 504, 505) than does the at least one HF array element(HF: 501), and - at least a portion of said array transmit radiation surfaces for the LF and HF bands has at least one HF element with radiation surface that is fully within the LF array transmit radiation surface in a common radiation surface (501, 502, 505), characterized by - the outer boundaries of said LF array transmit radiation surface being at least in a region outside the outer boundaries of said HF array transmit radiation surface (202, 503, 504).
A method for manufacturing a sulfide solid electrolyte, the method comprising: loading a raw material for manufacturing a sulfide solid electrolyte which is mainly composed of a substance represented by a general formula of (100 - x)(0.75Li 2 S·0.25P 2 S 5)·xLiI into a vessel, wherein said x satisfies 15 ≤ x ≤ 30; and amorphizing the raw material after said loading by giving heat energy to an inside of the vessel, wherein a reaction site temperature in the vessel is controlled so that x included in the general formula and the reaction site temperature y [°C] in the vessel in said amorphizing satisfy a following formula: y < − 2.00 x + 1.79 × 10 2 wherein the reaction site temperature in the vessel is further controlled so that said x and the reaction site temperature y satisfy a following formula: y > − 2.00 x + 1.52 × 10 2 loading a raw material for manufacturing a sulfide solid electrolyte which is mainly composed of a substance represented by a general formula of (100 - x)(0.75Li 2 S·0.25P 2 S 5)·xLiI into a vessel, wherein said x satisfies 15 ≤ x ≤ 30; and amorphizing the raw material after said loading by giving heat energy to an inside of the vessel, wherein a reaction site temperature in the vessel is controlled so that x included in the general formula and the reaction site temperature y [°C] in the vessel in said amorphizing satisfy a following formula: y < − 2.00 x + 1.79 × 10 2 wherein the reaction site temperature in the vessel is further controlled so that said x and the reaction site temperature y satisfy a following formula: y > − 2.00 x + 1.52 × 10 2