mhurhangee/ep-ind-claims huggingface dataset:
A computer method for providing security for intermediate programming code for execution by a virtual machine, this method being characterized in that it comprises the following steps: - receiving a plurality of bytecode instructions of said intermediate programming code; - converting (230, 235) said plurality of bytecode instructions, said conversion comprising a step of inserting at least one bytecode instruction relative to a function for execution checking of at least one bytecode instruction of said plurality of bytecode instructions, independently of the bytecode instructions of the initial set; and, - generating bytecode, the generated bytecode comprising said plurality of converted bytecode instructions. - receiving a plurality of bytecode instructions of said intermediate programming code; - converting (230, 235) said plurality of bytecode instructions, said conversion comprising a step of inserting at least one bytecode instruction relative to a function for execution checking of at least one bytecode instruction of said plurality of bytecode instructions, independently of the bytecode instructions of the initial set; and, - generating bytecode, the generated bytecode comprising said plurality of converted bytecode instructions.
A method of monitoring the health of a fuel system, the fuel system comprising a fuel metering valve, a hydraulic control valve servo pressure line and a control pressure line, the fuel metering valve comprises a hydraulic control valve solenoid for metering the flow of fuel and a fuel filter, in use a current is applied to the solenoid to control the required fuel demand; the method comprising the steps of; measuring either the percentage difference between fuel metering valve demand and fuel metering valve actual position or the percentage difference in pressure between the servo pressure line and the control pressure line, comparing the differential to a predetermined level, when that predetermined level is reached a warning is given.
Composition comprising an aqueous phase, an oil phase, eicosapentaenoic acid and docosahexaenoic acid for use in the treatment of solid tumors, wherein the treatment comprises administering the composition and administering at least one anticancer agent, the composition characterized in that EPA and DHA are present in an amount of at least 65 % based on the total weight of the oil phase and wherein the composition comprises EPA and DHA in a weight ratio between 6:1 and 4:1, or wherein the composition comprises EPA and DHA in a weight ratio between 1:2 and 1:4.
Method for monitoring the operation of a technical object with the aid of a mathematical model based on machine learning after assembly of a three-axle replacement acceleration sensor, wherein a three-axle first acceleration sensor is initially assembled on the object at a position, and during operation the object generates mechanical oscillations, and the following steps are carried out: a) Determining a first orientation of the first acceleration sensor on the object in the form of a position vector relative to the gravitational force, b) Generating and training the mathematical model for monitoring the object with respect to the position vector, c) Disassembly of the first acceleration sensor and assembly of the three-axle replacement acceleration sensor with a new orientation on the object at the same position, at which the first acceleration sensor was assembled, characterised by the following additional steps: d) Detecting acceleration values in the x-, y- and z-direction with the aid of respective individual sensors of the three-axle replacement acceleration sensor of the object, e) Calculating respective indicator values from the temporal course of the detected acceleration values of the replacement acceleration sensor f) Determining a replacement vector from the indicator values and determining a differential vector between the replacement vector and the position vector of the first acceleration sensor determined in step b), g) Monitoring the operation of the object by applying the model during operation of the object for the position vector in the orientation of the replacement vector by taking into account the differential vector. a) Determining a first orientation of the first acceleration sensor on the object in the form of a position vector relative to the gravitational force, b) Generating and training the mathematical model for monitoring the object with respect to the position vector, c) Disassembly of the first acceleration sensor and assembly of the three-axle replacement acceleration sensor with a new orientation on the object at the same position, at which the first acceleration sensor was assembled, characterised by the following additional steps: d) Detecting acceleration values in the x-, y- and z-direction with the aid of respective individual sensors of the three-axle replacement acceleration sensor of the object, e) Calculating respective indicator values from the temporal course of the detected acceleration values of the replacement acceleration sensor f) Determining a replacement vector from the indicator values and determining a differential vector between the replacement vector and the position vector of the first acceleration sensor determined in step b), g) Monitoring the operation of the object by applying the model during operation of the object for the position vector in the orientation of the replacement vector by taking into account the differential vector.
Tank for containing a fluid, comprising a wall made of a plastic material and defining therein a tank chamber, and an assembly for drawing the fluid contained in the tank, said assembly being equipped with a second unit, or drawing unit, which comprises a duct having an inlet opening and an outlet opening located inside and outside the tank, respectively, wherein the drawing unit comprises an extension arranged inside the tank, said extension defining therein an intake chamber communicating with the outlet opening and communicating with the chamber of the tank through a filter, characterized in that said drawing unit comprises a ferrule for fixing the drawing unit to the wall of the tank, and wherein temperature, level and quality sensors (45a, 45b, 45c) for the liquid contained in the tank are further associated with the ferrule either directly or through a rod and in that said filter defines a corresponding interchangeable cartridge which has a cylindrical shape with a substantially toroidal development, provided with a filtering material pleated for increasing the filtering surface thereof and comprising a closed bottom, said ferrule being provided with a hole for housing said filter secured into said hole.
Device for filling a thin-walled transport container, which has an opening, with notes of value, having a feed unit for the feed of the notes of value, having a stacking unit for stacking the fed notes of value, and having a closing unit for closing a closure unit for closure of the opening of the thin-walled transport container, comprising a first pressure-exerting element and a second pressure-exerting element which is arranged parallel to the first pressure-exerting element, wherein, during the closing of the closure unit, the first pressure-exerting element exerts a force on a first closure element of the closure unit, and the second pressure-exerting element exerts a force on a second closure element of the closure unit and/or supports the second closure element, and wherein the first pressure-exerting element is mounted such that, for the closing of the closure unit, said first pressure-exerting element is movable in the direction of the second pressure-exerting element to such an extent that the closure unit is closed as a result of the two closure elements (302, 304) being brought together.
An α-amylase variant having at least one amino acid substitution over the starting molecule, wherein, in the case of the amino acid substitution, an amino acid residue on the surface of said starting molecule, which makes a neutral or positively polar or charged contribution to the electrostatic potential of said molecule, has been replaced with a more negatively polar or negatively charged amino acid residue, with the following amino acid substitutions being possible: Starting amino acid to give Arg K, Y, C, H, G, A, V, L, I, M, F, W, P, S, T, N, Q, E or D Lys Y, C, H, G, A, V, L, I, M, F, W, P, S, T, N, Q, E or D Tyr C, H, G, A, V, L, I, M, F, W, P, S, T, N, Q, E or D Cys H, G, A, V, L, I, M, F, W, P, S, T, N, Q, E or D His G, A, V, L, I, M, F, W, P, S, T, N, Q, E or D Gly A, V, L, I, M, F, W, P, S, T, N, Q, E or D Ala V, L, I, M, F, W, P, S, T, N, Q, E or D Val L, I, M, F, W, P, S, T, N, Q, E or D Leu I, M, F, W, P, S, T, N, Q, E or D Ile M, F, W, P, S, T, N, Q, E or D Met F, W, P, S, T, N, Q, E or D Phe W, P, S, T, N, Q, E or D Trp P, S, T, N, Q, E or D Pro S, T, N, Q, E or D Ser T, N, Q, E or D Thr N, Q, E or D Asn Q, E or D Gln E or D Glu D and wherein said amino acid residue is in a position belonging to either of the following two groups: 5, 6, 7, 19, 22, 25, 26, 28, 29, 32, 33, 35, 37, 53, 72, 75, 76, 81, 82, 83, 84, 86, 87, 90, 91, 93, 94, 95, 96, 98, 118, 136, 142, 149, 150, 151, 152, 154, 156, 158, 160, 171, 172, 181, 227, 229, 247, 251, 254, 259, 260, 281, 283, 394, 395, 399, 400, 417, 418, 419, 420, 421 and 422; or 435, 436, 439, 444, 445, 449, 450, 452, 458, 459, 460, 461, 463, 465, 466, 471, 473, 475, 476 and 484, in each case indicated in the numbering of the mature protein according to SEQ ID NO. 2, wherein the starting molecule is the α-amylase from Bacillus sp. A 7-7 (DSM 12368), whose amino acid sequence is 100% identical to the amino acid sequence indicated in SEQ ID NO. 2 in positions +1 to 484. 5, 6, 7, 19, 22, 25, 26, 28, 29, 32, 33, 35, 37, 53, 72, 75, 76, 81, 82, 83, 84, 86, 87, 90, 91, 93, 94, 95, 96, 98, 118, 136, 142, 149, 150, 151, 152, 154, 156, 158, 160, 171, 172, 181, 227, 229, 247, 251, 254, 259, 260, 281, 283, 394, 395, 399, 400, 417, 418, 419, 420, 421 and 422; or 435, 436, 439, 444, 445, 449, 450, 452, 458, 459, 460, 461, 463, 465, 466, 471, 473, 475, 476 and 484,
An optical fiber unit for air-blown installations comprising a plurality of optical fiber sub-units and a central member, wherein said optical fiber sub-units are stranded around said central member; wherein each of said optical fiber sub-units comprises a number of optical fibres, an inner layer which is radially outer to the optical fibres and an outer layer which is radially outer to the inner layer, wherein the outer layer comprises particulate material which is partially embedded into the outer layer; and wherein said optical fiber unit further comprises a binder for keeping said stranded optical fiber sub-units in a proper arrangement; wherein said binder comprises a binder tape helically continuously wound; and wherein said binder tape covers about 15% to 50% of the outer surface of said optical fiber unit.
A proximal joint for linking a catheter body and a catheter guidewire, the proximal joint comprising: a distal tubular section comprising one or more spines, a tapered opening, a longitudinal axis, a plurality of ribs defining an internal lumen shared with the catheter body; and a proximal strut extending proximal to the distal tubular section from the one or more spines; wherein at least a portion of the proximal strut and a portion of the catheter guidewire are configured to overlap to form a locking zone; wherein the catheter guidewire provides for the smooth transmission of thrust and retraction forces to the distal tubular section of the proximal joint; wherein the proximal joint comprises either: (i) one or more locking arms extend laterally from the proximal strut within the locking zone; wherein the locking arms are configured to engage with one or more notches in the catheter guidewire within the locking zone, or (ii) one or more locking pins extend radially from the catheter guidewire within the locking zone; wherein the locking pins are configured to engage with one or more pockets in the proximal strut within the locking zone. a distal tubular section comprising one or more spines, a tapered opening, a longitudinal axis, a plurality of ribs defining an internal lumen shared with the catheter body; and a proximal strut extending proximal to the distal tubular section from the one or more spines; wherein at least a portion of the proximal strut and a portion of the catheter guidewire are configured to overlap to form a locking zone; wherein the catheter guidewire provides for the smooth transmission of thrust and retraction forces to the distal tubular section of the proximal joint; wherein the proximal joint comprises either: (i) one or more locking arms extend laterally from the proximal strut within the locking zone; wherein the locking arms are configured to engage with one or more notches in the catheter guidewire within the locking zone, or (ii) one or more locking pins extend radially from the catheter guidewire within the locking zone; wherein the locking pins are configured to engage with one or more pockets in the proximal strut within the locking zone. (i) one or more locking arms extend laterally from the proximal strut within the locking zone; wherein the locking arms are configured to engage with one or more notches in the catheter guidewire within the locking zone, or (ii) one or more locking pins extend radially from the catheter guidewire within the locking zone; wherein the locking pins are configured to engage with one or more pockets in the proximal strut within the locking zone.
Process of production of an extrudate, wherein that extrudate comprises dispersion droplets and wherein these dispersion droplets comprise at least one carotenoid and at least one emulsifying protective colloid and water, characterised in that the dispersion process is carried out in the extruder and wherein the process is carried out without an organic solvent.
A method for forming a photonic nanopattern on a silk fibroin-based biopolymer film comprising steps of: obtaining a silk fibroin-based biopolymer film; and pressing the silk fibroin-based biopolymer film with a substrate having a first photonic nanopattern at a temperature higher than a glass transition temperature of the silk fibroin-based biopolymer film to form a first photonic nanopattern on the silk fibroin-based biopolymer film. obtaining a silk fibroin-based biopolymer film; and pressing the silk fibroin-based biopolymer film with a substrate having a first photonic nanopattern at a temperature higher than a glass transition temperature of the silk fibroin-based biopolymer film to form a first photonic nanopattern on the silk fibroin-based biopolymer film.
A Wireless Communication and Sensor System (WSCC) operative in conjunction with a refueled aircraft and a refueling aircraft, the system comprising: a Boom Tip Unit comprising nozzle load sensing functionality, and configured for retroactive installation on a nozzle which does not have nozzle load sensing and sensed nozzle load communication capabilities; a boom flight control computer or an output device; and a boom forward unit configured to be located on the boom external tube side or on any portion of the boom unaffected by telescopic motion during refuelling, the functionality comprising at least one load sensing element operative for Nozzle Load Sensing and for wireless communication of a sensed load to the boom forward unit; wherein the boom forward unit is configured to communicate the sensed load to the boom flight control computer, wherein the system comprises a closed-loop boom control, operative to minimize loads resulting from forces and stress to the boom induced by the relative motion of the two aircraft, which operates responsive to measurement of said forces by said nozzle load sensing functionality; and/or wherein the boom forward unit is configured to communicate the sensed load to a boom operator via the output device. a Boom Tip Unit comprising nozzle load sensing functionality, and configured for retroactive installation on a nozzle which does not have nozzle load sensing and sensed nozzle load communication capabilities; a boom flight control computer or an output device; and a boom forward unit configured to be located on the boom external tube side or on any portion of the boom unaffected by telescopic motion during refuelling, the functionality comprising at least one load sensing element operative for Nozzle Load Sensing and for wireless communication of a sensed load to the boom forward unit; wherein the boom forward unit is configured to communicate the sensed load to the boom flight control computer, wherein the system comprises a closed-loop boom control, operative to minimize loads resulting from forces and stress to the boom induced by the relative motion of the two aircraft, which operates responsive to measurement of said forces by said nozzle load sensing functionality; and/or wherein the boom forward unit is configured to communicate the sensed load to a boom operator via the output device.
A multilayer flexible tube comprising: an inner layer comprising a melt processable fluoropolymer, wherein the fluoropolymer comprises a copolymer of a poly vinylidene fluoride (PVDF) and a hexafluoropropylene,; wherein the copolymer of the poly vinylidene fluoride and the hexafluoropropylene includes a molar concentration of 20:80 to 80:20; and an outer layer comprising a melt processable polymer having a shore hardness less than a shore hardness of the inner layer. an inner layer comprising a melt processable fluoropolymer, wherein the fluoropolymer comprises a copolymer of a poly vinylidene fluoride (PVDF) and a hexafluoropropylene,; wherein the copolymer of the poly vinylidene fluoride and the hexafluoropropylene includes a molar concentration of 20:80 to 80:20; and an outer layer comprising a melt processable polymer having a shore hardness less than a shore hardness of the inner layer.
A phosphor-loaded LED package comprising: an LED; a first layer comprising a blend of phosphor and silicone overlaying the LED, and wherein the blend comprises at least K 2 SiF 6:Mn 4+ phosphor; wherein the blend comprises a phosphor to silicone weight ratio of at least 20%, and wherein the package further comprises an overlayer on the first layer, the overlayer comprising silicone, wherein the overlayer has a thickness of about 0.1 mm or greater, and wherein the overlayer is made of the same silicone as in the blend of the first layer. an LED; a first layer comprising a blend of phosphor and silicone overlaying the LED, and wherein the blend comprises at least K 2 SiF 6:Mn 4+ phosphor; wherein the blend comprises a phosphor to silicone weight ratio of at least 20%, and wherein the package further comprises an overlayer on the first layer, the overlayer comprising silicone, wherein the overlayer has a thickness of about 0.1 mm or greater, and wherein the overlayer is made of the same silicone as in the blend of the first layer.
Method for inspecting a photovoltaic solar power plant having a plurality of solar modules (m j), comprising a step of determining an inspection time window (F insp) during which a forecast solar illumination power intended to be received by a photovoltaic module is greater than or equal to a predefined threshold (S rad), and during the determined inspection time window, for each module of a set of solar modules including at least some of the plurality of solar modules of the power plant: • a step of determining a photovoltaic module valid operating temperature ( T m_j); • a step of collecting thermal data ( DATA_TH i) relating to the photovoltaic module, and • a step of analysing the collected thermal data ( DATA_TH i) in order to detect a possible faulty zone of the photovoltaic module, the temperature of which zone is such that the gap between the temperature of said faulty zone and the valid temperature of the photovoltaic module is greater than a predefined threshold, the temperature of said zone being higher than the valid temperature. • a step of determining a photovoltaic module valid operating temperature ( T m_j); • a step of collecting thermal data ( DATA_TH i) relating to the photovoltaic module, and • a step of analysing the collected thermal data ( DATA_TH i) in order to detect a possible faulty zone of the photovoltaic module, the temperature of which zone is such that the gap between the temperature of said faulty zone and the valid temperature of the photovoltaic module is greater than a predefined threshold, the temperature of said zone being higher than the valid temperature.
A method of examining an object using electric fields, comprising the steps of: energizing a first active electrode (301, 302, 303, 304, 305, 306, 307, 308) during a coupling operation; monitoring a second active electrode (301, 302, 303, 304, 305, 306, 307, 308) during said coupling operation, in response to electric fields that penetrate said object when said object is placed on top of said active electrodes; characterised by: selecting an electrical attribute for each of a plurality of cooperating electrodes (321, 322, 323, 324, 325, 326, 327, 328), wherein: said cooperating electrodes are displaced from and beneath said active electrodes; said electrical attributes are selected from a list including grounding, floating and energising; and at least two of said cooperating electrodes have different electrical attributes applied. energizing a first active electrode (301, 302, 303, 304, 305, 306, 307, 308) during a coupling operation; monitoring a second active electrode (301, 302, 303, 304, 305, 306, 307, 308) during said coupling operation, in response to electric fields that penetrate said object when said object is placed on top of said active electrodes; characterised by: selecting an electrical attribute for each of a plurality of cooperating electrodes (321, 322, 323, 324, 325, 326, 327, 328), wherein: said cooperating electrodes are displaced from and beneath said active electrodes; said electrical attributes are selected from a list including grounding, floating and energising; and at least two of said cooperating electrodes have different electrical attributes applied.
A beam scanning apparatus with arrayed rotating mirrors, characterized in that the beam scanning apparatus comprises: a motor, a worm, a wormgear, a mounting rack, and at least two sets of rotating mirrors, wherein the worm and the wormgear are located on the mounting rack, and engage with each other by using a gear for a linkage connection; the rotating mirrors are located in the mounting rack, and each rotating mirror is coaxially connected to one corresponding wormgear, the sets of rotating mirrors rotate synchronously; the motor is configured to drive the worm to rotate, to drive the wormgear and the rotating mirror to rotate coaxially; and the rotating mirror comprises a rotating mirror portion and rotating mirror bases (5a and 5b) that are respectively connected to two ends of the rotating mirror portion, bearings (6a and 6b) that are rotatably connected to the mounting rack are respectively disposed on the two rotating mirror bases (5a and 5b) and extend outward from two ends of the rotating mirror, and one of the bearings is coaxially connected to the corresponding wormgear. a motor, a worm, a wormgear, a mounting rack, and at least two sets of rotating mirrors, wherein the worm and the wormgear are located on the mounting rack, and engage with each other by using a gear for a linkage connection; the rotating mirrors are located in the mounting rack, and each rotating mirror is coaxially connected to one corresponding wormgear, the sets of rotating mirrors rotate synchronously; the motor is configured to drive the worm to rotate, to drive the wormgear and the rotating mirror to rotate coaxially; and the rotating mirror comprises a rotating mirror portion and rotating mirror bases (5a and 5b) that are respectively connected to two ends of the rotating mirror portion, bearings (6a and 6b) that are rotatably connected to the mounting rack are respectively disposed on the two rotating mirror bases (5a and 5b) and extend outward from two ends of the rotating mirror, and one of the bearings is coaxially connected to the corresponding wormgear.