mhurhangee/ep-ind-claims huggingface dataset:
A system for generating a model of one or more industrial automation systems as a backup for the one or more industrial automation systems, comprising: a backup component configured to obtain and backup information and comprising a data collection component configured to collect a set of industrial data from a set of devices of an industrial automation system and store the set of industrial data in a data store on a cloud platform; and a modeler component configured to generate a model of the industrial automation system as a plant backup, based at least in part on an analysis of the set of collected industrial data and stored in the data store; and a backup management component configured to manage operations of other components of or associated with the backup component and download at least a subset of model data of the model of the industrial automation system from the data store on the cloud platform to configure and implement a new industrial automation system that is the same as or similar to the industrial automation system. a backup component configured to obtain and backup information and comprising a data collection component configured to collect a set of industrial data from a set of devices of an industrial automation system and store the set of industrial data in a data store on a cloud platform; and a modeler component configured to generate a model of the industrial automation system as a plant backup, based at least in part on an analysis of the set of collected industrial data and stored in the data store; and a backup management component configured to manage operations of other components of or associated with the backup component and download at least a subset of model data of the model of the industrial automation system from the data store on the cloud platform to configure and implement a new industrial automation system that is the same as or similar to the industrial automation system.
A tank system for a low-floor vehicle, in particular a bus, with at least one tank for receiving a cryogenic fluid, with a storage unit that can be mounted on the roof of the vehicle and comprises the at least one tank and a protective housing which encloses or adjoins the tank and in which a valve assembly connected to the tank is accommodated, and an operating unit that can be mounted in or on the vehicle within reach of a person being inside or standing next to it and that is connected with the storage unit via a line duct, characterized in that the valve assembly comprises a shut-off valve that is inserted in an extraction line emerging from the bottom space of the tank and leading via the valve assembly to a combustion engine of the vehicle and that can be actuated electrically from an emergency stop switch arranged in the operating unit. a storage unit that can be mounted on the roof of the vehicle and comprises the at least one tank and a protective housing which encloses or adjoins the tank and in which a valve assembly connected to the tank is accommodated, and an operating unit that can be mounted in or on the vehicle within reach of a person being inside or standing next to it and that is connected with the storage unit via a line duct, characterized in that the valve assembly comprises a shut-off valve that is inserted in an extraction line emerging from the bottom space of the tank and leading via the valve assembly to a combustion engine of the vehicle and that can be actuated electrically from an emergency stop switch arranged in the operating unit.
Ethylene copolymer (PE-C) comprising at least (a) a first polyethylene fraction (PE-F1), said fraction is an ethylene homopolymer, (b) a second polyethylene fraction (PE-F2), said fraction is an ethylene copolymer of ethylene and 1 -butene, wherein (c) said ethylene copolymer (PE-C) has a melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, in the range of 2.0 to 60 g/10min; (d) said first polyethylene fraction (PE-F1) has a melt flow rate MFR 2 (190 °C; 2.16 kg) measured according to ISO 1133, in the range of 200 to 400 g/10min; and (e) said ethylene copolymer (PE-C) has a density measured according to ISO 1 183 / 1 872-2 B in the range of 0.919 to 0.954 g/cm 3; (f) said ethylene copolymer (PE-C) has a melt flow rate MFR 2 (190°C; 2.16 kg) measured according to ISO 1133 in the range of from 0.01 to 0.3 g/10min; (g) said ethylene copolymer (PE-C) has flow rate ratio (FFR; MFR 21 /MFR 5) in the range from 11 to 23.4, wherein the MFR 5 is the melt flow rate MFR 5 (190 °C; 5 kg) measured according to ISO 1133. (a) a first polyethylene fraction (PE-F1), said fraction is an ethylene homopolymer, (b) a second polyethylene fraction (PE-F2), said fraction is an ethylene copolymer of ethylene and 1 -butene, wherein (c) said ethylene copolymer (PE-C) has a melt flow rate MFR 21 (190 °C; 21.6 kg) measured according to ISO 1133, in the range of 2.0 to 60 g/10min; (d) said first polyethylene fraction (PE-F1) has a melt flow rate MFR 2 (190 °C; 2.16 kg) measured according to ISO 1133, in the range of 200 to 400 g/10min; and (e) said ethylene copolymer (PE-C) has a density measured according to ISO 1 183 / 1 872-2 B in the range of 0.919 to 0.954 g/cm 3; (f) said ethylene copolymer (PE-C) has a melt flow rate MFR 2 (190°C; 2.16 kg) measured according to ISO 1133 in the range of from 0.01 to 0.3 g/10min; (g) said ethylene copolymer (PE-C) has flow rate ratio (FFR; MFR 21 /MFR 5) in the range from 11 to 23.4, wherein the MFR 5 is the melt flow rate MFR 5 (190 °C; 5 kg) measured according to ISO 1133.
A process, comprising: i) frictionally holding an end of a wire of a parallel wire structural cable; ii) pulling an opposite end of the wire to a tension value; and iii) frictionally holding the opposite end of the wire to maintain the tension value; characterized by iv) repeating i) through iii) for each of a plurality of the parallel wires in the structural cable individually and securing the parallel wires as a bundle to maintain tension. i) frictionally holding an end of a wire of a parallel wire structural cable; ii) pulling an opposite end of the wire to a tension value; and iii) frictionally holding the opposite end of the wire to maintain the tension value; characterized by iv) repeating i) through iii) for each of a plurality of the parallel wires in the structural cable individually and securing the parallel wires as a bundle to maintain tension.
Recovery steam generator comprising: a flue-gases flowing chamber extending along a longitudinal axis and provided with an inlet and an outlet; a steam circuit supplied with water and extending at least partially within the flue-gases flowing chamber so as to exploit the heat of the flue-gases to generate steam; the steam circuit comprising: • a superheating section comprising at least two superheating banks (22; 27) arranged in series with each other; • a plurality of connecting pipes (25, 29) configured to connect the at least two superheating banks (22; 27) in series with each other; • at least a plurality of first injection pipes (30; 31) configured to inject a first heat transfer fluid into each of the connecting pipes (25; 25, 29); • a control device configured to regulate the flow rate of the first heat transfer fluid supplied via the first injection pipes (30; 31); the recovery steam generator being characterized by the fact that the first injection pipes are connected to a first manifold provided with a first valve and by the fact that the control device is configured to adjust the first valve to control the flow rate of the first heat transfer fluid fed to the first manifold. a flue-gases flowing chamber extending along a longitudinal axis and provided with an inlet and an outlet; a steam circuit supplied with water and extending at least partially within the flue-gases flowing chamber so as to exploit the heat of the flue-gases to generate steam; the steam circuit comprising: • a superheating section comprising at least two superheating banks (22; 27) arranged in series with each other; • a plurality of connecting pipes (25, 29) configured to connect the at least two superheating banks (22; 27) in series with each other; • at least a plurality of first injection pipes (30; 31) configured to inject a first heat transfer fluid into each of the connecting pipes (25; 25, 29); • a control device configured to regulate the flow rate of the first heat transfer fluid supplied via the first injection pipes (30; 31); • a superheating section comprising at least two superheating banks (22; 27) arranged in series with each other; • a plurality of connecting pipes (25, 29) configured to connect the at least two superheating banks (22; 27) in series with each other; • at least a plurality of first injection pipes (30; 31) configured to inject a first heat transfer fluid into each of the connecting pipes (25; 25, 29); • a control device configured to regulate the flow rate of the first heat transfer fluid supplied via the first injection pipes (30; 31); the recovery steam generator being characterized by the fact that the first injection pipes are connected to a first manifold provided with a first valve and by the fact that the control device is configured to adjust the first valve to control the flow rate of the first heat transfer fluid fed to the first manifold.
A centrifugal separator comprising a frame, a bearing device and a rotor having a first end and a second end, wherein the rotor, in relation to the frame, is rotatable around an axis (x) of rotation and connected to the frame via the bearing device, wherein the rotor comprises a spindle, which is hollow and defines a central inner space, wherein the spindle has a first portion adjoining the first end, an intermediate portion and a second portion adjoining the second end, a support element, which is provided around and connected to the spindle, a separation space, a set of separation discs, which are provided in the separation space around the first portion of the spindle and against the support element, and a rotor casing that delimits the separation space, a feed conduit for feeding of a product, and at least a first discharge conduit for discharging a first phase of the product, wherein the support element is provided around the intermediate portion of the spindle, characterized in that the bearing device is connected to and provided around the second portion of the spindle, and that the feed conduit and the first discharge conduit extend into the central inner space via the second end.
A propeller assembly with at least two propeller blades (1a, 1b) that are interconnected by associated connection means, the associated connection means defining a common pitch axis for the at least two propeller blades (1a, 1b) in operation, each one of the at least two propeller blades (1a, 1b) comprising associated leading and trailing edges (2a, 2b) that define a respective chord and quarter chord line thereof and the associated connection means enables, at least in operation in a non-axial inflow field, a passive pitch adjustment of the at least two propeller blades (1a, 1b) around the common pitch axis in response to aerodynamic forces acting on the at least two propeller blades (1a, 1b), characterized in that the common pitch axis has an upstream predetermined offset relative to the quarter chord line of each one of the at least two propeller blades (1a, 1b), the upstream predetermined offset being in a region defined between the leading edge and the quarter chord line of each one of the at least two propeller blades (1a, 1b) to produce an additional moment next to the blade's quarter chord line moment resulting from a rotation of each one of the at least two propeller blades (1a, 1b) around the quarter chord line.
A method comprising: detecting, with a passive infrared sensor, PIR, a level of infrared radiation in a field of view, FOV, of the PIR; generating a signal based on detected levels over a period of time, the signal having values that exhibit a change in the detected levels; extracting a local feature from a sample of the signal, wherein the local feature indicates a probability that a human in the FOV caused the change in the detected levels; extracting a global feature from the sample of the signal, wherein the global feature indicates a probability that an environmental radiation source caused the change in the detected levels; determining a score based on the local feature and the global feature; and determining that a human motion has been detected in the FOV based on the score. detecting, with a passive infrared sensor, PIR, a level of infrared radiation in a field of view, FOV, of the PIR; generating a signal based on detected levels over a period of time, the signal having values that exhibit a change in the detected levels; extracting a local feature from a sample of the signal, wherein the local feature indicates a probability that a human in the FOV caused the change in the detected levels; extracting a global feature from the sample of the signal, wherein the global feature indicates a probability that an environmental radiation source caused the change in the detected levels; determining a score based on the local feature and the global feature; and determining that a human motion has been detected in the FOV based on the score.
A method for controlling a cooling process of casting molds for cosmetic products during passing through a cooling section inside an installation in a cyclic feedback loop, the method comprising: determining a first process parameter associated with a first casting mold; controlling a passing time of a second casting mold through the cooling section based on the first process parameter; and controlling the cooling behaviour of the cooling section during passage of the second casting mold based on the first process parameter. determining a first process parameter associated with a first casting mold; controlling a passing time of a second casting mold through the cooling section based on the first process parameter; and controlling the cooling behaviour of the cooling section during passage of the second casting mold based on the first process parameter.
Ionization apparatus comprising a housing and at least partly within in the housing a high voltage power supply arrangement with at least one ion emitting electrode connected thereto, wherein the housing comprises an outer casing which is at least partly, preferably for the most part, made of conducting material and an inner casing inserted into the outer casing which is at least partly, preferably for the most part, made of non conducting material, wherein the outer casing provides at least part of the outer surface of the housing, wherein the high voltage supply arrangement with the ion emitting electrode connected thereto is at least partly situated in the inner casing and wherein the housing is of oblong design and extends along a housing axis, characterized in that the outer casing is of the basic structure of an U-profile with a base portion situated at the bottom of the housing and two leg portions (7b,c) extending from the bottom into the direction of the top of the housing, that the free ends of the leg portions (7b,c) of the outer casing provide a rim and that a rim isolation is attached to the rim.
A system for allowing the restoration of an interconnection of a die (Di) of a power module, a first terminal of the interconnection being fixed on the die and a second terminal of the interconnection being connected to an electric circuit, wherein the system comprises: - at least one material (100a, 100b) located in the vicinity of the first terminal of the interconnection, the material having a predetermined melting temperature, - means for controlling the temperature of the die at the predetermined melting temperature during a predetermined period of time, characterized in that the die (Di) is fixed on a copper layer of a direct copper bonding substrate (140, 150, 160) and, the die, the direct copper bond substrate and the at least one material located in the vicinity of the first terminal are covered by a solid material. - at least one material (100a, 100b) located in the vicinity of the first terminal of the interconnection, the material having a predetermined melting temperature, - means for controlling the temperature of the die at the predetermined melting temperature during a predetermined period of time,
Method for manufacturing a rotary anode for a rotary anode X-ray tube, the rotary anode comprising an anode disc with a supporting portion made from molybdenum or a molybdenum alloy and an anode portion mounted at a focal track on the surface of the supporting portion in the vicinity of its outer diameter, the manufacture at least comprising the steps of - forming of the supporting portion from molybdenum or a molybdenum alloy by a deformation process at a temperature lower than a re-crystallization temperature of the molybdenum or the molybdenum alloy, - mounting the anode portion onto the surface of the supporting portion, - heating the anode disc selectively in the vicinity of the outer diameter of the supporting portion at a temperature at least as high as the re-crystallization temperature of the material of the supporting portion so as to obtain a material of the supporting portion having a degree of re-crystallization increasing along the radial coordinate of the anode disc to obtain a material of the supporting portion having a high yield strength at least in the area of an inner diameter of the anode disc and a thermally stable state at the focal track, wherein a crystal structure of the material of the supporting portion is not re-crystallized in the area of the inner diameter of the anode disc and is completely re-crystallized at the focal track. - forming of the supporting portion from molybdenum or a molybdenum alloy by a deformation process at a temperature lower than a re-crystallization temperature of the molybdenum or the molybdenum alloy, - mounting the anode portion onto the surface of the supporting portion, - heating the anode disc selectively in the vicinity of the outer diameter of the supporting portion at a temperature at least as high as the re-crystallization temperature of the material of the supporting portion so as to obtain a material of the supporting portion having a degree of re-crystallization increasing along the radial coordinate of the anode disc to obtain a material of the supporting portion having a high yield strength at least in the area of an inner diameter of the anode disc and a thermally stable state at the focal track, wherein a crystal structure of the material of the supporting portion is not re-crystallized in the area of the inner diameter of the anode disc and is completely re-crystallized at the focal track.
A crispy co-extruded foodstuff comprising: an extruded casing having: a flour component including: from 37% to 92% by weight wheat flour, and greater than 0 wt% up to 20 wt% of non-wheat flour, wherein the non-wheat flour includes at least one of corn flour, potato flour and rice flour, wherein said flours each refer to a flour or a meal with various particle sizes, and from 3% to 30% by weight sugar; an extruded filling disposed within the extruded casing wherein filling weight is from 20 wt% to 75 wt% of total weight of the co-extruded foodstuff; a particulate component completely covering an external surface of the casing and a binder disposed over the external surface of the casing to adhere the particulate component to the casing, wherein the overall co-extruded foodstuff has a density of 0.45 g/mL to 0.85 g/mL. an extruded casing having: a flour component including: from 37% to 92% by weight wheat flour, and greater than 0 wt% up to 20 wt% of non-wheat flour, wherein the non-wheat flour includes at least one of corn flour, potato flour and rice flour, wherein said flours each refer to a flour or a meal with various particle sizes, and from 3% to 30% by weight sugar; an extruded filling disposed within the extruded casing wherein filling weight is from 20 wt% to 75 wt% of total weight of the co-extruded foodstuff; a particulate component completely covering an external surface of the casing and a binder disposed over the external surface of the casing to adhere the particulate component to the casing, wherein the overall co-extruded foodstuff has a density of 0.45 g/mL to 0.85 g/mL.
Apparatus for producing ventral images of aquatic organisms, in particular of amphibians, more particularly of newts, said apparatus comprising a) a hollow conduct with a first opening and a second opening, said first and second openings (12, 14) being opposed from each other, b) a watertight container, wherein said hollow conduct and said watertight container are separated by a wall, said wall transmitting the wavelengths comprised between 390 nm and 1.4 μm, wherein said apparatus, except for said wall, is opaque to the wavelengths comprised between 390 nm and 1.4 μm, wherein said watertight container comprises an underwater video camera oriented towards said wall, wherein said watertight container is positioned below said hollow conduct, said watertight container being filled with clean water. a) a hollow conduct with a first opening and a second opening, said first and second openings (12, 14) being opposed from each other, b) a watertight container, wherein said hollow conduct and said watertight container are separated by a wall, said wall transmitting the wavelengths comprised between 390 nm and 1.4 μm, wherein said apparatus, except for said wall, is opaque to the wavelengths comprised between 390 nm and 1.4 μm, wherein said watertight container comprises an underwater video camera oriented towards said wall, wherein said watertight container is positioned below said hollow conduct, said watertight container being filled with clean water.