mhurhangee/ep-ind-claims huggingface dataset:
An automotive vehicle (10, 110) comprising a port (26, 126) integrated with the vehicle (10, 110) and including electrical contacts configured to conduct electrical power, a fault interrupt circuit electrically connected with the electrical contacts and a chassis, the port is charge port (26, 126), that the electrical contacts are configured to receive electrical power from an electric grid, that the electrical contacts include a line (34, 134), a neutral (36, 136), and a ground (38, 138), that the fault interrupt circuit receives the line (34, 134), the neutral (36, 136), and the ground (38, 138), voltages from the electrical contacts, grounds the ground voltage to the vehicle chassis that the vehicle further comprises a power converter (16, 116), that the power converter (16, 116) is a battery charger disposed within the vehicle, that the fault interrupt circuit is electrically connected between the electrical contacts and the power converter (16, 116), characterized in that the vehicle further comprises another fault interrupt circuit, and that the another fault interrupt circuit is electrically connected between, the charge port (26, 126) and the power converter (16, 116) and protects from ground faults between a charging cable and the chassis of the vehicle (10, 110).
A tangible, non-transitory computer readable medium storing instructions that, when executed by a processor, are configured to cause the processor to: receive a first set of inputs comprising a motion profile of a machine, a mechanical design of the machine, or both; generate a plurality of axis solutions (SOLUTION 1...5)based on a model using the first set of inputs, wherein an axis solution includes one or more actuators, drives, and load transmission components; generate a curve (56; 112) of production rate versus amount of energy consumed per produced part for each of the plurality of axis solutions; display the curve for each of the plurality of axis solutions; identify an optimal point on one curve (SOLUTION 5) of the curves by finding a point on the curves that represents a lowest amount of energy consumed for a desired production rate range; select one of the plurality of axis solutions, wherein the selected axis solution is associated with the curve that includes the optimal point; and generate an enhanced production rate schedule for the selected axis solution, wherein an objective function is used to find the enhanced production rate schedule that satisfies production objectives for minimized energy costs, wherein the energy cost is estimated by simulating the machine running the enhanced production rate schedule, wherein the enhanced production rate schedule comprises a schedule of production rates that produce the lowest energy cost for a production time window while enabling a desired number of parts to be produced by the machine. receive a first set of inputs comprising a motion profile of a machine, a mechanical design of the machine, or both; generate a plurality of axis solutions (SOLUTION 1...5)based on a model using the first set of inputs, wherein an axis solution includes one or more actuators, drives, and load transmission components; generate a curve (56; 112) of production rate versus amount of energy consumed per produced part for each of the plurality of axis solutions; display the curve for each of the plurality of axis solutions; identify an optimal point on one curve (SOLUTION 5) of the curves by finding a point on the curves that represents a lowest amount of energy consumed for a desired production rate range; select one of the plurality of axis solutions, wherein the selected axis solution is associated with the curve that includes the optimal point; and generate an enhanced production rate schedule for the selected axis solution, wherein an objective function is used to find the enhanced production rate schedule that satisfies production objectives for minimized energy costs, wherein the energy cost is estimated by simulating the machine running the enhanced production rate schedule, wherein the enhanced production rate schedule comprises a schedule of production rates that produce the lowest energy cost for a production time window while enabling a desired number of parts to be produced by the machine.
A peptide D-Arg-2'6'-dimethyltyrosine-Lys-Phe-NH 2, or a pharmaceutically acceptable salt thereof, for use in preventing dose-limiting neuropathic conditions in a subject receiving a chemotherapeutic agent.
A method for detecting an item (23; 53; 104; 402, 404; 501; 603), in particular a container, having at least one symmetry property, inside an inspection object, for example a piece of luggage, based on at least one transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) of the inspection object, wherein the method includes a step of producing a transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) by means of inspecting an inspection object through ionizing radiation and subsequently the following steps: (a) detection of edges (29, 31; 59, 65; 410a, 412a, 410b, 412b, 442, 446, 418a, 420a, 418b, 420b, 444, 448; 512a, 512b) of items contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) in order to produce an edge image (1b; 40b; 400b; 500b); and (b) detection of the item (23; 53; 104; 402, 404; 501; 603) by means of determining of a symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) of the item (23; 53; 104; 402, 404; 501; 603) having at least one symmetry property contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) by detecting pairs of edge picture elements of the edge image (1b; 40b; 400b; 500b) that are positioned symmetrically to each other relative to the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) that is to be determined; characterized in that in step (b), in the determining of the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) in the edge image (1b; 40b; 400b; 500b), the only edge picture elements that are taken into account are those for which the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) lies in the image region of the item (23; 53; 104; 402, 404; 501; 603) to which the edge picture elements belong, and in step (b), based on intensity values of individual picture elements in the transmission image, a determination is made as to which side of an edge (410a, 410b, 418a) under consideration is the one in which an image region (424, 426, 430) of the transmission image can be associated with the item (402 and 404) belonging to the edge (410a, 410b, 418a). (a) detection of edges (29, 31; 59, 65; 410a, 412a, 410b, 412b, 442, 446, 418a, 420a, 418b, 420b, 444, 448; 512a, 512b) of items contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) in order to produce an edge image (1b; 40b; 400b; 500b); and (b) detection of the item (23; 53; 104; 402, 404; 501; 603) by means of determining of a symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) of the item (23; 53; 104; 402, 404; 501; 603) having at least one symmetry property contained in the transmission image (1a; 40a; 400a; 500a; 600a; 600b; 600c) by detecting pairs of edge picture elements of the edge image (1b; 40b; 400b; 500b) that are positioned symmetrically to each other relative to the symmetry line (27; 61; 408, 416, 511; 601a; 601b; 601c) that is to be determined; characterized in that
Bifidobacterium longum NCIMB 41003 for use in the prophylaxis or treatment of asthma, chronic obstructive pulmonary disease (COPD), eosinophilic COPD, infection-associated inflammation, allergen-induced inflammation, allergic rhinitis or chronic rhinosinusitis.
Blade access arrangement for a rotor blade of a wind power plant having a tower, the arrangement comprising a platform having a number of sub-platforms (6, 7, 8, 9) movably connected to each other by means of a connecting arrangement, tower guide means arranged in pairs in a distance from each other and configured to be distributed along a perimeter of the tower for guiding the platform against the tower, a bar arrangement (11, 12) connecting the platform with the tower guiding means and a hoisting arrangement for hoisting the blade access arrangement up and down, where each of the tower guide means is provided with a pivot point (23, 24), characterized in that the bar arrangement (11,12) is provided at each side of the platform, and in that to the pivot point (23,24) a bar of the bar arrangement (11, 12) in shape of telescopic lattice beams (11, 12) is at an end connected to the tower guide means in a joint (23, 24) in such a way that the joint can pivot around an axis perpendicular to a plane parallel to a floor section of the platform, and in that in a distance from the end of the bar arrangement (11, 12), the bar arrangement (11,12) at each side of the platform is connected to a sub-platform (6, 7) of the platform by a further pivot point (123, 124) and that the bar arrangement (11, 12) at each side of the platform, is connected to another sub-platform by a pair of displaceable connections (40a, 40b) capable of being displaced in a direction crosswise to a lengthwise direction of the bar arrangement (11, 12).
Method for implementing a scanning electron microscopy characterisation technique for the determination of at least one critical dimension of the structure of a sample in the field of dimensional metrology, known as CD-SEM technique, said method comprising the following steps: - producing an experimental image representative of the structure of the sample and derived from a scanning electron microscope; - from a first theoretical model based on parametric mathematical functions, calculating a second theoretical model U ( P i, t i) describing a signal measured during producing of said image, the signal being measured by a detector of the microscope, at the instant t i, when a primary electron beam illuminates the position P i, said second model U ( P i, t i) being obtained by algebraic summation of a corrective term S ( P i, t i), said second theoretical model being parameterized by a set of parameters to be determined, first and second theoretical model being each a mathematical representation of the sample structure in the experimental image; - determination of the set of parameters present in the second theoretical model by means of an adjustment between said second theoretical model and said experimental image; said method being characterised in that said corrective term S ( P i, t i) is calculated by summing the signal originating from the electric charges deposited by the primary electron beam at a plurality of instants t less than or equal to t i, the corrective term being obtained as a convolution product between the first parametric model and a given convolution kernel, which contains a temporal dispersion function and a spatial dispersion function. - producing an experimental image representative of the structure of the sample and derived from a scanning electron microscope; - from a first theoretical model based on parametric mathematical functions, calculating a second theoretical model U ( P i, t i) describing a signal measured during producing of said image, the signal being measured by a detector of the microscope, at the instant t i, when a primary electron beam illuminates the position P i, said second model U ( P i, t i) being obtained by algebraic summation of a corrective term S ( P i, t i), said second theoretical model being parameterized by a set of parameters to be determined, first and second theoretical model being each a mathematical representation of the sample structure in the experimental image; - determination of the set of parameters present in the second theoretical model by means of an adjustment between said second theoretical model and said experimental image;
Luminaire with an LED printed circuit board and a housing, which comprises at least one holder made of sheet metal, which serves as a contact surface for the LED printed circuit board, which carries one or more LED's, wherein the LED printed circuit board exhibits at least one opening, extending through which is a sheet metal section (10; 10') connected as one piece to the holder, which, on the side of the LED printed circuit board opposite the contact surface, is bent around an edge of the opening, characterized in that, on the side of the LED printed circuit board facing away from the holder an additional lamp component is arranged, which is held together with the LED printed circuit board by means of the sheet metal section.
A method of assembling an aluminium end of a tubular post of a supporting tower to a vertical steel assembly bell, comprising inserting a coupling between the end of the tubular post and the assembly bell, supplying molten aluminium between the end of the tubular post and the bell assembly to create at least one weld bead providing a keyed connection between the end of the tubular post and the assembly bell, the assembly bell comprising an internal annular shoulder adapted to receive the end of the tubular post and a plurality of slots opening above the internal shoulder, the method comprising inserting the end of the tubular post inside the assembly bell to abut against the internal shoulder thereof, and introducing molten aluminium into the apertures of the assembly bell to fill them
A contact nozzle for coating at least one elastic strand with an adhesive, a first strand having a periphery with an upper surface and moving in a machine direction, the contact nozzle comprising: a nozzle body including a first elongate adhesive chamber for receiving the first strand, said first elongate adhesive chamber including a first chamber surface; a first adhesive passage formed in said nozzle body and terminating at a first adhesive orifice in said first chamber surface and adapted to be directed at the upper surface of the first strand to deliver the adhesive into contact with the upper surface of the first strand; a first air passage positioned proximate to said first adhesive passage and terminating at a first air orifice positioned downstream from said first adhesive orifice in the machine direction, said first air orifice adapted to be directed toward the upper surface of the first strand and adapted to discharge air at the adhesive in contact with the first strand to cause the adhesive to spread around the periphery of the first strand, and characterised in that, said first air orifice is adapted to discharge air at the adhesive in contact with the first strand without blowing the adhesive off the first elastic strand wherein said first air passage is formed in said nozzle body and air discharged from said first air orifice is adapted to impact the adhesive on the first strand at an acute angle (α) relative to the machine direction. a nozzle body including a first elongate adhesive chamber for receiving the first strand, said first elongate adhesive chamber including a first chamber surface; a first adhesive passage formed in said nozzle body and terminating at a first adhesive orifice in said first chamber surface and adapted to be directed at the upper surface of the first strand to deliver the adhesive into contact with the upper surface of the first strand; a first air passage positioned proximate to said first adhesive passage and terminating at a first air orifice positioned downstream from said first adhesive orifice in the machine direction, said first air orifice adapted to be directed toward the upper surface of the first strand and adapted to discharge air at the adhesive in contact with the first strand to cause the adhesive to spread around the periphery of the first strand, and characterised in that, said first air orifice is adapted to discharge air at the adhesive in contact with the first strand without blowing the adhesive off the first elastic strand wherein said first air passage is formed in said nozzle body and air discharged from said first air orifice is adapted to impact the adhesive on the first strand at an acute angle (α) relative to the machine direction.
A cable routing system, comprising: a lateral trough section, the lateral trough section having a bottom portion and two upstanding sides (24, 26) extending from the bottom portion to define a cable pathway, at least one of the upstanding sides having substantially uniform height and terminating at a top edge spaced from the bottom portion; and a cable exit trough, the cable exit trough including an exit trough portion having a curved bottom surface, the exit trough portion further including two side walls, the exit trough portion including the two side walls defining a cable exit pathway; wherein the cable exit trough is releasably mountable to the lateral trough section with the cable exit pathway extending over the top edge of the lateral trough section so that cable can be routed upwardly from the lateral trough section, and then over the top edge of the lateral trough section; characterized in that the exit trough portion has an upstanding guidewall dividing the cable exit pathway of the cable exit trough. a lateral trough section, the lateral trough section having a bottom portion and two upstanding sides (24, 26) extending from the bottom portion to define a cable pathway, at least one of the upstanding sides having substantially uniform height and terminating at a top edge spaced from the bottom portion; and a cable exit trough, the cable exit trough including an exit trough portion having a curved bottom surface, the exit trough portion further including two side walls, the exit trough portion including the two side walls defining a cable exit pathway; wherein the cable exit trough is releasably mountable to the lateral trough section with the cable exit pathway extending over the top edge of the lateral trough section so that cable can be routed upwardly from the lateral trough section, and then over the top edge of the lateral trough section; characterized in that the exit trough portion has an upstanding guidewall dividing the cable exit pathway of the cable exit trough.
A method for predicting a gas concentration based on collaborative filtering, comprising: acquiring gas-related scenario information of a plurality of historical users having a gas leakage; acquiring scenario information of a current user, and calculating a similarity in the scenario information between the plurality of historical users and the current user via a collaborative filtering algorithm; acquiring a first user set by selecting the historical users whose similarity exceeds a threshold, and acquiring a gas leakage predicting equation for the current user based on gas leakage data of the historical users in the first user set; and predicting a gas leakage of the current user via the gas leakage predicting equation; the "predicting the gas leakage of the current user via the gas leakage predicting equation" specifically comprises: acquiring a gas concentration Ct in a kitchen of the current user via a gas sensor '; calculating warning time t1 for the gas concentration to reach a warning value Ct1 via the gas leakage predicting equation when the gas concentration Ct in the kitchen is detected to reach a predetermined lower limit value Ct0; and sending the warning time t1 to the user. acquiring gas-related scenario information of a plurality of historical users having a gas leakage; acquiring scenario information of a current user, and calculating a similarity in the scenario information between the plurality of historical users and the current user via a collaborative filtering algorithm; acquiring a first user set by selecting the historical users whose similarity exceeds a threshold, and acquiring a gas leakage predicting equation for the current user based on gas leakage data of the historical users in the first user set; and predicting a gas leakage of the current user via the gas leakage predicting equation; the "predicting the gas leakage of the current user via the gas leakage predicting equation" specifically comprises: acquiring a gas concentration Ct in a kitchen of the current user via a gas sensor '; calculating warning time t1 for the gas concentration to reach a warning value Ct1 via the gas leakage predicting equation when the gas concentration Ct in the kitchen is detected to reach a predetermined lower limit value Ct0; and sending the warning time t1 to the user. acquiring a gas concentration Ct in a kitchen of the current user via a gas sensor '; calculating warning time t1 for the gas concentration to reach a warning value Ct1 via the gas leakage predicting equation when the gas concentration Ct in the kitchen is detected to reach a predetermined lower limit value Ct0; and sending the warning time t1 to the user.
A derivative of a GLP-1 analogue, which analogue comprises a first K residue at a position corresponding to position 18 of GLP-1 (SEQ ID NO: 1), a second K residue at another position, and a maximum of twelve amino acid changes as compared to GLP-1, which derivative comprises two protracting moieties attached to said first and second K residue, respectively, via a linker, wherein the protracting moiety is selected from Chem. 2, and Chem. 1: Chem. 2: HOOC-C 6 H 4 -O-(CH 2) y -CO-* Chem. 1: HOOC-(CH 2) x -CO-*, in which x is an integer in the range of 6-18, and y is an integer in the range of 3-17; and the linker comprises Chem. 3: *-NH-(CH 2) q -CH[(CH 2) w -NH 2]-CO-*, wherein q is an integer in the range of 0-5, and w is an integer in the range of 0-5; or a pharmaceutically acceptable salt, amide, or ester thereof.
An internal combustion engine comprising: a catalyst arranged in an exhaust passage and able to store oxygen, a variable valve timing mechanism (B, C) able to change a valve overlap amount between an intake valve and an exhaust valve, a plurality of cylinders, and a plurality of cylinder fuel injectors directly injecting fuel into the cylinders, wherein at least part of the plurality of cylinder fuel injectors is configured to inject fuel to feed the fuel to the exhaust passage only in an initial exhaust stroke at each cylinder after scavenging, where valve overlap causes air to be expelled from an intake passage through a cylinder to the exhaust passage, initially occurs at the plurality of cylinders when the scavenging is demanded. a catalyst arranged in an exhaust passage and able to store oxygen, a variable valve timing mechanism (B, C) able to change a valve overlap amount between an intake valve and an exhaust valve, a plurality of cylinders, and a plurality of cylinder fuel injectors directly injecting fuel into the cylinders, wherein at least part of the plurality of cylinder fuel injectors is configured to inject fuel to feed the fuel to the exhaust passage only in an initial exhaust stroke at each cylinder after scavenging, where valve overlap causes air to be expelled from an intake passage through a cylinder to the exhaust passage, initially occurs at the plurality of cylinders when the scavenging is demanded.