mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine (100, 200, 300, 400, 500, 600, 700), comprising: a shaft (104, 204, 504, 506, 608, 610) having a first air compressor (102, 202, 316, 512, 702) coupled thereto; a combustor (116, 208, 310, 418, 518, 606, 718) positioned to receive compressed air from the first air compressor (102, 202, 316, 512, 702); and a power source (122, 216, 302, 402, 502,) coupled to the shaft (104, 204, 504, 506, 608, 610), wherein the power source (122, 216, 302, 402, 502) is powered by a working fluid other than the compressed air, wherein the working fluid is carbon dioxide and the power source (122, 216, 302, 402, 502) comprises: a second compressor (218, 308, 416, 508, 712) coupled to the shaft (104, 204, 504, 506, 608, 610); a turbine (220, 312, 420, 510, 516, 602, 604, 714) coupled to the shaft (104, 204, 504, 506, 608, 610); and a first closed circuit (302, 402, 502) that directs the working fluid from a heat exchanger (222, 306, 414, 522, 612, 704), through the second compressor (218, 308, 416, 508, 712), through the combustor (116, 208, 310, 418, 518, 606, 718), to the turbine (220, 312, 420, 510, 516, 602, 604, 714), and to the heat exchanger (222, 306, 414, 522, 612, 704), providing power from the turbine (220, 312, 420, 510, 516, 602, 604, 714) to the shaft (104, 204, 504, 506, 608, 610). a shaft (104, 204, 504, 506, 608, 610) having a first air compressor (102, 202, 316, 512, 702) coupled thereto; a combustor (116, 208, 310, 418, 518, 606, 718) positioned to receive compressed air from the first air compressor (102, 202, 316, 512, 702); and a power source (122, 216, 302, 402, 502,) coupled to the shaft (104, 204, 504, 506, 608, 610), wherein the power source (122, 216, 302, 402, 502) is powered by a working fluid other than the compressed air, wherein the working fluid is carbon dioxide and the power source (122, 216, 302, 402, 502) comprises: a second compressor (218, 308, 416, 508, 712) coupled to the shaft (104, 204, 504, 506, 608, 610); a turbine (220, 312, 420, 510, 516, 602, 604, 714) coupled to the shaft (104, 204, 504, 506, 608, 610); and a first closed circuit (302, 402, 502) that directs the working fluid from a heat a second compressor (218, 308, 416, 508, 712) coupled to the shaft (104, 204, 504, 506, 608, 610); a turbine (220, 312, 420, 510, 516, 602, 604, 714) coupled to the shaft (104, 204, 504, 506, 608, 610); and a first closed circuit (302, 402, 502) that directs the working fluid from a heat exchanger (222, 306, 414, 522, 612, 704), through the second compressor (218, 308, 416, 508, 712), through the combustor (116, 208, 310, 418, 518, 606, 718), to the turbine (220, 312, 420, 510, 516, 602, 604, 714), and to the heat exchanger (222, 306, 414, 522, 612, 704), providing power from the turbine (220, 312, 420, 510, 516, 602, 604, 714) to the shaft (104, 204, 504, 506, 608, 610).
Method for producing a control panel for a hydraulic machine, in particular an axial piston machine, wherein a control panel blank is manufactured from metal, and subsequently the geometry of the control panel blank is modified, by means of non-cutting manufacture, for implementing the control functions, wherein the modification comprises producing one or more through-openings, characterised in that the non-cutting processing comprises a work step of shaping/preshaping in conjunction with material displacement, wherein the through-openings are additionally pierced through the control panel following preshaping, by means of stamping.
A method for manufacturing a non-superelastic file comprising the steps of: (i) providing a superelastic file having an austenite finish temperature; and (ii) heating at least a portion of the superelastic file to a temperature from 300 °C to 600 °C for a period of time from 5 minutes to 120 minutes to alter the austenite finish temperature thereby forming the non-superelastic file; wherein the altered austenite finish temperature of the non-superelastic file is from 20°C to 40°C; further comprising the step of (iii) cooling the portion of the non-superelastic file and (iv) heating at least a portion of the cooled non superelastic file to a temperature from 300 °C to 650 °C for a time period from 1 minute to 45 minute to shape-set the portion of the shaft thereby forming a shape-set non-superelastic nonlinear file. (i) providing a superelastic file having an austenite finish temperature; and (ii) heating at least a portion of the superelastic file to a temperature from 300 °C to 600 °C for a period of time from 5 minutes to 120 minutes to alter the austenite finish temperature thereby forming the non-superelastic file; wherein the altered austenite finish temperature of the non-superelastic file is from 20°C to 40°C; (iii) cooling the portion of the non-superelastic file and (iv) heating at least a portion of the cooled non superelastic file to a temperature from 300 °C to 650 °C for a time period from 1 minute to 45 minute to shape-set the portion of the shaft thereby forming a shape-set non-superelastic nonlinear file.
A method of synthesizing a compound according to formula: or a pharmaceutically acceptable salt thereof, the method comprising reacting an aldehyde according to formula: with nitromethane under Henry reaction conditions to form a compound according to formula: and reducing the compound according to formula with a reducing agent to form the compound according to formula.
A coating composition comprising: a film-forming resin; an infrared reflective pigment; and an infrared fluorescent pigment or dye different from the infrared reflective pigment. a film-forming resin; an infrared reflective pigment; and an infrared fluorescent pigment or dye different from the infrared reflective pigment.
A solid oxide fuel cell stack having a structure in which a plurality of single fuel cells, each having an anode layer, a cathode layer, and a solid electrolyte layer, and a plurality of interconnectors are disposed alternately and held between a pair of end members (3, 4) in a direction in which the single fuel cells face one another, the solid oxide fuel cell stack being characterized in that a space (3a, 51a) is formed between at least one of the pair of end members (3, 4) which is a first end member and a first interconnector; a junction member composed of an elastic member (20, 60a, 60b, 70a, 70b, 80) and an electrically conductive member (21, 61, 71, 81) is disposed in the space (3a, 51a) in a state of being in contact with the first end member and the first interconnector; with respect to the direction in which the single fuel cells face one another, a portion of the electrically conductive member (21, 61, 71, 81) is disposed between the first end member and the elastic member (20, 60a, 60b, 70a, 70b, 80) to be in contact with at least the first end member, and another portion of the electrically conductive member (21, 61, 71, 81) is disposed between the first interconnector and the elastic member (20, 60a, 60b, 70a, 70b, 80) to be in contact with at least the first interconnector; and the first end member and the first interconnector are electrically connected through the electrically conductive member (21, 61, 71, 81).
A method for preparing vesicles from a Gram-negative bacterium in which at least one LytM catalytic domain-containing protein is inactivated comprising a step of obtaining vesicles from a culture of the bacterium, wherein: (a) the at least one LytM catalytic domain containing protein is inactivated by a knockout mutation in the coding region of the gene or its promoter that: (i) reduces the level of mRNA encoding the protein to 0% of that produced by the wild-type bacterium; or (ii) inhibits translation of the mRNA encoding the protein to 0% of that produced by the wild-type bacterium. (a) the at least one LytM catalytic domain containing protein is inactivated by a knockout mutation in the coding region of the gene or its promoter that: (i) reduces the level of mRNA encoding the protein to 0% of that produced by the wild-type bacterium; or (ii) inhibits translation of the mRNA encoding the protein to 0% of that produced by the wild-type bacterium. (i) reduces the level of mRNA encoding the protein to 0% of that produced by the wild-type bacterium; or (ii) inhibits translation of the mRNA encoding the protein to 0% of that produced by the wild-type bacterium.
A system comprising: a memory configured to store a plurality of efficacy maps; and a processor configured to: generate a volume of tissue activation based on a therapy program; and characterized by the processor being further configured to select one of the plurality of efficacy maps based on a patient condition or a patient symptom, each efficacy map comprising a plurality of voxels each representing a discrete volume of tissue, each of the voxels being assigned a value indicative of the effect of activation of the respective tissue region, and determine, based on the selected efficacy map and the VTA, an efficacy score for the therapy program with respect to said patient condition or said patient symptom, the efficacy score determined based on a comparison of the VTA and the efficacy map. a memory configured to store a plurality of efficacy maps; and a processor configured to: generate a volume of tissue activation based on a therapy program; and characterized by the processor being further configured to select one of the plurality of efficacy maps based on a patient condition or a patient symptom, each efficacy map comprising a plurality of voxels each representing a discrete volume of tissue, each of the voxels being assigned a value indicative of the effect of activation of the respective tissue region, and determine, based on the selected efficacy map and the VTA, an efficacy score for the therapy program with respect to said patient condition or said patient symptom, the efficacy score determined based on a comparison of the VTA and the efficacy map. generate a volume of tissue activation based on a therapy program; and characterized by the processor being further configured to select one of the plurality of efficacy maps based on a patient condition or a patient symptom, each efficacy map comprising a plurality of voxels each representing a discrete volume of tissue, each of the voxels being assigned a value indicative of the effect of activation of the respective tissue region, and determine, based on the selected efficacy map and the VTA, an efficacy score for the therapy program with respect to said patient condition or said patient symptom, the efficacy score determined based on a comparison of the VTA and the efficacy map.
A programmable controller system that includes a plurality of control units each provided with one controller and a plurality of input/output targets, the one controller and the plurality of input/output targets of each control unit being connected to a respective one of second networks, each of the controllers being connected also to a first network, each controller being configured to conduct an operation of computation and communication in accordance with a first cycle related to the first network and a respective second cycle related to the respective second network, wherein a specific controller (11, 150) among the plurality of controllers includes a first cycle generation unit configured to determine a first cycle start timing of itself on the basis of a second cycle start timing of itself, and each of the controllers (11, 160) other than the specific controller (11, 150) includes: a first cycle synchronization unit confgured to synchronize the first cycle start timing of itself with a first cycle start timing of the specific controller (11, 150); and a second cycle correction unit configured to correct the second cycle start timing of itself on the basis of the first cycle start timing of itself. a first cycle synchronization unit confgured to synchronize the first cycle start timing of itself with a first cycle start timing of the specific controller (11, 150); and a second cycle correction unit configured to correct the second cycle start timing of itself on the basis of the first cycle start timing of itself.
A transport trolley for transporting material rolls, in particular in a corrugated board plant, comprising a) a frame, b) at least three running units (9, 11) connected to the frame for running on a surface, c) at least one movement drive connected to the frame for driving at least one of the running units, d) a material roll receiving means supported by the frame for receiving a material roll to be transported, and e) a communication device connected to the frame and comprising a receiver unit for receiving external information, wherein the communication device i. is in signal connection with the at least one movement drive for actuating the latter, characterized in that f) the material roll receiving means i. is supported with respect to the frame by means of at least one spring unit, and ii. has, at the bottom, at least one supporting element for support with respect to a ground in case of compression of the at least one spring unit. a) a frame, b) at least three running units (9, 11) connected to the frame for running on a surface, c) at least one movement drive connected to the frame for driving at least one of the running units, d) a material roll receiving means supported by the frame for receiving a material roll to be transported, and e) a communication device connected to the frame and comprising a receiver unit for receiving external information, wherein the communication device i. is in signal connection with the at least one movement drive for actuating the latter, i. is in signal connection with the at least one movement drive for actuating the latter, i. is supported with respect to the frame by means of at least one spring unit, and ii. has, at the bottom, at least one supporting element for support with respect to a ground in case of compression of the at least one spring unit.
Nasal device adapted to modifying a subject's nasal airflow, comprising: - a flexible toroidal structure, adapted to be introduced at least partially into the subject's nasal cavities; - a closing element connected to the toroidal structure, equipped with means to alter the shape of said toroidal structure, causing it to adopt a new shape comprising at least two lobes (1', 1"), each of which can be inserted into a subject's nasal cavity; wherein the closing element is adapted to be arranged in the lower external region of the nose between the two nostrils so that, when the flexible toroidal structure is inserted into the subject's nasal cavities, each of the lobes (1', 1") of the toroidal structure presses against an inner surface of said nasal cavities. - a flexible toroidal structure, adapted to be introduced at least partially into the subject's nasal cavities; - a closing element connected to the toroidal structure, equipped with means to alter the shape of said toroidal structure, causing it to adopt a new shape comprising at least two lobes (1', 1"), each of which can be inserted into a subject's nasal cavity; wherein the closing element is adapted to be arranged in the lower external region of the nose between the two nostrils so that, when the flexible toroidal structure is inserted into the subject's nasal cavities, each of the lobes (1', 1") of the toroidal structure presses against an inner surface of said nasal cavities.
Method for repairing a deformed, in particular vertically oriented, support with a baseplate or a horizontally or obliquely extending brace (2, 3) of a shelf unit, wherein there is arranged, in the region of the deformation, at least one rail which encloses the support or the brace (2, 3), and, on the opposite side, at least one counter-plate or washer which is to be screwed to the support or the brace (2, 3) and the rail, or a further rail which is to be screwed to the first rail, wherein a manual straightening operation is carried out before applying the rail, which takes the form of a U-rail, a top-hat rail or an angle rail, and straightening of the support or the brace (2, 3) is carried out by means of the screwing operation, and wherein the rail is mounted on the support at any desired height in such a way that the deformation is situated approximately in the centre of the rail.
A washing machine comprising - a dispenser having a first compartment and a second compartment wherein cleaning agents are placed, - at least one flushing device (5, 105, 205) disposed on the dispenser, providing water to be directed into the dispenser, - a lid disposed on the flushing device (5, 105, 205), providing the water received from the mains to pass to the flushing device (5, 105, 205) and - a water inlet situated on the lid that transfers the water received from the mains to the flushing device (5, 105, 205), characterized by the dispenser having the second compartment wherein water is not directly transferred from the flushing device (5, 105, 205) and an inlet compartment that provides water transfer to the second compartment. - a dispenser having a first compartment and a second compartment wherein cleaning agents are placed, - at least one flushing device (5, 105, 205) disposed on the dispenser, providing water to be directed into the dispenser, - a lid disposed on the flushing device (5, 105, 205), providing the water received from the mains to pass to the flushing device (5, 105, 205) and - a water inlet situated on the lid that transfers the water received from the mains to the flushing device (5, 105, 205),
A first mobile device for sharing power with a second mobile device, the first mobile device comprising: a battery; an inductive coil; a charge sensor unit configured to identify a charge state of the battery of the first mobile device; a user interface unit configured to receive an input for selecting a source mode for the first mobile device, wherein in the source mode the first mobile device operates to supply power to the second mobile device; and an inverter circuit, characterized in that the inverter circuit is configured to, when an authentication of the second mobile device is successfully performed and the source mode is selected and while the identified charge state of the battery is greater than or equal to a predefined level: - convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage, and - supply the AC voltage such that power is transferred based on the AC voltage to the second mobile device through the inductive coil; the user interface unit is configured to output information on whether the first mobile device is operable in the source mode to supply the power to the second mobile device based on the identified charge state of the battery of the first mobile device. a battery; an inductive coil; a charge sensor unit configured to identify a charge state of the battery of the first mobile device; a user interface unit configured to receive an input for selecting a source mode for the first mobile device, wherein in the source mode the first mobile device operates to supply power to the second mobile device; and an inverter circuit, characterized in that the inverter circuit is configured to, when an authentication of the second mobile device is successfully performed and the source mode is selected and while the identified charge state of the battery is greater than or equal to a predefined level: - convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage, and - supply the AC voltage such that power is transferred based on the AC voltage to the second mobile device through the inductive coil; - convert direct current DC voltage provided from the battery of the first mobile device to alternating current AC voltage, and - supply the AC voltage such that power is transferred based on the AC voltage to the second mobile device through the inductive coil; the user interface unit is configured to output information on whether the first mobile device is operable in the source mode to supply the power to the second mobile device based on the identified charge state of the battery of the first mobile device.
A fixture assembly for manufacturing fan blades, comprising: a first fixture portion; a second fixture portion that interfaces with the first fixture portion, the interface between the first and second fixture portions shaped to an airfoil contour to receive a fan blade in use; wherein the first fixture potion in use interfaces with a fan blade body, the second fixture portion in use interfaces with the fan blade body and a cover received within the fan blade body and a bladder assembly mounted to the second fixture portion and directed toward the first fixture portion; characterised in that the bladder assembly includes a face sheet with a bellows around a periphery of the face sheet wherein the bladder assembly is configured to press the cover into the fan blade body in use. a first fixture portion; a second fixture portion that interfaces with the first fixture portion, the interface between the first and second fixture portions shaped to an airfoil contour to receive a fan blade in use; wherein the first fixture potion in use interfaces with a fan blade body, the second fixture portion in use interfaces with the fan blade body and a cover received within the fan blade body and a bladder assembly mounted to the second fixture portion and directed toward the first fixture portion; characterised in that the bladder assembly includes a face sheet with a bellows around a periphery of the face sheet wherein the bladder assembly is configured to press the cover into the fan blade body in use.
An electro-pneumatic converter comprising: an axial passageway defined in a body between a first opening and a second opening, a supply port formed by the first opening, the supply port to receive pressurized fluid from a pressure supply source; an output port fluidly coupled to the axial passageway; and a solenoid including a coil wrapped around a core and an armature, the core having a first side and a second side opposite the first side, the armature disposed in and movable in the axial passageway, the armature having a first side and a second side opposite the first side, the armature movable between a first position blocking the pressurized fluid from flowing through the axial passageway between the supply port and the output port and a second position allowing the pressurized fluid to flow through the axial passageway between the supply port and the output port, characterised in that the first side of the core engaged with the armature in the second position includes a relief pattern, wherein the relief pattern includes a ring and a plurality of lines intersecting and extending radially outward of the ring, the lines extending beyond a diameter of the second side of the armature, such that when the armature is in contact with the first side of the core, fluid from the axial passageway can flow into the lines and the ring. an axial passageway defined in a body between a first opening and a second opening, a supply port formed by the first opening, the supply port to receive pressurized fluid from a pressure supply source; an output port fluidly coupled to the axial passageway; and a solenoid including a coil wrapped around a core and an armature, the core having a first side and a second side opposite the first side, the armature disposed in and movable in the axial passageway, the armature having a first side and a second side opposite the first side, the armature movable between a first position blocking the pressurized fluid from flowing through the axial passageway between the supply port and the output port and a second position allowing the pressurized fluid to flow through the axial passageway between the supply port and the output port, characterised in that the first side of the core engaged with the armature in the second position includes a relief pattern, wherein the relief pattern includes a ring and a plurality of lines intersecting and extending radially outward of the ring, the lines extending beyond a diameter of the second side of the armature, such that when the armature is in contact with the first side of the core, fluid from the axial passageway can flow into the lines and the ring.