mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method of a graphene fiber, comprising: forming a metal layer containing multiple linear patterns on a substrate; supplying a reaction gas containing a carbon source and heat to the metal layer containing multiple linear patterns to form graphenes of linear pattern; immersing the substrate in an etching solution to selectively remove the metal layer containing multiple linear patterns for separating the graphenes of linear pattern from the substrate and dispersing multiple linear graphenes into the etching solution; and pulling the dispersed multiple linear graphenes out of the etching solution to form a graphene fiber. forming a metal layer containing multiple linear patterns on a substrate; supplying a reaction gas containing a carbon source and heat to the metal layer containing multiple linear patterns to form graphenes of linear pattern; immersing the substrate in an etching solution to selectively remove the metal layer containing multiple linear patterns for separating the graphenes of linear pattern from the substrate and dispersing multiple linear graphenes into the etching solution; and pulling the dispersed multiple linear graphenes out of the etching solution to form a graphene fiber.
A load control device for controlling the amount of power delivered to an electrical load in response to a phase-control voltage, the load control device comprising: a rectifier circuit (320, 1920) configured to receive the phase-control voltage and produce a rectified voltage at an output; a power converter (330, 1930) configured to receive the rectified voltage at an input; and an input capacitor (C IN) coupled across the output of the rectifier circuit and the input of the power converter, characterized by: a bus capacitor coupled across the output of the power converter, wherein the power converter is configured to generate a bus voltage across the bus capacitor; and a power supply configured to receive the bus voltage and to charge the input capacitor (C IN) during non-conductive portions of the phase-control voltage. a rectifier circuit (320, 1920) configured to receive the phase-control voltage and produce a rectified voltage at an output; a power converter (330, 1930) configured to receive the rectified voltage at an input; and an input capacitor (C IN) coupled across the output of the rectifier circuit and the input of the power converter, characterized by: a bus capacitor coupled across the output of the power converter, wherein the power converter is configured to generate a bus voltage across the bus capacitor; and a power supply configured to receive the bus voltage and to charge the input capacitor (C IN) during non-conductive portions of the phase-control voltage. a bus capacitor coupled across the output of the power converter, wherein the power converter is configured to generate a bus voltage across the bus capacitor; and a power supply configured to receive the bus voltage and to charge the input capacitor (C IN) during non-conductive portions of the phase-control voltage.
A vacuum cleaner comprising: a wheel (131, 331); a driving motor (140, 340) configured to provide the wheel (131, 331) with a driving force; transfer gears (154, 155, 156, 157, 353, 354, 355) provided to be engaged with each other between the driving motor and the wheel; and a clutch disposed between the wheel (131, 331) and one of the transfer gears most adjacent to the wheel, the clutch being configured to connect the transfer gears to the wheel such that the driving force of the driving motor (140, 340) is transferred to the wheel or to disconnect the transfer gears from the wheel to prevent a detent torque of the driving motor and a rolling friction of the transfer gears from being transferred to the wheel; characterized in that if power is applied to the driving motor (140, 340), the clutch is configured to connect the transfer gears to the wheel (131, 331), and if no power is applied to the driving motor (140, 340), the clutch is configured to disconnect the transfer gears from the wheel. a wheel (131, 331); a driving motor (140, 340) configured to provide the wheel (131, 331) with a driving force; transfer gears (154, 155, 156, 157, 353, 354, 355) provided to be engaged with each other between the driving motor and the wheel; and a clutch disposed between the wheel (131, 331) and one of the transfer gears most adjacent to the wheel, the clutch being configured to connect the transfer gears to the wheel such that the driving force of the driving motor (140, 340) is transferred to the wheel or to disconnect the transfer gears from the wheel to prevent a detent torque of the driving motor and a rolling friction of the transfer gears from being transferred to the wheel; characterized in that if power is applied to the driving motor (140, 340), the clutch is configured to connect the transfer gears to the wheel (131, 331), and if no power is applied to the driving motor (140, 340), the clutch is configured to disconnect the transfer gears from the wheel.
An adjustment device (1, 100) for adjusting the position of a first movable component (3, 103) relative to a second stationary component (5, 105), with an eccentric device (10, 110) arrangeable between both components, wherein the first movable component is linearly displaceable, along at least one spatial axis, relative to the second stationary component, by the eccentric device, wherein the eccentric device (10, 110) includes at least two eccentric units (16, 26; 116, 126) disposed above one another, which are connected with each other, characterized in that the eccentric units (16, 26; 116, 126) are uncoupled with regard to their movement, wherein the movements of the movable component, respectively in the X and Y directions, take place separately.
Method of manufacturing a barrier film (1 c) for packaging of food or beverage comprising a base film of a polymer and applied onto the base film, a barrier layer comprising an inorganic oxide deposited by a vapour deposition method, wherein the deposited barrier layer is further coated with a healing layer consisting of a crosslinked organopolysiloxane, which is covalently bound to the inorganic barrier layer" comprising the steps of - providing a base film of a polymer - applying onto the base film, a barrier layer comprising an inorganic oxide by means of a vapour deposition method - further coating said vapour deposited inorganic layer characterised in that the further coating step comprises the steps of - providing a composition consisting essentially of a reactive unsaturated silane compound having three silanol-forming groups dissolved in a solvent - coating (1 b) the composition onto the inorganic vapour deposited layer - subjecting the coated composition to hydrolysis and condensation reaction to provide an ethylenically unsaturated organosiloxane oligomer, which is covalently bound to the inorganic layer - curing the coated organosiloxane oligomer to provide the crosslinked organopolysiloxane layer. - providing a base film of a polymer - applying onto the base film, a barrier layer comprising an inorganic oxide by means of a vapour deposition method - further coating said vapour deposited inorganic layer - providing a composition consisting essentially of a reactive unsaturated silane compound having three silanol-forming groups dissolved in a solvent - coating (1 b) the composition onto the inorganic vapour deposited layer - subjecting the coated composition to hydrolysis and condensation reaction to provide an ethylenically unsaturated organosiloxane oligomer, which is covalently bound to the inorganic layer - curing the coated organosiloxane oligomer to provide the crosslinked organopolysiloxane layer.
Household appliance with a control facility and at least one sensor node (2, 12, 32) comprising at least one sensor (4, 6, 34-39), at least one evaluation unit (4, 6, 33), an autonomous power supply and an interface for wireless data communication (7, 33), wherein the control facility and the sensor node (2, 12, 32) are configured to communicate wirelessly with one another, characterised in that the at least one sensor node (2, 12, 32) includes at least two micromechanical sensors (4, 6, 34-39), which can all detect a similar measuring point, so that the measurement signals have a common local reference point, and the at least one sensor node (2, 12, 32) is configured so that it both can be controlled by the control facility and can independently detect and evaluate a measurement signal and transmit said signal to the control facility.
A chuck with a chuck body having a centering hole that is tapered frustoconically and in which is provided a clamping member having a clamping thread, with an angle drive having a threaded ring engaged with the clamping thread, axially fixed to the chuck body, coaxial to the clamping member, and rotatable by a drive member that can be rotated about a drive axis that is not parallel to the chuck axis, characterized in that the drive member can only be inserted from the end opposite to the centering hole into a body cavity that then can be closed by a plate supported on the chuck body and/or the threaded ring, and that the drive member is accessible through one aperture that is adapted to the diameter of the drive tool and does not have to serve as the aperture in the cavity wall through which the drive member is installed.
A computer system for calibrating one or more sensors (110, 111, 112), comprising: a processor; a communication interface operatively coupled to the processor, the communication interface configured to receive a calibration parameter set via a computer network; a plurality of calibration system bus interfaces operatively coupled to the processor to communicate with a plurality of calibration modules (107, 108, 109) corresponding to each of the one or more sensors (110, 111, 112), wherein each of the calibration system bus interfaces transmits the received calibration parameter set to a particular one of the plurality of calibration modules (107, 108, 109) of the one or more sensors (110, 111, 112), wherein each of the calibration system bus interfaces receives calibration output data from the respective one or more sensors (110, 111, 112), corresponding to the particular calibration module, in response to the calibration parameter set transmitted, and wherein the communications interface transmits the calibration output data to the computer network, thereby generating a new calibration parameter set. a processor; a communication interface operatively coupled to the processor, the communication interface configured to receive a calibration parameter set via a computer network; a plurality of calibration system bus interfaces operatively coupled to the processor to communicate with a plurality of calibration modules (107, 108, 109) corresponding to each of the one or more sensors (110, 111, 112), wherein each of the calibration system bus interfaces transmits the received calibration parameter set to a particular one of the plurality of calibration modules (107, 108, 109) of the one or more sensors (110, 111, 112), wherein each of the calibration system bus interfaces receives calibration output data from the respective one or more sensors (110, 111, 112), corresponding to the particular calibration module, in response to the calibration parameter set transmitted, and wherein the communications interface transmits the calibration output data to the computer network, thereby generating a new calibration parameter set.
A travel control device of a hybrid vehicle comprising: a battery configured to be charged with electric power from an external power source; a motor configured to generate a driving force for running with the electric power of the battery; and an engine configured to generate a driving force for running, the travel control device being configured to select an EV mode for travelling with a driving force for running only by a motor, and an HV mode for travelling with a driving force for running at least by an engine, characterized in that the travel control device estimates an expected charging time at a set destination where the battery can be charged, and selects the EV mode and the HV mode in such a way as to increase a usage frequency of the EV mode by inhibiting the HV mode during a state of high load until reaching to the destination in a case where the estimated expected charging time is longer than a threshold value as compared to a case where the expected charging time is not longer than the threshold value. a battery configured to be charged with electric power from an external power source; a motor configured to generate a driving force for running with the electric power of the battery; and an engine configured to generate a driving force for running, the travel control device being configured to select an EV mode for travelling with a driving force for running only by a motor, and an HV mode for travelling with a driving force for running at least by an engine, characterized in that the travel control device estimates an expected charging time at a set destination where the battery can be charged, and selects the EV mode and the HV mode in such a way as to increase a usage frequency of the EV mode by inhibiting the HV mode during a state of high load until reaching to the destination in a case where the estimated expected charging time is longer than a threshold value as compared to a case where the expected charging time is not longer than the threshold value.
Device with a first and a second drive, each generating a stroke movement and each having at least one pneumatic or hydraulic displacement system (61, 91), - wherein each displacement system (61, 91) acts on a sliding wedge-type gear (70, 100), - wherein the first displacement system acts on a sliding wedge-type gear, the wedge angle of which is at least twice as great as the wedge angle of the sliding wedge-type gear on which the second displacement system acts, - wherein the displacement system of the second drive is connected downstream of the displacement system of the first drive via a connecting valve, - wherein the supply line of the first displacement system opens into a main valve chamber inside the connecting valve, into which main valve chamber also opens the supply line of the second displacement system, - wherein, given that the first supply line is always open, the second supply line is closed below a predefined pressure threshold by means of a main valve element arranged in the main valve chamber, and - wherein a non-return valve chamber is located in the main valve element, in which non-return valve chamber a spring-loaded non-return valve element is arranged, which connects the second supply line with the first by opening when the first supply line is relieved of pressure. - wherein each displacement system (61, 91) acts on a sliding wedge-type gear (70, 100), - wherein the first displacement system acts on a sliding wedge-type gear, the wedge angle of which is at least twice as great as the wedge angle of the sliding wedge-type gear on which the second displacement system acts, - wherein the displacement system of the second drive is connected downstream of the displacement system of the first drive via a connecting valve, - wherein the supply line of the first displacement system opens into a main valve chamber inside the connecting valve, into which main valve chamber also opens the supply line of the second displacement system, - wherein, given that the first supply line is always open, the second supply line is closed below a predefined pressure threshold by means of a main valve element arranged in the main valve chamber, and - wherein a non-return valve chamber is located in the main valve element, in which non-return valve chamber a spring-loaded non-return valve element is arranged, which connects the second supply line with the first by opening when the first supply line is relieved of pressure.
A recombinant vector for producing a carbonic anhydrase in a plant, the recombinant vector comprising: (i) a small ubiquitin-related modifier (SUMO); (ii) a carbonic anhydrase; (iii) cellulose-binding module 3; and (iv) M domains located before each of the N-terminal of the SUMO and the N-terminal of the CBM3, respectively, wherein the gene sequence of each M domain comprises a nucleotide sequence encoding an amino acid sequence of SEQ ID NO: 5, or comprises a nucleotide sequence of SEQ ID NO: 6. (i) a small ubiquitin-related modifier (SUMO); (ii) a carbonic anhydrase; (iii) cellulose-binding module 3; and (iv) M domains located before each of the N-terminal of the SUMO and the N-terminal of the CBM3, respectively,
A sealing arrangement arranged for sealing between surfaces (406, 408, 410, 412, 414), which surfaces (406, 408, 410, 412, 414) comprise a first surface and a second surface, which form an outer corner, and surfaces opposite said first and second surfaces (406, 408), the sealing arrangement comprising an elongated first member, an elongated second member and a junction region where the two members (502, 504) join, each member (502, 504) has elongated elastic walls comprising at least a bottom wall (508, 510) and a top wall (512, 514) opposite the bottom wall (508, 510), the walls defining a space (520-a, 520-b, 520-c; 820) which is inflatable by a fluid and has a cross-section area, the bottom wall of the first member is adaptable to rest against said first surface, and the bottom wall of the second member is adaptable to rest against said second surface, each member (502, 504) defines a longitudinal central axis ( x-x, y-y), where the central axis ( x-x) of the first member forms an angle (α) with the central axis ( y-y) of the second member, when the space (520-a, 520-b, 520-c; 820) of each member (502, 504) is inflated, the top wall of the first member is adapted to move outwardly, from a resting position to a sealing position, in a first expansion direction ( a) transverse to the central axis ( x-x) of the first member to seal against a first opposite surface, and the top wall of the second member is adapted to move outwardly, from a resting position to a sealing position, in a second expansion direction ( b) transverse to the central axis ( y-y) of the second member to seal against a second opposite surface, wherein the top wall of the first member forms an angle (β) with the top wall of the second member in the junction region, and in that the junction region is designed in such a way that when the space (520-a, 520-b, 520-c; 820) of the first and second member (502, 504) is inflated, the top wall (512, 514) of the first and second member (502, 504) is adapted to move the same distance ( d 1, d 2) from the resting position to the sealing position along the entire longitudinal extension of the first and second member (502, 504), characterized in that in the junction region, the walls (508, 510, 512, 514, 516, 518) of each member (502, 504) define a space (520-c), the cross-section of which is increased in the respective expansion direction (b) in relation to the space (520-a) of each member (502, 504) outside the junction region.
A leaflet structure for a prosthetic heart valve, comprising: a sheet of flexible leaflet material (60; 160) having a central opening and three securing line portions (67;170; 250; 300b), the central opening having three sides, each of the sides being shaped to form the free edge of a respective one of three operating leaflet portions (60a, 60b, 60c) of the leaflet structure, each of the securing line portions being radially outward from a respective, associated one of the free edges, and each of the securing line portions being arcuate so that a midpoint of the securing line portion is radially farther from a midpoint of the associated free edge than endpoints of the securing line portion are from corresponding endpoints of the associated free edge, the sheet defines three leaflet-linking areas, each leaflet-linking area extending radially outwardly from a junction of a respective pair of the free edges to a junction of the securing line portions (170; 250) that are radially outward from the respective pair of the free edges, and characterized in that the sheet defines a flap that extends into the central opening from at least one of the leaflet-linking areas. a sheet of flexible leaflet material (60; 160) having a central opening and three securing line portions (67;170; 250; 300b), the central opening having three sides, each of the sides being shaped to form the free edge of a respective one of three operating leaflet portions (60a, 60b, 60c) of the leaflet structure, each of the securing line portions being radially outward from a respective, associated one of the free edges, and each of the securing line portions being arcuate so that a midpoint of the securing line portion is radially farther from a midpoint of the associated free edge than endpoints of the securing line portion are from corresponding endpoints of the associated free edge, the sheet defines three leaflet-linking areas, each leaflet-linking area extending radially outwardly from a junction of a respective pair of the free edges to a junction of the securing line portions (170; 250) that are radially outward from the respective pair of the free edges, and characterized in that the sheet defines a flap that extends into the central opening from at least one of the leaflet-linking areas.
An impaction cradle for supporting a femoral implant during impaction of an intramedullary stem or metaphyseal sleeve onto an attachment feature of the femoral implant along an impaction axis (a-a), comprising: a cradle element having at least one support surface for receiving the femoral implant, the support surface defining a support plane; and a base portion having a planar body defining a base plane; wherein the cradle element is positioned on the base portion such that the cradle element is tilted to orient the support plane transverse to the base plane. a cradle element having at least one support surface for receiving the femoral implant, the support surface defining a support plane; and a base portion having a planar body defining a base plane; wherein the cradle element is positioned on the base portion such that the cradle element is tilted to orient the support plane transverse to the base plane.
A single-dose dry powder inhaler, comprising a body, a cover pivoting on said body, said cover comprising a dispensing orifice through which the user inhales, said inhaler receiving a blister pack comprising a recess containing a dose of powder and a peelable closing layer comprising a closing portion, which sealingly closes said recess, and a gripping portion extending out of said inhaler to enable said blister pack to be opened by peeling off said closing layer by the user directly pulling on said gripping portion, characterized in that said cover is adapted to receive said blister pack in the open position of said cover, said body comprising a locking projection adapted to cooperate with a rear portion of said blister pack in the closed position of said cover so as to block said blister pack in the inhaler when the user opens said blister pack by pulling on the gripping portion to peel off said closing layer.
An internal combustion engine with one or more cylinders, wherein at least one cylinder comprises a stand-alone ring-shaped impeller, wherein the at least one cylinder comprises at least two annular valves (2,3) positioned substantially concentric with the cylinder, wherein the stand-alone ring-shaped impeller is positioned rotatably between the two concentric annular valves (2,3), and wherein the at least one cylinder is covered by a cylinder head in which the annular valves (2, 3) are mounted.