mhurhangee/ep-ind-claims huggingface dataset:
Method for mounting a compressor and a gas turbine of a first design at a position of an existing power plant, at which position a compressor and a gas turbine of a second design were previously mounted on a foundation specifically designed for this second design, wherein the designs differ from each other at least in terms of the position and/or the number of anchoring points, at which the compressor and the gas turbine are connected directly and/or via supporting structures to the foundation, wherein the new compressor and the new gas turbine are mounted on the existing foundation using an adapter construction, wherein the existing foundation has a plurality of upwardly projecting foundation blocks (5, 6), and in that the adapter construction comprises a number of metallic base plates (8, 9) corresponding to the number of foundation blocks (5, 6), on the top side of which structures are positioned, which structures define anchoring points for the new compressor and/or for the new gas turbine and/or for supporting structures for the new compressor and/or the new gas turbine, wherein the base plates (8, 9) are each positioned on one of the foundation blocks (5, 6) and are fastened to it. for mounting a compressor and a gas turbine of a first design at a position of an existing power plant, at which position a compressor and a gas turbine of a second design were previously mounted on a foundation specifically designed for this second design, wherein the designs differ from each other at least in terms of the position and/or the number of anchoring points, at which the compressor and the gas turbine are connected directly and/or via supporting structures to the foundation, wherein the new compressor and the new gas turbine are mounted on the existing foundation using an adapter construction, wherein the existing foundation has a plurality of upwardly projecting foundation blocks (5, 6), and in that the adapter construction comprises a number of metallic base plates (8, 9) corresponding to the number of foundation blocks (5, 6), on the top side of which structures are positioned, which structures define anchoring points for the new compressor and/or for the new gas turbine and/or for supporting structures for the new compressor and/or the new gas turbine, wherein the base plates (8, 9) are each positioned on one of the foundation blocks (5, 6) and are fastened to it.
Method for controlling an electrophoretic display device wherein an electrophoretic pixel is updated within a pixel update period from an initial pixel state to any of a set of update pixel states wherein the set of update pixel states are distributed on an equidistant partition of a dynamic range as perceived by a human eye and wherein additional waveforms are stored in a lookup table for pixel updates to or from intermediate pixel states, wherein the intermediate pixel states comprises a first intermediate pixel state (R3') at a non-equidistant location between an update pixel state with the highest reflectivity and an update pixel state with the second highest reflectivity, wherein the intermediate pixel states do not form part of the set of update pixel states; comprising executing, in a consecutive drive phase, during a pixel update period, repeatedly the steps of retrieving an initial pixel state (Pi) and an update pixel state (Pu) from a memory, matching, when the initial and update pixel states are different, from a set of waveforms in the lookup table, a consecutive wave form and a corresponding consecutive pixel state, according to a path defined by the consecutive drive phase, from the initial pixel state to the update pixel state, storing the consecutive pixel state in the memory as new initial state; and controlling a voltage driver to drive the pixel from the initial state to the consecutive state by supplying said consecutive waveform to the pixel during a consecutive update period so as to provide a consecutive update period smaller than the pixel update period, wherein the pixel update period is determined by the slowest transition from an initial pixel state to any of said set of update pixel states; the method further comprising, when receiving a new update pixel state (Pn) during a consecutive update period, the step of before initiating a next consecutive period, switching to go to said new update pixel state via a new path and not continue the path in accordance with the previous pixel update state, wherein when the new update pixel state is the pixel state with the highest reflectivity, the new path includes the pixel state with the second highest reflectivity, followed by the first intermediate pixel state (R3'), followed by the pixel state with the highest reflectivity, and wherein the transition to or from the first intermediate pixel state (R3') occurs within the consecutive update period.
A data reception method of a terminal in a mobile communication system, the method comprising: receiving downlink control information, DCI, from a base station; determining whether a transport block size, TBS, of data which is transmitted by the base station is equal to or less than a predetermined value based on information included in the DCI; if the TBS is equal to or less than the predetermined value, decoding the data, if the TBS is greater than the predetermined value, skipping decoding the data and transmitting a hybrid automatic repeat request, HARQ, negative-acknowledge, NACK, to the base station; wherein a level of a modulation and coding scheme, MCS, to be applied to the data by the base station is decreased if a number of NACK transmission is equal to or greater than a predetermined number and the TBS is greater than the predetermined value. receiving downlink control information, DCI, from a base station; determining whether a transport block size, TBS, of data which is transmitted by the base station is equal to or less than a predetermined value based on information included in the DCI; if the TBS is equal to or less than the predetermined value, decoding the data, if the TBS is greater than the predetermined value, skipping decoding the data and transmitting a hybrid automatic repeat request, HARQ, negative-acknowledge, NACK, to the base station; wherein a level of a modulation and coding scheme, MCS, to be applied to the data by the base station is decreased if a number of NACK transmission is equal to or greater than a predetermined number and the TBS is greater than the predetermined value.
Food comminution device which is designed to be placed on a worktop for a comminution operation, having an actuation part and having a base part which has a cutting part, wherein the base part and the actuation part are articulatedly connected such that the actuation part can, for pushing through food items for comminution, be pivoted from a loading position toward the cutting part into a closed position and subsequently from the closed position back into the loading position, wherein the articulated connection is designed such that the actuation part, at least in a particular pivoting position, is detachable, characterized in that the food comminution device has at least one drive device, in particular a spring drive, for assisting or effecting the pivoting movement from the closed position into the loading position and/or from the loading position into the closed position.
A luminescent element comprising a solid luminescent body, wherein the solid luminescent body comprises a luminescent material, wherein the luminescent material is configured to generate luminescent material light upon excitation with light having a wavelength where the luminescent material is excitable, wherein the solid luminescent body comprises luminescent body faces, wherein the luminescent element further comprises one or more reflective elements associated to at least one luminescent body face, wherein the one or more reflective elements are metallic, and further comprising a thermally conductive body, wherein the thermally conductive body comprises a thermally conductive body face, wherein the thermally conductive body has a thermal conduction of at least 100 W/m/K, wherein the solid luminescent body is associated to the thermally conductive body face via the one or more reflective elements, and wherein a surface coverage of the at least one luminescent body face with the one or more reflective elements is selected from the range of 5 - 40 %.
A system for generating electric power, the system comprising: a fuel source configured to provide chemical fuel, a fuel cell array configured to receive the chemical fuel from the fuel source and based thereon produce electric power being held available via an output terminal, and a control unit configured to monitor the production of electric power in the fuel cell array by measuring at least one voltage (V 1,..., V n, V OUT) in the fuel cell array, characterized in that the system comprises a dynamic electric load which is connected to the output terminal and a sensor cell positioned at a last fuel cell in the fuel cell array and configured to register a sensor signal (Vs) represented by a voltage reflecting a degree of consumption of chemical fuel in the fuel cell array relative to an amount of chemical fuel received in the fuel cell array, and the control unit is further configured to receive the sensor signal (Vs) and in response thereto control (Ctrl-I) a fraction (P EF) of the electric power produced by the fuel cell array to be fed into the dynamic electric load, the control unit controlling the fraction (P EF) to be fed into the dynamic electric load such that a difference is minimized between the amount of chemical fuel received in the fuel cell array and an amount of chemical fuel consumed in the fuel cell array when producing the electric power. a fuel source configured to provide chemical fuel, a fuel cell array configured to receive the chemical fuel from the fuel source and based thereon produce electric power being held available via an output terminal, and a control unit configured to monitor the production of electric power in the fuel cell array by measuring at least one voltage (V 1,..., V n, V OUT) in the fuel cell array, characterized in that the system comprises a dynamic electric load which is connected to the output terminal and a sensor cell positioned at a last fuel cell in the fuel cell array and configured to register a sensor signal (Vs) represented by a voltage reflecting a degree of consumption of chemical fuel in the fuel cell array relative to an amount of chemical fuel received in the fuel cell array, and the control unit is further configured to receive the sensor signal (Vs) and in response thereto control (Ctrl-I) a fraction (P EF) of the electric power produced by the fuel cell array to be fed into the dynamic electric load, the control unit controlling the fraction (P EF) to be fed into the dynamic electric load such that a difference is minimized between the amount of chemical fuel received in the fuel cell array and an amount of chemical fuel consumed in the fuel cell array when producing the electric power.
A breast tomosynthesis system, comprising an x-ray tube a detector and compression paddles (130, 135), wherein the x-ray tube is arranged to move during an exposure period comprising: a cathode for providing an electron stream; an anode comprising a target for receiving the electron stream and generating a photon stream in response thereto; a focusing cup which focuses the electron stream on the anode during the exposure period; a port for passing the photon stream out of the x-ray tube, wherein the cathode, anode and port together define a static focal spot of the x-ray tube; and a controller coupled to at least one of the anode, the cathode and focusing cup wherein, in a first operational mode, the x-ray tube moves in a first direction during an exposure period, wherein the controller is arranged, in a first operational mode, to move the static focal spot within the x-ray tube in a second direction, opposite from the first direction and generally synchronized with the directional movement of the x-ray tube, so that a resulting effective focal spot appears to be fixed in space, relative to one of the breast and/or the detector, in one position during the entire duration of the exposure. a cathode for providing an electron stream; an anode comprising a target for receiving the electron stream and generating a photon stream in response thereto; a focusing cup which focuses the electron stream on the anode during the exposure period; a port for passing the photon stream out of the x-ray tube, wherein the cathode, anode and port together define a static focal spot of the x-ray tube; and a controller coupled to at least one of the anode, the cathode and focusing cup wherein, in a first operational mode, the x-ray tube moves in a first direction during an exposure period, wherein the controller is arranged, in a first operational mode, to move the static focal spot within the x-ray tube in a second direction, opposite from the first direction and generally synchronized with the directional movement of the x-ray tube, so that a resulting effective focal spot appears to be fixed in space, relative to one of the breast and/or the detector, in one position during the entire duration of the exposure.
An air inlet section for an enclosure for an aircraft engine, comprising: an inner barrel panel having a forward end; an outer barrel panel having a forward end; a lipskin having an interior surface and an exterior surface, wherein the interior surface and the exterior surface oppose one another, the lipskin extending between an inner barrel end and an outer barrel end, wherein the inner barrel end is disposed proximate the forward end of the inner barrel panel and the outer barrel end is disposed proximate the forward end of the outer barrel panel; and a forward bulkhead having a panel that extends between an outer radial end and an inner radial end; wherein the air inlet section is configured as an annular structure that extends circumferentially around an axially extending centerline, with the inner barrel panel disposed radially inside of and separated from the outer barrel panel, and the inner barrel panel, the outer barrel panel, and the lipskin define an interior annular region, and the forward bulkhead defines a sub-portion of interior annular region; wherein the outer radial end of the forward bulkhead panel is disposed forward of the inner radial end of the forward bulkhead panel; characterised in that the forward bulkhead panel extends along a straight line and is canted at a cant angle (β) relative to a perpendicular line extending from the axially extending centerline, and the cant angle (β) is at least ten degrees. an inner barrel panel having a forward end; an outer barrel panel having a forward end; a lipskin having an interior surface and an exterior surface, wherein the interior surface and the exterior surface oppose one another, the lipskin extending between an inner barrel end and an outer barrel end, wherein the inner barrel end is disposed proximate the forward end of the inner barrel panel and the outer barrel end is disposed proximate the forward end of the outer barrel panel; and a forward bulkhead having a panel that extends between an outer radial end and an inner radial end; wherein the air inlet section is configured as an annular structure that extends circumferentially around an axially extending centerline, with the inner barrel panel disposed radially inside of and separated from the outer barrel panel, and the inner barrel panel, the outer barrel panel, and the lipskin define an interior annular region, and the forward bulkhead defines a sub-portion of interior annular region; wherein the outer radial end of the forward bulkhead panel is disposed forward of the inner radial end of the forward bulkhead panel; characterised in that the forward bulkhead panel extends along a straight line and is canted at a cant angle (β) relative to a perpendicular line extending from the axially extending centerline, and the cant angle (β) is at least ten degrees.
An antenna component (1, 2), for a small cell device, wherein the antenna component (1, 2) comprises a radiation patch (11, 21), a feeding structure (12, 22), and at least two grounding structures (131, 132, 231, 232), wherein: one end of the feeding structure (12, 22) is connected to the radiation patch (11, 21), one end of each of the grounding structures (131, 132, 231, 232) is connected to the radiation patch (11, 21), and the feeding structure (12, 22) and the grounding structures (131, 132, 231, 232) are located on a same side of the radiation patch (11, 12); and the at least two grounding structures (131, 132, 231, 232) are disposed, symmetrically relative to the feeding structure (12, 22), on the radiation patch (11,21), characterized in that the feeding structure (12, 22) comprises a first structure and a second structure, wherein one end of the first structure is connected to the radiation patch, the second structure is connected to the other end of the first structure, and a projected area of the first structure is greater than a projected area of the second structure, and the first structure is a metal cylinder, and the second structure is a metal cylinder. one end of the feeding structure (12, 22) is connected to the radiation patch (11, 21), one end of each of the grounding structures (131, 132, 231, 232) is connected to the radiation patch (11, 21), and the feeding structure (12, 22) and the grounding structures (131, 132, 231, 232) are located on a same side of the radiation patch (11, 12); and the at least two grounding structures (131, 132, 231, 232) are disposed, symmetrically relative to the feeding structure (12, 22), on the radiation patch (11,21), characterized in that the feeding structure (12, 22) comprises a first structure and a second structure, wherein one end of the first structure is connected to the radiation patch, the second structure is connected to the other end of the first structure, and a projected area of the first structure is greater than a projected area of the second structure, and the first structure is a metal cylinder, and the second structure is a metal cylinder.
A printing system comprising an electrical interface for ink pens of an inkjet printer, the electrical interface comprising: a first group of electrical contacts; a second group of electrical contacts, said second group of electrical contacts being arranged in an identical configuration as said first group of electrical contacts; and a number of electrical interconnects, in which each electrical contact from said first and second groups of electrical contacts (306, 308) is connected to one of said electrical interconnects via a conductive trace; in which at least one electrical contact from said first group of electrical contacts is connected to a same electrical interconnect as at least one electrical contact from said second group of electrical contacts, in which the printing system further comprises two ink pens (406, 408) interfacing respectively with said first and second groups of contacts (306, 308), in which said ink pen interfacing with said first group of electrical contacts comprises more physical nozzles than said ink pen interfacing with said second group of electrical contacts. a first group of electrical contacts; a second group of electrical contacts, said second group of electrical contacts being arranged in an identical configuration as said first group of electrical contacts; and a number of electrical interconnects, in which each electrical contact from said first and second groups of electrical contacts (306, 308) is connected to one of said electrical interconnects via a conductive trace; in which at least one electrical contact from said first group of electrical contacts is connected to a same electrical interconnect as at least one electrical contact from said second group of electrical contacts, in which the printing system further comprises two ink pens (406, 408) interfacing respectively with said first and second groups of contacts (306, 308), in which said ink pen interfacing with said first group of electrical contacts comprises more physical nozzles than said ink pen interfacing with said second group of electrical contacts.
A device for manufacturing a balloon catheter using a thermosetting resin, the device comprising: a first extruder configured to extrude a thermosetting resin using a tube manufacturing mold to manufacture a first tube; a release agent spraying device disposed at a rear end of the tube manufacturing mold and configured to alternately apply a release agent to a predetermined part on an outer periphery of the first tube; a first heater configured to cure and dry the first tube that has passed through the release agent spraying device, and the coated release agent; a second extruder configured to extrude and cover a coating layer on the outer periphery of the first tube, which has passed through the first heater, using a coating mold; and a second heater configured to cure the first tube on which the coating layer has been formed, wherein the release agent spraying device comprises: a nozzle for spraying a release agent; and a spray restriction film bent to limit a spraying range of a release agent that is sprayed through the nozzle. a first extruder configured to extrude a thermosetting resin using a tube manufacturing mold to manufacture a first tube; a release agent spraying device disposed at a rear end of the tube manufacturing mold and configured to alternately apply a release agent to a predetermined part on an outer periphery of the first tube; a first heater configured to cure and dry the first tube that has passed through the release agent spraying device, and the coated release agent; a second extruder configured to extrude and cover a coating layer on the outer periphery of the first tube, which has passed through the first heater, using a coating mold; and a second heater configured to cure the first tube on which the coating layer has been formed, wherein the release agent spraying device comprises: a nozzle for spraying a release agent; and a spray restriction film bent to limit a spraying range of a release agent that is sprayed through the nozzle. a nozzle for spraying a release agent; and a spray restriction film bent to limit a spraying range of a release agent that is sprayed through the nozzle.
Upper part of a valve, in particular for sanitary fittings, having a sleeve-like head piece mountable in a valve housing of a fitting, which is centrally penetrated by a spindle, which has a handle connection and is mounted to be rotatable about its longitudinal axis, via which a valve body can be operated, wherein a groove is inserted in the spindle, which receives an elastic slide bush at least partially radially enclosing the spindle, which rests on the inner surface of the head piece at least in some areas, characterised in that the slide bush is curved in such a manner that it only partially rests on the groove base of the groove as well as on the inner surface of the head piece.
A dispersion comprising a compound of Formula IA or IB, or a salt of either thereor: a plasticizer and a matrix polymer, wherein said matrix polymer is: (a) a polymer made from free-radical polymerization of methacrylic acid and methylmethacrylate in a 1:2 ratio, and having an average molar mass of approximately 125,000 g/mol; or (b) a polymer made from free radical polymerization of a 1:1 mixture of methacrylic acid and ethylacrylate, and having a weight average molecular mass of approximately 320 Kg/mol.