mhurhangee/ep-ind-claims huggingface dataset:
A data mapping method for an Optical channel Transport Unit-k, OTUK, wherein the method comprises: generating, by an OTUk writing control module, a writing control signal for OTUk data according to a valid signal for the OTUk data and a data storage state, which is a level of storage data, of a data storage First Input First Output, FIFO, module, writing the OTUk data to the data storage FIFO module; outputting, by an OTUk reading control module, a reading control signal for the OTUk data according to frame header information of an OTUk superframe, OTUku, provided by an OTUku frame header and multi-frame generation module and the data storage state of the data storage FIFO module, controlling the data storage FIFO module to read and send the OTUk data to an OTUku overhead and data insertion module, generating a mapping adjustment overhead from an OTUk to an OTUku, and sending the overhead to the OTUku overhead and data insertion module; wherein the generating the mapping adjustment overhead from the OTUk to the OTUku, comprises: executing negative justification when FIFO storage data is greater than or equal to 2/3 of an FIFO depth; or executing positive justification when the FIFO storage data is less than 1/3 of the FIFO depth; and inserting, by the OTUku overhead and data insertion module, the OTUk data output by the data storage FIFO module, the mapping adjustment overhead output by the OTUk reading control module and OTUku frame header and multi-frame information generated by the OTUku frame header and multi-frame generation module to a corresponding location of the OTUku frame, and generating an OTUku data frame. generating, by an OTUk writing control module, a writing control signal for OTUk data according to a valid signal for the OTUk data and a data storage state, which is a level of storage data, of a data storage First Input First Output, FIFO, module, writing the OTUk data to the data storage FIFO module; outputting, by an OTUk reading control module, a reading control signal for the OTUk data according to frame header information of an OTUk superframe, OTUku, provided by an OTUku frame header and multi-frame generation module and the data storage state of the data storage FIFO module, controlling the data storage FIFO module to read and send the OTUk data to an OTUku overhead and data insertion module, generating a mapping adjustment overhead from an OTUk to an OTUku, and sending the overhead to the OTUku overhead and data insertion module; wherein the generating the mapping adjustment overhead from the OTUk to the OTUku, comprises: executing negative justification when FIFO storage data is greater than or equal to 2/3 of an FIFO depth; or executing positive justification when the FIFO storage data is less than 1/3 of the FIFO depth; and inserting, by the OTUku overhead and data insertion module, the OTUk data output by the data storage FIFO module, the mapping adjustment overhead output by the OTUk reading control module and OTUku frame header and multi-frame information generated by the OTUku frame header and multi-frame generation module to a corresponding location of the OTUku frame, and generating an OTUku data frame.
A method for providing a user of a telephone device with a capability to use Internet-based applications, which method comprises the steps of: - establishing an Internet connection between the telephone device and a first server; - transmitting from said telephone device an indication towards a first server, denoting a request to be connected to an Internet-based application residing at a second server; - providing said user, by the first server, with a menu from which the user selects a requested Internet-based application from among a plurality of Internet-based applications each residing at a different second server(30, 32, 34); - after selecting said Internet-based application, establishing, by the first server, a communication path that extends between said telephone device and said second server via said first server; - at said first server, determining resources available for said telephone device, thereby determining the available capabilities of said telephone device, and the requirements set for communicating with the second server at which said selected Internet-based application resides, and based on the determination of said telephone device available resources and the requirements for communicating with the second server, creating a virtual client entity adapted to communicate with said telephone device and with said Internet-based application, for the duration of a communication session that is about to take place between said user and said Internet-based application; - exchanging communications between said second server and said telephone device. - establishing an Internet connection between the telephone device and a first server; - transmitting from said telephone device an indication towards a first server, denoting a request to be connected to an Internet-based application residing at a second server; - providing said user, by the first server, with a menu from which the user selects a requested Internet-based application from among a plurality of Internet-based applications each residing at a different second server(30, 32, 34); - after selecting said Internet-based application, establishing, by the first server, a communication path that extends between said telephone device and said second server via said first server; - at said first server, determining resources available for said telephone device, thereby determining the available capabilities of said telephone device, and the requirements set for communicating with the second server at which said selected Internet-based application resides, and based on the determination of said telephone device available resources and the requirements for communicating with the second server, creating a virtual client entity adapted to communicate with said telephone device and with said Internet-based application, for the duration of a communication session that is about to take place between said user and said Internet-based application; - exchanging communications between said second server and said telephone device.
A roller-type depressing device that depresses an object with a roller, the device comprising: a pressure adjusting plate provided with the roller; a roller moving unit that moves the roller relative to the object wherein the pressure adjusting plate is provided with the roller moving unit; a pressure adjusting unit that holds the pressure adjusting plate in such a way that a force produced by a pressure difference in fluid applied to both faces of the pressure adjusting plate acts on the roller wherein the pressure adjusting unit comprises a first-pressure-adjusting-room component forming a first pressure adjusting room together with the pressure adjusting plate; a pressure receiving stage that receives pressure of the roller via the object; and a pressure adjuster that adjusts the pressure difference in fluid applied to both faces of the pressure adjusting plate wherein the pressure adjuster comprises a depressurizer that depressurizes the first pressure adjusting room. a pressure adjusting plate provided with the roller; a roller moving unit that moves the roller relative to the object wherein the pressure adjusting plate is provided with the roller moving unit; a pressure adjusting unit that holds the pressure adjusting plate in such a way that a force produced by a pressure difference in fluid applied to both faces of the pressure adjusting plate acts on the roller wherein the pressure adjusting unit comprises a first-pressure-adjusting-room component forming a first pressure adjusting room together with the pressure adjusting plate; a pressure receiving stage that receives pressure of the roller via the object; and a pressure adjuster that adjusts the pressure difference in fluid applied to both faces of the pressure adjusting plate wherein the pressure adjuster comprises a depressurizer that depressurizes the first pressure adjusting room.
Control valve arrangement for connecting at least one associated brake cylinder of a compressed-air brake for a rail vehicle to an externally accessible valve carrier which can be fastened to a vehicle frame and which, for compressed-air distribution, has a plurality of pipe connectors (11a, 11b, 11c) and to which at least one first valve part and one second valve part are detachably fastened via respectively associated flange surfaces (6a; 6b), characterized in that the two flange surfaces (6a, 6b) of the valve carrier are arranged adjacent to one another so as to form a common, vertical housing edge situated on a front side, wherein the angle between the two flange surfaces (6a, 6b) is less than 120° and greater than 110°.
A continuous casting mold constituted by a water-cooled copper mold, the continuous casting mold comprising: recessed portions disposed partially or entirely in a region of an inner wall surface of the water-cooled copper mold from at least a position located at a meniscus to a position located 20 mm lower than the meniscus; and dissimilar material-filled layers formed by filling the corresponding recessed portions with a metal or nonmetal having a thermal conductivity different from that of a mold copper plate constituting the water-cooled copper mold, wherein the shape of each of the recessed portions at a surface of the mold copper plate includes a curved surface having a curvature in every direction and a flat surface, characterized in that a radius of curvature of the curved surface satisfies the formula below: d / 2 < R ≤ d where d is the minimum opening width (mm) of the recessed portion at the inner wall surface of the mold copper plate, and R is the average radius of curvature (mm) of the recessed portion. recessed portions disposed partially or entirely in a region of an inner wall surface of the water-cooled copper mold from at least a position located at a meniscus to a position located 20 mm lower than the meniscus; and dissimilar material-filled layers formed by filling the corresponding recessed portions with a metal or nonmetal having a thermal conductivity different from that of a mold copper plate constituting the water-cooled copper mold, wherein the shape of each of the recessed portions at a surface of the mold copper plate includes a curved surface having a curvature in every direction and a flat surface, characterized in that a radius of curvature of the curved surface satisfies the formula below: d / 2 < R ≤ d where d is the minimum opening width (mm) of the recessed portion at the inner wall surface of the mold copper plate, and R is the average radius of curvature (mm) of the recessed portion.
Method for treating sewage sludge, comprising the treatment steps of hydrolysis of the sewage sludge and of digestion of the hydrolyzed sewage sludge, subjected to the hydrolysis, in order to anaerobically treat the sewage sludge, and also comprising a step of precipitation of phosphate from the at least partially treated sewage sludge, wherein the precipitation of phosphate is carried out after the treatment step of hydrolysis and before the treatment step of digestion of the hydrolyzed sewage sludge, and wherein the sewage sludge reduced as a result of the precipitation of phosphate by this removed proportion of phosphate being fed to the anaerobic treatment by digestion, characterized in that the precipitation of phosphate from a sewage sludge mixture or sludge water as liquid phase is performed after a preceding separation of solid phase and liquid phase from the sewage sludge and by adding of precipitant, and that recirculation of a subquantity of sewage sludge treated at least semianaerobically in the step of digestion to the hydrolyzed sewage sludge before or during the treatment step of precipitation of phosphate in order to increase the ammonium content of the hydrolyzed sewage sludge and to raise the pH-value of the hydrolyzed sewage sludge for the step of precipitation of phosphate is performed.
sealing system for wagon sliding walls consisting of a bottom labyrinth construction and an upper labyrinth construction, where the bottom labyrinth construction consists of a first sealing plate attached to the sliding wall, where the first sealing plate is directed towards a second sealing plate, which is attached to a horizontal firm part of the wagon, where an end part of the horizontal firm part of the wagon is equipped with a third sealing plate directed towards the first sealing plate, then the upper labyrinth construction consists of an extruded profile, which is attached to the sliding wall edge and which contains two projections, which fit between three projections of a firm profile, which is attached to the firm part of the wagon, whereby the upper labyrinth construction creates a fluent transition of the extruded profiles in the corners of the sliding wall, which fit into the opposite located firm profiles on the firm part of the wagon for increasing sealing ability of the sliding wall and the firm part of the wagon.
A communication system component of a communication system, comprising: a data retrieval interface configured to request data from a data storage component of the communication system; a data acquisition interface configured to acquire the requested data from one or more other components of the communication system if the requested data is not available for the communication system component in the data storage component; and a data storage interface configured to provide the acquired data to the data storage component for storing the acquired data in the data storage component; wherein the communication system comprises one or more communication terminals and a communication network serving the one or more communication terminals, wherein the communication system component is a component of the communication network; wherein the communication network comprises a radio access network and a core network and wherein the communication system component is a component of the radio access network or the core network; wherein the communication system component is further configured to perform an analysis of an operation of the communication system and to provide analysis results to one or more further components of the communication system; wherein the one or more other components of the communication system comprise one or more core network functions and/or one or more radio access network components; and wherein the data requested by the data retrieval interface comprises collected data and/or statistical and/or analytical data. a data retrieval interface configured to request data from a data storage component of the communication system; a data acquisition interface configured to acquire the requested data from one or more other components of the communication system if the requested data is not available for the communication system component in the data storage component; and a data storage interface configured to provide the acquired data to the data storage component for storing the acquired data in the data storage component; wherein the communication system comprises one or more communication terminals and a communication network serving the one or more communication terminals, wherein the communication system component is a component of the communication network; wherein the communication network comprises a radio access network and a core network and wherein the communication system component is a component of the radio access network or the core network; wherein the communication system component is further configured to perform an analysis of an operation of the communication system and to provide analysis results to one or more further components of the communication system; wherein the one or more other components of the communication system comprise one or more core network functions and/or one or more radio access network components; and wherein the data requested by the data retrieval interface comprises collected data and/or statistical and/or analytical data.
A golf club shaft formed by laminating fiber-reinforced resin, wherein the balance point obtained by formula below is set to be 54% or higher; the kickpoint obtained by formula below is set to be 44.5% or higher and 48% or lower, and wherein a full shaft length (L s) is from 1092 to 1220 mm, balance point % = L G / L S × 100 L G: distance from the gravity center of a shaft to the tip end of the shaft L S: full length of the shaft kickpoint % = L K / L B × 100 L K: when a shaft is curved by a compression load exerted on both ends of the shaft so that the linear distance between both ends is from 98.5 to 99.5 % of the shaft length, the distance from the tip end of the shaft to a point where a straight line connecting both ends intersects with a perpendicular line drawn from the apex of the curve; L B: when a shaft is curved by a compression load exerted on both ends of the shaft so that the linear distance between both ends is from 98.5 to 99.5 % of the shaft length, the linear distance between both ends of the shaft. L G: distance from the gravity center of a shaft to the tip end of the shaft L S: full length of the shaft L K: when a shaft is curved by a compression load exerted on both ends of the shaft so that the linear distance between both ends is from 98.5 to 99.5 % of the shaft length, the distance from the tip end of the shaft to a point where a straight line connecting both ends intersects with a perpendicular line drawn from the apex of the curve; L B: when a shaft is curved by a compression load exerted on both ends of the shaft so that the linear distance between both ends is from 98.5 to 99.5 % of the shaft length, the linear distance between both ends of the shaft.
A compound chosen from 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 a hydrate thereof, or a pharmaceutically acceptable salt thereof.
A method for correcting a mass flow value ṁ measured using a Coriolis flow meter for temperature effects at a known fluid temperature temp below 0 C, the method comprising: receiving a known fluid density ρ ref; receiving the known fluid temperature temp; receiving a time period Tp; determining a Young's modulus temperature correction for density TFy D based on the known fluid density ρ ref, the known fluid temperature temp, and the time period Tp; determining a Young's modulus temperature correction for mass flow TFy M based on a temperature correction constant k and the Young's modulus temperature correction for density TFy D; and correcting the mass flow value ṁ using the Young's modulus temperature correction for mass flow TFy M. receiving a known fluid density ρ ref; receiving the known fluid temperature temp; receiving a time period Tp; determining a Young's modulus temperature correction for density TFy D based on the known fluid density ρ ref, the known fluid temperature temp, and the time period Tp; determining a Young's modulus temperature correction for mass flow TFy M based on a temperature correction constant k and the Young's modulus temperature correction for density TFy D; and correcting the mass flow value ṁ using the Young's modulus temperature correction for mass flow TFy M.
Door (6, 7) for a household refrigeration appliance, having a plate-like door element, which has a door stop device, which has two vertically oriented door pillars (19, 20) arranged on an inner side of the door element and at least one door stop (13, 14, 15, 18) extending between the door pillars (19, 20), wherein at least one door pillar (19, 20) on an inner wall (21, 22) facing the door stop (13, 14, 15, 18) has a height adjustment device for adjusting the height of the door stop (13, 14, 15, 18) in discrete height steps, wherein the height adjustment device has a plurality of wedge elements embodied one above the other in the height direction and extending raised from the inner wall (21, 22) in the direction toward the opposing door pillar (19, 20), by means of which the height steps are formed, wherein a guide depression of the height adjustment device for the door stop (13, 14, 15, 18) is embodied on the inner wall (21, 22) of a door pillar (19, 20) and the wedge elements are embodied in the guide depression, and wherein the guide depression is bounded on the rear side facing the door element by the wedge elements, in particular by supporting edges and front edges of the wedge elements, wherein the door stop (13, 14, 15, 18) has a lateral contact area with an inward bulge, in which a connecting element engaging in a guide depression of the height adjustment device and guidable therein is embodied and in an assembled end state of the door stop (13, 14, 15, 18) representing a specific height step a front wall of the inward bulge rests on a front side of the door pillar (19, 20), wherein the guide depression is bounded on the side facing away from the door element by a front side, wherein the front side is embodied at a distance from the wedge elements so that a passage duct for passing through a door stop (13, 14, 15, 18) at another height step is embodied between the front side and the wedge elements, wherein the guide depression has an insertion connecting link for inserting a door stop (13, 14, 15, 18) between the door pillars (19, 20), in particular the insertion connecting link has an infeed opening on a lower end of the inner wall (21, 22), characterised in that the insertion connecting link is embodied in a straight line and is embodied obliquely in the inner wall (21, 22) such that an infeed opening is arranged at a further distance from the inner side of the door element than an outfeed opening which leads to a lower end of a section of the guide depression which has wedge elements.
A method for transferring an extraneous gene into an animal cell by an electroporation technique, the method comprising: (a) preparing a solution containing suspended animal cells and the extraneous gene to be transferred into the animal cell; (b) filling a 1mm gap cuvette electrode, a 2mm gap cuvette electrode, or a 4mm gap cuvette electrode with the solution; (c) applying, to the animal cellsuspended in the solution, a first electric pulse having an electric field strength of 500 to 875 V/cm so that a total calorie strength is 1.39 to 4.37 J/100 μL; and (d) applying a second electric pulse having an electric field strength of 50 to 250 V/cm so that a calorie strength per pulse is 0.13 to 3.57 J/100 μL, wherein methods of treatment of the human or animal body by surgery or therapy are excluded. (a) preparing a solution containing suspended animal cells and the extraneous gene to be transferred into the animal cell; (b) filling a 1mm gap cuvette electrode, a 2mm gap cuvette electrode, or a 4mm gap cuvette electrode with the solution; (c) applying, to the animal cellsuspended in the solution, a first electric pulse having an electric field strength of 500 to 875 V/cm so that a total calorie strength is 1.39 to 4.37 J/100 μL; and (d) applying a second electric pulse having an electric field strength of 50 to 250 V/cm so that a calorie strength per pulse is 0.13 to 3.57 J/100 μL,