mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: controlling activation of a transmitter sensor (212; 1212) on a tool structure (205; 1205) arranged relative to a drill bit in a well; acquiring a signal in a receiver sensor (214-1, 214-2, 214-3; 1214) of the tool structure in response to activation of the transmitter sensor, the receiver sensor set apart from the transmitter sensor by a separation distance sufficiently large to allow real time processing of the signal to be carried out before the well reaches a boundary of a target zone; processing the signal including generating data corresponding to formation properties ahead of the drill bit and monitoring the generated data; and geosteering the well based on monitoring the generated data such that the well approaches a target in the target zone with minimal or no overshoot of the target zone. controlling activation of a transmitter sensor (212; 1212) on a tool structure (205; 1205) arranged relative to a drill bit in a well; acquiring a signal in a receiver sensor (214-1, 214-2, 214-3; 1214) of the tool structure in response to activation of the transmitter sensor, the receiver sensor set apart from the transmitter sensor by a separation distance sufficiently large to allow real time processing of the signal to be carried out before the well reaches a boundary of a target zone; processing the signal including generating data corresponding to formation properties ahead of the drill bit and monitoring the generated data; and geosteering the well based on monitoring the generated data such that the well approaches a target in the target zone with minimal or no overshoot of the target zone.
A device for thermal analysis consisting of at least one thermoanalytical measurement device and at least one infrared spectrometer, wherein the thermoanalytical measurement device and the at least one infrared spectrometer are connected to one another by means of at least one lift-swivel unit and wherein the at least one infrared spectrometer is disposed above the thermoanalytical measurement device and in which device for thermal analysis a furnace for heating a sample of the thermoanalytical measurement device is provided, wherein the furnace and the infrared spectrometer are connected fixedly to one another by means of a coupling and wherein the coupling is disposed between the furnace and the infrared spectrometer and wherein the furnace is located above the thermoanalytical measurement device and below the infrared spectrometer.
An induction sealing device for heat sealing packaging material for producing sealed packages of pourable food products, said sealing device comprising: an inductor configured to induce a current in the packaging material, the inductor comprising conductor elements (20, 21); a polymer insert holding said conductor elements (20, 21); and a supporting body holding said polymer insert; wherein the polymer insert comprises a polymer matrix into which boron nitride particles are dispersed. an inductor configured to induce a current in the packaging material, the inductor comprising conductor elements (20, 21); a polymer insert holding said conductor elements (20, 21); and a supporting body holding said polymer insert; wherein the polymer insert comprises a polymer matrix into which boron nitride particles are dispersed.
Platform for an electronic balance, wherein the platform comprises a load-receiving area for a weighing object, characterized in that the platform further comprises a centering pin and a rotation-blocking element, said rotation-blocking element being arranged between the load-receiving area and the centering pin, wherein the platform is made in one piece out of a sheet metal material and can be plugged into a holder substantially without loose play.
A thermoplastic molding composition free from halogens and from rare earth metals and free from red phosphorus and comprising A) from 40 to 60% by weight of a polyalkylene terephthalate B) from 0.01 to 10% by weight of a polyolefin selected from the group of b1) polyethylene having a molar mass (Mw) of from 85 000 to 900 000 g/mol b2) polypropylene having a molar mass (Mw) of from 85 000 to 900 000 g/mol b3) polypropylene copolymers having a molar mass (Mw) of from 85 000 to 900 000 g/mol and mixtures of these, C) from 10 to 30% by weight of a flame retardant selected from the group of c1) the nitrogen-containing compounds c2) the phosphorus-containing compounds and mixtures of these, D) from 0.01 to 60% by weight of a reinforcing agent E) from 0 to 50% by weight of another additive where the total of the proportions by weight is 100% by weight based on the thermoplastic molding composition. A) from 40 to 60% by weight of a polyalkylene terephthalate B) from 0.01 to 10% by weight of a polyolefin selected from the group of b1) polyethylene having a molar mass (Mw) of from 85 000 to 900 000 g/mol b2) polypropylene having a molar mass (Mw) of from 85 000 to 900 000 g/mol b3) polypropylene copolymers having a molar mass (Mw) of from 85 000 to 900 000 g/mol and mixtures of these, b1) polyethylene having a molar mass (Mw) of from 85 000 to 900 000 g/mol b2) polypropylene having a molar mass (Mw) of from 85 000 to 900 000 g/mol b3) polypropylene copolymers having a molar mass (Mw) of from 85 000 to 900 000 g/mol C) from 10 to 30% by weight of a flame retardant selected from the group of c1) the nitrogen-containing compounds c2) the phosphorus-containing compounds and mixtures of these, c1) the nitrogen-containing compounds c2) the phosphorus-containing compounds and mixtures of these, D) from 0.01 to 60% by weight of a reinforcing agent E) from 0 to 50% by weight of another additive where the total of the proportions by weight is 100% by weight based on the thermoplastic molding composition.
Sectional door having a door leaf which is subdivided into a plurality of sections (210, 220, 230), wherein each section is formed by a slat and has, in a corresponding manner to the lowermost slat, two horizontal edges (211, 212) and two vertical edges (213, 214), and the respective horizontal edges of two adjacent slats adjoin one another, and rollers, which are guided in mutually opposite guide rails, are mounted in the region of the two mutually opposite edges of each slat in order, by means of the drive of a drive device, to transfer the slats from an open state of the door leaf, in which at least the plurality of the slats are arranged in a horizontal position, reversibly into a closed state, in which at least the plurality of the slats are arranged in a vertical position, and having a sealing device which protects against flood water, wherein the sealing device has an upper counter-pressure strip and a lower counter-pressure strip and that a lower edge of the lowermost slat of the door leaf is designed to interact with the upper counter-pressure strip with the lower counter-pressure strip, which can be firmly anchored in the region of a floor surface of a door entrance, wherein the lower edge of the lowermost slat has two mutually opposite lateral regions (111, 112) which are arranged at a predetermined acute angle to a central region, which extends horizontally close to the floor surface, of the upper counter-pressure strip and interact with lateral extensions (121, 122) of the lower counter-pressure strip which are bent upwards at a corresponding angle and which can be anchored in the region of mutually opposite lateral walls (300, 310) of the door entrance.
Floor cleaning machine, in particular a hand-guided and/or hand-held floor cleaning machine, comprising a support device, at least one cleaning roller which is arranged on the support device, is capable of being driven in rotation and is provided with a cleaning substrate, a fan device for creating a suction flow, and a suction channel device for the suction flow which provides at least one suction channel operatively connected for fluid communication between the fan device and the at least one cleaning roller, wherein the at least one suction channel has at least one mouth towards the at least one cleaning roller and wherein the at least one mouth comprises a first mouth wall and a spaced second mouth wall having a mouth opening formed therebetween, wherein the first mouth wall is positioned above the second mouth wall relative to the direction of gravity (g) when the at least one cleaning roller is placed on a floor that is to be cleaned, characterized in that the first mouth wall and/or the second mouth wall is in contact against or protrudes into the cleaning substrate of the at least one cleaning roller, and in that a dirty liquid container is provided that is associated with a separator device.
Method for producing a fibre composite component, said method comprising: producing a filling body for a preform of the fibre composite component from a plastics material, wherein the preform comprises a textile material; cross-linking the plastics material of the filling body by irradiating the filling body with radiation such that the plastics material molecules of the plastics material are connected to one another; inserting the filling body into the preform of the fibre composite component; and connecting the filling body to the preform so as to form the fibre composite component. producing a filling body for a preform of the fibre composite component from a plastics material, wherein the preform comprises a textile material; cross-linking the plastics material of the filling body by irradiating the filling body with radiation such that the plastics material molecules of the plastics material are connected to one another; inserting the filling body into the preform of the fibre composite component; and connecting the filling body to the preform so as to form the fibre composite component.
A seal assembly between a disc cavity and a hot gas path that extends through a turbine section of a gas turbine engine comprising: a rotating blade assembly including a plurality of blades that rotate with a turbine rotor during operation of the engine; and a stationary vane assembly including a plurality of vanes and an inner shroud, the inner shroud comprising: a radially outwardly facing first surface; a radially inwardly facing second surface; and a plurality of grooves extending into the second surface, the grooves being arranged such that a space having a component in a circumferential direction is defined between adjacent grooves; wherein, during operation of the engine, the grooves guide purge air out of the disc cavity toward the hot gas path such that the purge air flows in a desired direction with reference to a direction of hot gas flow through the hot gas path, characterised in that the grooves are tapered from entrances thereof located distal from an axial end portion of the inner shroud to exits thereof located proximal to the axial end portion of the inner shroud such that the entrances are wider than the exits. a rotating blade assembly including a plurality of blades that rotate with a turbine rotor during operation of the engine; and a stationary vane assembly including a plurality of vanes and an inner shroud, the inner shroud comprising: a radially outwardly facing first surface; a radially inwardly facing second surface; and a plurality of grooves extending into the second surface, the grooves being arranged such that a space having a component in a circumferential direction is defined between adjacent grooves; a radially outwardly facing first surface; a radially inwardly facing second surface; and a plurality of grooves extending into the second surface, the grooves being arranged such that a space having a component in a circumferential direction is defined between adjacent grooves; wherein, during operation of the engine, the grooves guide purge air out of the disc cavity toward the hot gas path such that the purge air flows in a desired direction with reference to a direction of hot gas flow through the hot gas path, characterised in that the grooves are tapered from entrances thereof located distal from an axial end portion of the inner shroud to exits thereof located proximal to the axial end portion of the inner shroud such that the entrances are wider than the exits.
A method for reconstructing the optical properties of a medium, using a reconstruction system comprising at least one radiation source (14, s) capable of lighting the medium and at least one detector (16, d) capable of receiving a signal transmitted by the medium, the method including the following steps: - lighting the medium using the or each radiation source (14, s), - receiving, by the or each detector (16, d), the signal transmitted by the medium, and - processing, for at least one source-detector pair (14, s, 16, d), a first distribution (B sd (t)) of the signal received by the corresponding detector (16, d), - computing the Mellin-Laplace transform (Y sd (p,n); B sd (p,n)), for a given order (n) and a given variable (p), of a magnitude (Y sd (t); B sd (t)) comprising the first distribution (B sd (t)), the order (n) being an integer, the variable (p) being a real number, and - reconstructing optical properties of the medium using the Mellin-Laplace transform (Y sd (p,n); B sd (p,n)) of said magnitude (Y sd (t); B sd (t)), characterized in that the computing step comprises computing a plurality of Mellin-Laplace transforms (Y sd (p,n); B sd (p,n)) of said magnitude for distinct values of the order (n), and in that the reconstructing step is carried out from a combination of the plurality of Mellin-Laplace transforms (Y sd (p,n); B sd (p,n)). - lighting the medium using the or each radiation source (14, s), - receiving, by the or each detector (16, d), the signal transmitted by the medium, and - processing, for at least one source-detector pair (14, s, 16, d), a first distribution (B sd (t)) of the signal received by the corresponding detector (16, d), - computing the Mellin-Laplace transform (Y sd (p,n); B sd (p,n)), for a given order (n) and a given variable (p), of a magnitude (Y sd (t); B sd (t)) comprising the first distribution (B sd (t)), the order (n) being an integer, the variable (p) being a real number, and - reconstructing optical properties of the medium using the Mellin-Laplace transform (Y sd (p,n); B sd (p,n)) of said magnitude (Y sd (t); B sd (t)),
A method of selectively stimulating a subterranean formation, the method comprising the steps of: positioning a casing string in a wellbore intersecting the formation, the casing string including multiple spaced apart valves (22, 24, 26, 28) operable to selectively permit and prevent fluid flow between an interior and an exterior of the casing string, the valves (22, 24, 26, 28) being operable via at least one line connected to the valves (22, 24, 26, 28); and for each of multiple sets of one or more intervals (12, 14, 16, 18) of the formation in sequence, stimulating the interval set (12, 14, 16, 18) by opening a corresponding one of the valves (22, 24, 26, 28), closing the remainder of the valves (22, 24, 26, 28), and flowing a stimulation fluid from the interior of the casing string and into the interval set (12, 14, 16, 18), characterised in that further for each of the interval sets (12, 14, 16, 18) in sequence, testing the interval set (12, 14, 16, 18) by opening the corresponding one of the valves (22, 24, 26, 28), closing the remainder of the valves (22, 24, 26, 28), and flowing a formation fluid from the interval set and into the interior of the casing string. positioning a casing string in a wellbore intersecting the formation, the casing string including multiple spaced apart valves (22, 24, 26, 28) operable to selectively permit and prevent fluid flow between an interior and an exterior of the casing string, the valves (22, 24, 26, 28) being operable via at least one line connected to the valves (22, 24, 26, 28); and for each of multiple sets of one or more intervals (12, 14, 16, 18) of the formation in sequence, stimulating the interval set (12, 14, 16, 18) by opening a corresponding one of the valves (22, 24, 26, 28), closing the remainder of the valves (22, 24, 26, 28), and flowing a stimulation fluid from the interior of the casing string and into the interval set (12, 14, 16, 18), characterised in that further for each of the interval sets (12, 14, 16, 18) in sequence, testing the interval set (12, 14, 16, 18) by opening the corresponding one of the valves (22, 24, 26, 28), closing the remainder of the valves (22, 24, 26, 28), and flowing a formation fluid from the interval set and into the interior of the casing string.
Secure hardware element comprising a plurality of applications and an execution environment (130, 150, 160) for executing the applications, the execution environment being configured to receive a command on a communication interface for communicating with outside (200, 300) the secure hardware element, to determine a target application for executing the command using an application resource from among a plurality of application resources of the secure hardware element, and to transmit, on the communication interface, a response to the command received from the target application, the secure hardware element being characterized in that it comprises a plurality of communication interfaces (111, 112) and a plurality of security management applications defining a plurality of issuer security domains (ISD1, ISD2, ISDn), each issuer security domain being respectively associated with a different communication interface (111, 112); in that the execution environment (130, 150, 160) comprises a register associating, with each application resource from among the plurality of application resources, an application identifier specific to the application resource and an indicator representative of an associated communication interface, wherein the register furthermore associates, with each application from among the plurality of applications, an application identifier specific to the application and an indicator representative of an associated communication interface; and in that the execution environment is configured to determine the target application on the basis of the communication interface receiving the command and to authorize access to an application resource of the secure hardware element for the execution of the command by the target application only if this application resource is associated with the communication interface receiving the command. in that the execution environment (130, 150, 160) comprises a register associating, with each application resource from among the plurality of application resources, an application identifier specific to the application resource and an indicator representative of an associated communication interface, wherein the register furthermore associates, with each application from among the plurality of applications, an application identifier specific to the application and an indicator representative of an associated communication interface; and in that the execution environment is configured to determine the target application on the basis of the communication interface receiving the command and to authorize access to an application resource of the secure hardware element for the execution of the command by the target application only if this application resource is associated with the communication interface receiving the command.
A ceramic element comprising: a ceramic body including one or more laminated ceramic layers and surface electrodes (20a, 20b); a first coating layer disposed on a first part of a front surface of the ceramic body, wherein the first coating layer continuously extends from the front surface of the ceramic body to a first region of a side surface of the ceramic body and is in direct contact with said first region of the side surface of the ceramic body, the side surface being a machined surface, and the first region being a front side region of the side surface, characterized in that the ceramic element additionally comprises a second coating layer disposed on a second part of a back surface of the ceramic body, wherein the second coating layer continuously extends from the back surface of the ceramic body to a second region of the side surface of the ceramic body and is in direct contact with said second region of the side surface of the ceramic body, the second region being a back side region of the side surface, and, in the machined surface of the ceramic body, one of the first and second coating layers (14, 16) is disposed partially on the other of the first and second coating layers (14, 16). a ceramic body including one or more laminated ceramic layers and surface electrodes (20a, 20b); a first coating layer disposed on a first part of a front surface of the ceramic body, wherein the first coating layer continuously extends from the front surface of the ceramic body to a first region of a side surface of the ceramic body and is in direct contact with said first region of the side surface of the ceramic body, the side surface being a machined surface, and the first region being a front side region of the side surface, characterized in that the ceramic element additionally comprises a second coating layer disposed on a second part of a back surface of the ceramic body, wherein the second coating layer continuously extends from the back surface of the ceramic body to a second region of the side surface of the ceramic body and is in direct contact with said second region of the side surface of the ceramic body, the second region being a back side region of the side surface, and, in the machined surface of the ceramic body, one of the first and second coating layers (14, 16) is disposed partially on the other of the first and second coating layers (14, 16).
A method for creating a current situation depiction for a fixed location by means of a stationary database (16, 25), having data merging means and vehicle-to-X communication means as well as a multiplicity of vehicles, characterized in that said method has the steps of: - capturing environment data in order to describe objects which contribute to the topology of the vehicle environment by means of environment sensors and/or vehicle sensors by the respective vehicles, - extracting map data from a digital memory of the respective vehicles, and - sending the environment data and/or the map data, supplemented by the environment data, of the vehicles (12, 14, 22, 24), said data describing the locally bounded situation at the fixed location to the database (16, 25) using vehicle-to-X communication means, wherein the environment data and/or the map data supplemented by the environment data are continually merged with a situation depiction that is already present in the database (16, 25) to form a current situation depiction for the fixed location. - capturing environment data in order to describe objects which contribute to the topology of the vehicle environment by means of environment sensors and/or vehicle sensors by the respective vehicles, - extracting map data from a digital memory of the respective vehicles, and - sending the environment data and/or the map data, supplemented by the environment data, of the vehicles (12, 14, 22, 24), said data describing the locally bounded situation at the fixed location to the database (16, 25) using vehicle-to-X communication means, wherein the environment data and/or the map data supplemented by the environment data are continually merged with a situation depiction that is already present in the database (16, 25) to form a current situation depiction for the fixed location.