mhurhangee/ep-ind-claims huggingface dataset:
A Micro Electro-Mechanical System (MEMS) Digital Variable Capacitor characterized in that it comprises: a substrate having at least one first electrode, at least one second electrode and an RF (Radio Frequency) electrode disposed therein; a dielectric layer disposed over the substrate, the at least one first electrode, the at least one second electrode and the RF electrode, wherein the dielectric layer comprises an RF plateau over the RF electrode and at least one secondary landing contact above the at least one second electrode; and a plate coupled to the at least one first electrode and extending over the at least one second electrode and the RF electrode, the plate movable from a first position spaced from the dielectric layer and a position in contact with the RF plateau. a substrate having at least one first electrode, at least one second electrode and an RF (Radio Frequency) electrode disposed therein; a dielectric layer disposed over the substrate, the at least one first electrode, the at least one second electrode and the RF electrode, wherein the dielectric layer comprises an RF plateau over the RF electrode and at least one secondary landing contact above the at least one second electrode; and a plate coupled to the at least one first electrode and extending over the at least one second electrode and the RF electrode, the plate movable from a first position spaced from the dielectric layer and a position in contact with the RF plateau.
A system for producing a cellulose web or sheet from an aqueous suspension of cellulose fibers, comprising: a paper machine comprising at least one headbox and one forming wire; a mixing section for a slurry of cellulose fibers; a dilution section, wherein the slurry of cellulose fibers, coming from said mixing section, is diluted with water coming from the paper machine to form the aqueous suspension of cellulose fibers; a fluid connection from the mixing section to the dilution section; a fluid connection from the dilution section to the paper machine; the mixing section for the slurry of cellulose fibers comprising a mixer with a vertically extending tubular body, into which at least two feed pipes of flows of water and fibers and/or water and chemical additives (52, 53, 55, 57) tangentially lead, the flows introduced by said at least two feed pipes being mixed with each other in said tubular body; characterized in that said tubular body is in fluid connection with a machine tank equipped with a mechanical mixer; said machine tank being in fluid connection with said dilution section, wherein the machine tank is placed at a lower level compared to the output of said tubular body.
Air-impermeable exterior wall for the construction of thermally-passive buildings, including at least one timber-frame insulating wall and another timber-frame wall, internal or external, with the two walls (P1, P2) enclosing an immobile air gap surrounding the building, with the said exterior wall being characterized in that: - the wall is composed of an air-impermeable mortise-and-tenon assembly of wall ties, long beams, panels (7, 8) and columns of which the dimensions and weight make them man-portable, - the other wall being composed of an assembly of panels (9, 10) and columns and containing the fluid networks, said other wall being positioned at a distance of around 20 millimeters from the wall, with no contact or thermal bridges, notably without fixation means and electrical and fluid, putting the walls in communication in the space between the two walls (P1, P2), with the said immobile air gap surrounding the building, including within the areas in which the panels (7, 8, 9, 10) have doors, French windows and windows. - the wall is composed of an air-impermeable mortise-and-tenon assembly of wall ties, long beams, panels (7, 8) and columns of which the dimensions and weight make them man-portable, - the other wall being composed of an assembly of panels (9, 10) and columns and containing the fluid networks, said other wall being positioned at a distance of around 20 millimeters from the wall, with no contact or thermal bridges, notably without fixation means and electrical and fluid, putting the walls in communication in the space between the two walls (P1, P2), with the said immobile air gap surrounding the building, including within the areas in which the panels (7, 8, 9, 10) have doors, French windows and windows.
Process for looping annular anchoring structures in a process for building tyres for vehicle wheels, comprising: - depositing a loop on a drum comprising a radially expandable/contractible intermediate annular portion and, in a position axially adjacent to the opposite axial ends of said intermediate annular portion, a pair of radially expandable/contractible lateral annular portions (120a, 120b); - associating an annular anchoring structure with a radially outer annular surface portion of said loop, defined at said intermediate annular portion; - turning up each of opposite end edges (5a, 5b) of said loop on said annular anchoring structure as a result of a thrusting stress imparted by a respective lateral annular portion (120a, 120b) of said pair of lateral annular portions (120a, 120b) because of a synchronous radial movement and a synchronous axial displacement of a respective plurality of circumferentially adjacent first angular sectors (121a, 121b). - depositing a loop on a drum comprising a radially expandable/contractible intermediate annular portion and, in a position axially adjacent to the opposite axial ends of said intermediate annular portion, a pair of radially expandable/contractible lateral annular portions (120a, 120b); - associating an annular anchoring structure with a radially outer annular surface portion of said loop, defined at said intermediate annular portion; - turning up each of opposite end edges (5a, 5b) of said loop on said annular anchoring structure as a result of a thrusting stress imparted by a respective lateral annular portion (120a, 120b) of said pair of lateral annular portions (120a, 120b) because of a synchronous radial movement and a synchronous axial displacement of a respective plurality of circumferentially adjacent first angular sectors (121a, 121b).
A refrigerator and/or freezer with an appliance body, which can be closed by at least one door, and a powered door operating device for automatically operating the door, wherein the door operating device has drive means with at least one drive motor both for automatically opening and for automatically closing the door, characterized in that a force limiter is associated to the drive means for limiting the actuating force when opening and/or closing and/or holding the door, wherein the drive means include a jumper (9, 10) for bridging the force limiter, which in the closed position of the door and/or in a limited initial range of movement out of the closed position bridges the force limiter and on opening of the door transmits the full driving force of the drive means to the door, wherein the jumper (9, 10) is formed by a second drive train which is connected in parallel to the force limiter realized as sliding clutch and can comprise a gearwheel driven by the drive motor as well as a toothed rack provided at the door, which is dimensioned such that the second drive train only is active in the closed position of the door or in an adjoining small angular range, or by a second separate drive motor with an actuator for pushing the door open out of the closed position.
A service communication method, comprising: receiving, by an access network device from a core network device, a bearer setup request message for setting up a service for a terminal, wherein the bearer setup request message requests the access network device to set up a bearer for the service, the bearer setup request message carries a service requirement of the service, and the service requirement is used to indicate, to the access network device, a radio channel quality requirement for executing the service by the terminal; setting up, by the access network device, the bearer for the service; sending, by the access network device, a bearer setup response message to the core network device, wherein the bearer setup response message is used to notify the core network device that the access network device has set up the bearer for the service; and characterized in that the service communication method further comprises: sending, by the access network device, a bearer deletion request message to the core network device when the access network device determines that radio channel quality provided by the access network device does not meet the service requirement, wherein the deletion request message requests the core network device to delete the bearer. receiving, by an access network device from a core network device, a bearer setup request message for setting up a service for a terminal, wherein the bearer setup request message requests the access network device to set up a bearer for the service, the bearer setup request message carries a service requirement of the service, and the service requirement is used to indicate, to the access network device, a radio channel quality requirement for executing the service by the terminal; setting up, by the access network device, the bearer for the service; sending, by the access network device, a bearer setup response message to the core network device, wherein the bearer setup response message is used to notify the core network device that the access network device has set up the bearer for the service; and characterized in that the service communication method further comprises: sending, by the access network device, a bearer deletion request message to the core network device when the access network device determines that radio channel quality provided by the access network device does not meet the service requirement, wherein the deletion request message requests the core network device to delete the bearer.
A system for diagnosis of vehicles, comprising a central processor resource configured to communicate wirelessly with at least one vehicle, and a local module located in the respective vehicle and configured to receive diagnosis commands from the central processor resource, to cause execution of said diagnosis commands concerning at least one unit connected to a network in the vehicle, leading to at least one command response, and to return said at least one command response to the central processor resource, whereby the central processor resource includes a superordinate diagnosis unit adapted to generating diagnosis commands in the form of control instructions, and the local module is adapted to exclusively executing diagnosis commands in response to said control instructions from the central processor resource, whereby the local module is adapted, before executing a diagnosis command, to checking whether it is associated with one or more conditions relating to operation of the vehicle, and to only executing it if all of the operation-related conditions associated with it are fulfilled, said conditions comprising at least one of an indicated vehicle speed range, no activation of manually initiated braking, no activation of the power take-off of the vehicle or a requirement for the steering wheel angle deflection to be within an indicated range, whereby the local module is further configured to monitor, when executing a diagnosis command, any conditions associated with it, and to cease executing the diagnosis command if one or more of said associated conditions are found not to be fulfilled, and whereby the local module is further configured to resume executing the diagnosis command if all of the conditions associated with it are again found to be fulfilled.
A method for checking a measuring system, wherein a plurality of three-dimensional recordings of a reference object are recorded from different recording directions by means of the measuring system, wherein the reference object has a closed shape, wherein each of the three-dimensional recordings is registered with at least the preceding recording, wherein in the case of a faulty calibration and/or in the case of a faulty registration, the individual recordings are deformed compared with the actual shape of the reference object, so that the deformation continues when the individual three-dimensional recordings are assembled to form an overall recording and the generated overall recording deviates in its dimensions from the dimensions of the reference object as a result thereof, wherein at least one object region of the reference object is measured twice, at the beginning of a circuit and at the end of the circuit, wherein a distance between a first position of the object region in a first recording at the beginning of the circuit and a second position of the object region in a second recording at the end of the circuit in the overall recording is determined, wherein, using the distance, a measurement error of the measuring system is detected, said error comprising a calibration error and a registration error, wherein before performing the three-dimensional recordings the registration error is determined by cutting out virtual individual sub-regions from a first original virtual 3D model of the reference object, wherein each sub-region partially overlaps a preceding sub-region and a subsequent sub-region, wherein subsequently each sub-region is registered with at least one preceding sub-region, so that a second virtual 3D model of the reference object is generated after the registration, wherein the registration error is determined from a deviation between the first original 3D model and the second 3D model of the reference object, wherein the calibration error is determined by subtracting the registration error from the total measurement error.
A method for identifying a plurality of RNA analytes in a cell or tissue, comprising: (a) contacting said cell or tissue with a composition comprising a plurality of detection reagents, wherein said cell or tissue is mounted on a solid support, wherein each subpopulation of said plurality of detection reagents targets at least one different RNA analyte of said plurality of RNA analytes, wherein each detection reagent comprises (i) at least one nucleic acid probe targeting an RNA analyte of said plurality of RNA analytes and (ii) at least one nucleic acid label comprising at least one predetermined subsequence, wherein said at least one nucleic acid probe and said at least one nucleic acid label are conjugated together, and wherein said plurality of RNA analytes are selected from the group consisting of cellular RNA, messenger RNA, microRNA, ribosomal RNA, and any combinations thereof; (b) removing any unbound detection reagents from said cell or tissue; (c) in said cell or tissue, sequencing said at least one predetermined subsequence in a temporally-sequential manner to generate a temporal order of optical signal signatures corresponding to said at least one predetermined subsequence, wherein said temporal order of optical signal signatures is unique for each subpopulation of said plurality of detection reagents; and (d) using said temporal order of optical signal signatures to identify said plurality of RNA analytes in said cell or tissue. (a) contacting said cell or tissue with a composition comprising a plurality of detection reagents, wherein said cell or tissue is mounted on a solid support, wherein each subpopulation of said plurality of detection reagents targets at least one different RNA analyte of said plurality of RNA analytes, wherein each detection reagent comprises (i) at least one nucleic acid probe targeting an RNA analyte of said plurality of RNA analytes and (ii) at least one nucleic acid label comprising at least one predetermined subsequence, wherein said at least one nucleic acid probe and said at least one nucleic acid label are conjugated together, and wherein said plurality of RNA analytes are selected from the group consisting of cellular RNA, messenger RNA, microRNA, ribosomal RNA, and any combinations thereof; (b) removing any unbound detection reagents from said cell or tissue; (c) in said cell or tissue, sequencing said at least one predetermined subsequence in a temporally-sequential manner to generate a temporal order of optical signal signatures corresponding to said at least one predetermined subsequence, wherein said temporal order of optical signal signatures is unique for each subpopulation of said plurality of detection reagents; and (d) using said temporal order of optical signal signatures to identify said plurality of RNA analytes in said cell or tissue.
A thermoplastic polyurethane composition comprising the reaction product of: a) a polyisocyanate component comprising at least one linear aliphatic diisocyanate; b) a polyol component consisting essentially of poly(tetramethylene ether glycol); and c) a chain extender component comprising at least one diol chain extender of the general formula HO-(CH 2) x -OH wherein x is an integer from 9 to 18. a) a polyisocyanate component comprising at least one linear aliphatic diisocyanate; b) a polyol component consisting essentially of poly(tetramethylene ether glycol); and c) a chain extender component comprising at least one diol chain extender of the general formula HO-(CH 2) x -OH wherein x is an integer from 9 to 18.
A productivity display control device (40, 50) for a yarn winding machine including a plurality of winding units, each of which including a yarn feeder configured to supply yarn, a winding device configured to wind the yarn supplied from the yarn feeder to form a package, and a clearer configured to detect a yarn defect of the yarn between the yarn feeder and the winding device and determine whether to remove the yarn defect based on a set clearing condition, the productivity display control device (40, 50) comprising: an arithmetic unit (47, 57) configured to calculate a productivity of the yarn winding machine based on a winding condition set in the yarn winding machine, operation data of the yarn winding machine, and a number of removals of yarn defects removed based on the clearing condition; and a display controller (48, 58) configured to cause a display device (45, 55) to display information concerning the productivity calculated by the arithmetic unit (47, 57); characterized by a receiving unit (46, 56) configured to receive a change operation of at least one of the clearing condition, the winding condition, and the operation data, wherein the arithmetic unit (47, 57) is configured to calculate a prediction of the productivity based on at least one of the number of removals of yarn defects removed based on the clearing condition after change, the winding condition after change, and the operation data after change. an arithmetic unit (47, 57) configured to calculate a productivity of the yarn winding machine based on a winding condition set in the yarn winding machine, operation data of the yarn winding machine, and a number of removals of yarn defects removed based on the clearing condition; and a display controller (48, 58) configured to cause a display device (45, 55) to display information concerning the productivity calculated by the arithmetic unit (47, 57); characterized by a receiving unit (46, 56) configured to receive a change operation of at least one of the clearing condition, the winding condition, and the operation data, wherein the arithmetic unit (47, 57) is configured to calculate a prediction of the productivity based on at least one of the number of removals of yarn defects removed based on the clearing condition after change, the winding condition after change, and the operation data after change.
A projectile launching device for launching projectiles, comprising: a main body including a breech and a feed port configured for accommodating and launching projectiles; a barrel connected to the main body, the barrel having a front portion and a rear portion, the rear portion of the barrel being connected to the breech, the front portion of the barrel being open so that a projectile may be launched from the barrel; a valve for controlling a compressed air supply for launching projectiles from the barrel; the valve being movable between an open position and a closed position; an actuator mounted within the body having a mass and an actuating speed, the actuator positioned and configured to provide a force based on the mass and speed to move the valve from the closed position to the open position; a force control member that is configured and positioned between the actuator and the valve such that the actuator contacts the force control member and then the force control member contacts the valve to provide force acting on the valve; characterized in that the actuator is a hammer of a linear nature, the valve is a knock-open valve that has a valve pin, whereby the valve pin has a common orientation with the hammer, and the force control member is a lever with a cam surface, to alter the force acting on the valve from the hammer. a main body including a breech and a feed port configured for accommodating and launching projectiles; a barrel connected to the main body, the barrel having a front portion and a rear portion, the rear portion of the barrel being connected to the breech, the front portion of the barrel being open so that a projectile may be launched from the barrel; a valve for controlling a compressed air supply for launching projectiles from the barrel; the valve being movable between an open position and a closed position; an actuator mounted within the body having a mass and an actuating speed, the actuator positioned and configured to provide a force based on the mass and speed to move the valve from the closed position to the open position; a force control member that is configured and positioned between the actuator and the valve such that the actuator contacts the force control member and then the force control member contacts the valve to provide force acting on the valve; characterized in that the actuator is a hammer of a linear nature, the valve is a knock-open valve that has a valve pin, whereby the valve pin has a common orientation with the hammer, and the force control member is a lever with a cam surface, to alter the force acting on the valve from the hammer.
A ceiling air conditioning device, having - at least one air duct extending in a longitudinal direction in order to supply air, - at least one profile element with a number of ribs extending in the transverse direction, which is arranged below the air duct - and at least one line for a temperature control medium for tempering the profile element, which is arranged on the profile element, - wherein the air duct has a number of outlet openings arranged between the ribs, characterized in that - the profile element has at least one groove extending in the longitudinal direction, - and at least one support profile extending in the longitudinal direction is provided, which has at least one spring for engagement in the groove. - at least one air duct extending in a longitudinal direction in order to supply air, - at least one profile element with a number of ribs extending in the transverse direction, which is arranged below the air duct - and at least one line for a temperature control medium for tempering the profile element, which is arranged on the profile element, - wherein the air duct has a number of outlet openings arranged between the ribs, characterized in that - the profile element has at least one groove extending in the longitudinal direction, - and at least one support profile extending in the longitudinal direction is provided, which has at least one spring for engagement in the groove.