mhurhangee/ep-ind-claims huggingface dataset:
An electromechanical actuator for a closure, covering or solar protection installation, the electromechanical actuator comprising an electric motor, a casing, a vibration-filtering mechanical module (33; 33a; 33b; 33c), a vibration-absorption module and a torque support, inserted at least partially into the casing, the vibration-filtering mechanical module (33; 33a; 33b; 33c) comprising a first end (35, 135) and a second end (39, 139), separated by a length L, - the first end (35, 135) of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked directly or indirectly to the casing, - the second end (39, 139) of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked to the torque support, the vibration-filtering mechanical module (33; 33a; 33b; 33c) ensuring the mechanical link between the casing and the torque support in rotation about a first axis of the actuator, the electromechanical actuator being characterized in that the vibration-filtering mechanical module (33; 33a; 33b; 33c) allows to transmit, primarily, or even exclusively, the torques around the first axis of the electric motor and/or of the casing to the torque support, the vibration-absorption module mechanically linking the casing to the torque support in translation perpendicularly to the first axis of the actuator by allowing a degree of freedom in rotation between the casing and the torque support about the first axis. - the first end (35, 135) of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked directly or indirectly to the casing, - the second end (39, 139) of the vibration-filtering mechanical module (33; 33a; 33b; 33c) being mechanically linked to the torque support, the vibration-filtering mechanical module (33; 33a; 33b; 33c) ensuring the mechanical link between the casing and the torque support in rotation about a first axis of the actuator, the electromechanical actuator being characterized in that the vibration-filtering mechanical module (33; 33a; 33b; 33c) allows to transmit, primarily, or even exclusively, the torques around the first axis of the electric motor and/or of the casing to the torque support, the vibration-absorption module mechanically linking the casing to the torque support in translation perpendicularly to the first axis of the actuator by allowing a degree of freedom in rotation between the casing and the torque support about the first axis.
An arrangement comprising a vacuum pump which has a pump flange (10; 70); a chamber which has a chamber flange; and a flange connection comprising a pump flange and a chamber flange for the vacuum-tight connection of the chamber and the vacuum pump, wherein the arrangement comprises a force transmission structure which transmits a force from an introduction point to at least one active point disposed in the flange connection, wherein the pump flange (10; 70) comprises at least two intake openings (27; 28) which are each connected to a pump stage (15, 16) characterized in that the force transmission structure is adapted to convert a planar introduction force (57; 86) into an axial pressing force (60; 87).
Cast, hollow turbine blade, having a platform and having a hollow blade airfoil arranged thereon, wherein the blade airfoil comprises a pressure-side blade airfoil wall and a suction-side blade airfoil wall which extend along a centrally arranged curved profile centerline from a common leading edge to a common trailing edge, and having a transition, exhibiting an external contour profile, between the blade airfoil and the platform, wherein the blade walls (32, 34) each have a blade wall thickness to be determined locally, wherein the turbine blade has, in the region of the transition, an inner face bounding a cavity, the contour of said inner face being adapted to the inner face in a first portion in such a way that there is a substantially uniform blade wall thickness (D 1) in the region of the transition, characterized in that, in the transition, the contour profile of the inner face on a second inner-face portion, located opposite the leading edge, of the blade airfoil is such that the blade wall thickness (D 2) is increased there compared with the blade wall thickness (D 1) of the transition of the first portion of the inner face.
A method for the control of the rotational speed for a drive device of a printing roller with a resilient printing sleeve of a flexographic printing press, characterized in that the method has the following steps: - determining a first rotational speed of the printing roller when running freely without an active drive device at a first value provided, - determining a second rotational speed of the printing roller when running freely without an active drive device at a second value provided, - generating a control curve of the rotational speed in relation to the value provided on the basis of the determination steps, - using the control curve for the control of the rotational speed of the printing roller with an active drive device. - determining a first rotational speed of the printing roller when running freely without an active drive device at a first value provided, - determining a second rotational speed of the printing roller when running freely without an active drive device at a second value provided, - generating a control curve of the rotational speed in relation to the value provided on the basis of the determination steps, - using the control curve for the control of the rotational speed of the printing roller with an active drive device.
A sulfonic acid group-containing polymer characterized by having units u1 represented by the following formula u1, units u2 represented by the following formula u2, and units u3 based on tetrafluoroethylene, in the formula u1, R F1 and R F2 are each independently a C 1-3 perfluoroalkylene group, and Z + is a hydrogen ion, a metal ion, or an ammonium ion, -[CF 2 -CF(CF 2 O-R f1)]- Formula u2 in the formula u2, R f1 is a perfluoroalkyl group which may contain a SO 3 - Z + group and/or etheric oxygen atom. in the formula u1, R F1 and R F2 are each independently a C 1-3 perfluoroalkylene group, and Z + is a hydrogen ion, a metal ion, or an ammonium ion, -[CF 2 -CF(CF 2 O-R f1)]- Formula u2 in the formula u2, R f1 is a perfluoroalkyl group which may contain a SO 3 - Z + group and/or etheric oxygen atom.
A consensus node changing method based on a Honey Badger Byzantine Fault Tolerance, BFT, consensus mechanism, comprising: when receiving a transaction for changing a blockchain's consensus node, executing, by a consensus node of the blockchain, the transaction to trigger a smart contract to update a consensus node configuration list of the blockchain, wherein the consensus node configuration list comprises serial numbers allocated to consensus nodes of the blockchain based on a serial number allocation rule specified by the smart contract; associating, by the consensus node of the blockchain based on serial numbers of consensus nodes recorded in the updated consensus node configuration list, other consensus nodes of the blockchain with at least two state machines locally configured in the consensus node, wherein each of the state machines is configured with states corresponding to a consensus phase in the Honey Badger BFT consensus mechanism and configured to perform state switching based on a control signal to perform a consensus operation specified by the consensus phase corresponding to a current state of the state machine; and processing, by the consensus node of the blockchain based on the state machines that have been configured locally, a consensus proposal initiated by one or more of the other consensus nodes associated with the state machines. when receiving a transaction for changing a blockchain's consensus node, executing, by a consensus node of the blockchain, the transaction to trigger a smart contract to update a consensus node configuration list of the blockchain, wherein the consensus node configuration list comprises serial numbers allocated to consensus nodes of the blockchain based on a serial number allocation rule specified by the smart contract; associating, by the consensus node of the blockchain based on serial numbers of consensus nodes recorded in the updated consensus node configuration list, other consensus nodes of the blockchain with at least two state machines locally configured in the consensus node, wherein each of the state machines is configured with states corresponding to a consensus phase in the Honey Badger BFT consensus mechanism and configured to perform state switching based on a control signal to perform a consensus operation specified by the consensus phase corresponding to a current state of the state machine; and processing, by the consensus node of the blockchain based on the state machines that have been configured locally, a consensus proposal initiated by one or more of the other consensus nodes associated with the state machines.
A seeding machine that is configured to move seed along a seed path defined by a seed-transport belt, comprising a seed-transport belt and a belt tensioner assembly; the seed-transport belt being contained, at least in part, by a belt housing and being supported by a fixed belt support that is fixed with respect to the belt housing, characterised in that the belt tensioner assembly comprises: an adjustment mechanism having an input member accessible from outside the belt housing and having a positioning member disposed within the belt housing, the positioning member changing positions in response to user input applied to the input member; a transfer mechanism having a first end coupled to the positioning member and moving in response to the change in positions of the positioning member; and a movable belt support supporting the seed-transport belt, the movable belt support being coupled to a second end of the transfer mechanism and movable with respect to the belt housing; wherein user input to the adjustment mechanism changes the position of the positioning member to move the transfer mechanism and drive the movable belt support one of toward or away from the fixed belt support to vary the tension of the seed-transport belt, wherein the transfer mechanism includes a spring assembly with at least one spring, the moving of the transfer mechanism in a first direction in response to the change in the position of the positioning member compressing the at least one spring to increase the tension of the seed-transport belt, wherein the spring assembly includes: a first transfer portion to which the positioning member is coupled, the first transfer portion including a first spring mount for the at least one spring; and a second transfer portion to which the movable belt support is coupled, the second transfer portion including a second spring mount for the at least one spring; and wherein the at least one spring extends between the first spring mount and the second spring mount to connect the first and second transfer portions (112, 116) of the spring assembly.
Electronic equipment for the replication of ports and the routing of digital signals, intended for secure environments for concentrating signals from a plurality of pieces of measuring equipment on the one hand, as well as the communication with supervising equipment on the other hand, characterized in that it comprises - N ports whereof M ports are electrically insulated by an opto-electronic coupler, with N being an integer greater than or equal to 1, and M being an integer between N-1 and N, - a radio frequency interface with matched supervising equipment, - a processor performing a protocol conversion between the radio frequency protocol on the one hand and the protocol of the ports, on the other hand, and in that the radio frequency interface comprises one or more interface(s) implementing a transmission protocol with a small radius of action, and in that it comprises means for automatically converting a proprietary or standard profile used by a wired peripheral device to a standard profile used by a virtual RF profile associated with the wired peripheral device, and in that it comprises means for masking disconnection phases of a wired peripheral device while maintaining a virtual peripheral device on a RF interface. - N ports whereof M ports are electrically insulated by an opto-electronic coupler, with N being an integer greater than or equal to 1, and M being an integer between N-1 and N, - a radio frequency interface with matched supervising equipment, - a processor performing a protocol conversion between the radio frequency protocol on the one hand and the protocol of the ports, on the other hand,
A device for determining wheel and/or axle loads and/or total weights of road vehicles travelling on roads with a road surfacing with a measuring section consisting of several measuring fields, each of which is provided with at least one force detector arranged in a hollow element as mechanical protection, wherein the force detectors are connected to a data processing system, and possibly also detectors for wheels and/or axles and/or vehicles are provided in the areas in front of and behind the measuring section, wherein the hollow element is formed by two shanks (12, 16), connected to each other in a sprung manner along their longitudinal edges, to which the force detector(s) is/are connected, characterised in that the shanks are either non-positively connected via a single longitudinal side crosspiece, or the shanks are connected at one end and form an angular hollow element.
Blow molding tool for a blow molding machine, in particular an extrusion blow-molding tool, comprising at least one first blow mold half and one second blow mold half, wherein the first blow mold half comprises a baseplate and a molding body, wherein at least one mold cavity with an inner wall is arranged in the molding body, characterized in that at least one region of the inner wall of the mold cavity comprises, in its associated section of the molding body, separate temperature control channels for controlling the temperature of the region. particular an extrusion blow-molding tool, comprising at least one first blow mold half and one second blow mold half, wherein the first blow mold half comprises a baseplate and a molding body, wherein at least one mold cavity with an inner wall is arranged in the molding body, characterized in that at least one region of the inner wall of the mold cavity comprises, in its associated section of the molding body, separate temperature control channels for controlling the temperature of the region.
A system comprising: an implantable medical device that delivers a therapy to a patient; and a programming device that controls the implantable medical device to deliver the therapy to the patient according to each of a plurality of programs during a current programming session, record rating information for each of the plurality of therapy programs tested during the current programming session, wherein information identifying the programs and rating information associated with the programs for all of the programs tested during the current programming session as a session log for that session; and wherein the programming device receives a selection of a subset of the programs, provides the selected subset of the programs to the implantable medical device, and provides information identifying the tested programs and rating information associated with the tested programs to the implantable medical device, wherein the implantable medical device stores information identifying the subset of programs provided by the programming device to the implantable medical device and rating information associated with the subset of programs received from the programming device as a programming history for the patient, said programming history including information identifying programs tested on the patient during at least one prior programming session, and wherein the implantable medical device stores the programming history provided by the programming device, characterised in that the implantable medical device further stores said session log. an implantable medical device that delivers a therapy to a patient; and a programming device that controls the implantable medical device to deliver the therapy to the patient according to each of a plurality of programs during a current programming session, record rating information for each of the plurality of therapy programs tested during the current programming session, wherein information identifying the programs and rating information associated with the programs for all of the programs tested during the current programming session as a session log for that session; and wherein the programming device receives a selection of a subset of the programs, provides the selected subset of the programs to the implantable medical device, and provides information identifying the tested programs and rating information associated with the tested programs to the implantable medical device, wherein the implantable medical device stores information identifying the subset of programs provided by the programming device to the implantable medical device and rating information associated with the subset of programs received from the programming device as a programming history for the patient, said programming history including information identifying programs tested on the patient during at least one prior programming session, and wherein the implantable medical device stores the programming history provided by the programming device, characterised in that the implantable medical device further stores said session log.
A cryotherapy system for ablating tissue in a target region at an internal surface of a body lumen by cryogenic fluid, comprising, an elongated tubular cryotherapy device (10, 1002) having a proximal end and a distal end (1021, 1113) shaped and sized to be positioned inside a body lumen, comprising: a cryo inflow path (133, 1006) within said elongated tubular cryotherapy device (10, 1002), fluidically connecting a cryogenic fluid source with at least one forward facing cryo opening at said distal end (1021, 1113) of said cryotherapy device (10, 1002), wherein said cryo inflow path (133, 1006) is configured to allow cryogenic fluid flow from said cryogenic fluid source, and to direct said cryogenic fluid at said target region within said body lumen through said cryo opening; an optics assembly configured to visualize a field of view between said optics assembly and said target region inside said body lumen; a washing inflow path within said elongated tubular cryotherapy device (10, 1002), fluidically connecting a washing fluid source with at least one sideways washing opening at said elongated therapy device distal end configured to aim washing fluid towards one or both of said optics assembly and said field of view, and at least one front washing opening at said elongated therapy device distal end. a cryo inflow path (133, 1006) within said elongated tubular cryotherapy device (10, 1002), fluidically connecting a cryogenic fluid source with at least one forward facing cryo opening at said distal end (1021, 1113) of said cryotherapy device (10, 1002), wherein said cryo inflow path (133, 1006) is configured to allow cryogenic fluid flow from said cryogenic fluid source, and to direct said cryogenic fluid at said target region within said body lumen through said cryo opening; an optics assembly configured to visualize a field of view between said optics assembly and said target region inside said body lumen; a washing inflow path within said elongated tubular cryotherapy device (10, 1002), fluidically connecting a washing fluid source with at least one sideways washing opening at said elongated therapy device distal end configured to aim washing fluid towards one or both of said optics assembly and said field of view, and at least one front washing opening at said elongated therapy device distal end.
A central lubrication distribution system, in particular on a thermoforming machine having a programmable logic controller, for supplying the lubrication points (6a-f, 7a-f) with a lubricant, a lubrication distributor, supplied by a lubricant source, being connected to the individual consumers via lubricant lines (4a-f, 5a-f), which are constructed with a pressure switch and have a shut-off valve both at their end facing the lubrication distributor and at their end facing the consumer (6a-f, 7a-f), characterized in that each lubricant line (4a-f, 5a-f) is constructed as a closed system with non-return valves (10, 11) as shut-off valves, wherein first and second pressure switches (12, 13) assigned to each lubricant line (4a-f, 5a-f) monitor the minimum and maximum pressure in the lubricant lines (4a-f, 5a-f), and wherein the non-return valves assigned to the lubrication distributor are arranged upstream of the pressure switches (12, 13) in the direction of flow of the lubrication distributor and the non-return valves assigned to the consumers are arranged downstream of the pressure switches (12, 13) and wherein the distributor-side non-return valves and the consumer-side non-return valves are open during a lubrication interval for supplying the consumers (6a-f, 7a-f) with the lubricant and are closed outside of the lubrication intervals for pressure monitoring of the lubricant lines (4a-f, 5a-f).
Electrolyte composition comprising: - a fluorinated solvent, - lithium bis(fluorosulfonyl)imide; and - at least one electrolyte salt. wherein the fluorinated solvent is an acyclic carboxylic acid ester represented by the formula: R 1 -COO-R 2 wherein i) R 1 is an alkyl group; ii) R 2 is a fluoroalkyl group; and iii) R 1 and R 2, taken as a pair, comprise at least two carbon atoms but not more than seven carbon atoms. - a fluorinated solvent, - lithium bis(fluorosulfonyl)imide; and - at least one electrolyte salt. i) R 1 is an alkyl group; ii) R 2 is a fluoroalkyl group; and iii) R 1 and R 2, taken as a pair, comprise at least two carbon atoms but not more than seven carbon atoms.