mhurhangee/ep-ind-claims huggingface dataset:
User equipment, characterized by comprising: a receiving unit, configured to receive first resource configuration information from a base station, wherein the first resource configuration information indicates N radio resource sets that are used when N radio communication nodes separately perform communication with the user equipment, N is a positive integer, a radio resource in each radio resource set among the N radio resource sets is used for the radio communication node corresponding to each radio resource set to schedule the user equipment, and the radio resource comprises a time domain resource and/or a frequency domain resource; and a controlling unit, configured to control the receiving unit to communicate with a transmission point by using a radio resource in respective radio resource sets of transmission points, wherein the respective radio resource sets of the transmission points do not intersect, the respective radio resource sets of the transmission points comprise the N radio resource sets, and the transmission points comprise the N radio communication nodes. a receiving unit, configured to receive first resource configuration information from a base station, wherein the first resource configuration information indicates N radio resource sets that are used when N radio communication nodes separately perform communication with the user equipment, N is a positive integer, a radio resource in each radio resource set among the N radio resource sets is used for the radio communication node corresponding to each radio resource set to schedule the user equipment, and the radio resource comprises a time domain resource and/or a frequency domain resource; and a controlling unit, configured to control the receiving unit to communicate with a transmission point by using a radio resource in respective radio resource sets of transmission points, wherein the respective radio resource sets of the transmission points do not intersect, the respective radio resource sets of the transmission points comprise the N radio resource sets, and the transmission points comprise the N radio communication nodes.
An electrical machine comprising: a shaft (106,110); and a stator comprising: at least one stator winding; characterized in that the electrical machine comprises at least one auxiliary winding proximate said at least one stator winding, said at least one stator winding and said at least one auxiliary winding defining a cavity within said stator, said shaft (106, 110) configured to be positioned at least partially within the cavity, said at least one auxiliary winding configured to alternately energize and de-energize to alternately apply and remove, respectively, a corrective torque to said shaft (106, 110) to dampen torsional oscillations thereof. a shaft (106,110); and a stator comprising: at least one stator winding; characterized in that the electrical machine comprises at least one auxiliary winding proximate said at least one stator winding, said at least one stator winding and said at least one auxiliary winding defining a cavity within said stator, said shaft (106, 110) configured to be positioned at least partially within the cavity, said at least one auxiliary winding configured to alternately energize and de-energize to alternately apply and remove, respectively, a corrective torque to said shaft (106, 110) to dampen torsional oscillations thereof. at least one stator winding; characterized in that the electrical machine comprises at least one auxiliary winding proximate said at least one stator winding, said at least one stator winding and said at least one auxiliary winding defining a cavity within said stator, said shaft (106, 110) configured to be positioned at least partially within the cavity, said at least one auxiliary winding configured to alternately energize and de-energize to alternately apply and remove, respectively, a corrective torque to said shaft (106, 110) to dampen torsional oscillations thereof.
Method for assisted, partially automated, highly automated, fully automated or driverless driving of a motor vehicle, by means of at least one control unit for navigation and trajectory planning of an assisted, partially automated, highly automated, fully automated or driverless journey of the motor vehicle, and a plurality of subsystems (4 - 7), wherein the subsystems (4 - 7) implement driving dynamics requirements of the control unit, wherein at least one subsystem (4 - 7) is assigned a monitoring function by means of which the functionality of the subsystem (4 - 7) is determined, wherein the monitoring function transmits a currently possible performance capability to the control unit, wherein the control unit adapts the navigation and trajectory planning depending on the transmitted performance capability such that the assisted, partially automated, highly automated, fully automated or driverless journey can be continued despite a reduced performance capability, wherein the subsystems are a service brake system, a parking brake system, a steering system, a drive system and a transmission system, wherein, in the event of a transmitted reduced performance capability of a subsystem, the control unit prepares at least one further system such that this at least partially supports the subsystem, wherein a retarder and/or an exhaust brake and/or a recuperative braking of an electric machine is prepared in the event of a reduced performance capability of the service brake system, characterized in that road portions having predetermined characteristics are no longer taken into account in the navigation planning, wherein a predetermined characteristic is a gradient greater than a limit value. the monitoring function transmits a currently possible performance capability to the control unit, wherein the control unit adapts the navigation and trajectory planning depending on the transmitted performance capability such that the assisted, partially automated, highly automated, fully automated or driverless journey can be continued despite a reduced performance capability, wherein the subsystems are a service brake system, a parking brake system, a steering system, a drive system and a transmission system, wherein, in the event of a transmitted reduced performance capability of a subsystem, the control unit prepares at least one further system such that this at least partially supports the subsystem, wherein a retarder and/or an exhaust brake and/or a recuperative braking of an electric machine is prepared in the event of a reduced performance capability of the service brake system, characterized in that road portions having predetermined characteristics are no longer taken into account in the navigation planning, wherein a predetermined characteristic is a gradient greater than a limit value.
An SMA actuation apparatus comprising: a support structure; a movable element supported on the support structure in a manner allowing movement of the movable element relative to the support structure; and eight SMA actuator wires, divided in two groups of four SMA actuator wires, wherein: two SMA actuator wires are located on each of four sides around a notional primary axis, the four sides extending in a loop around said notional primary axis; the two SMA actuators on each of the four sides are inclined with respect to said primary axis; the SMA actuator wires of each of the two groups of four SMA actuator wires are arranged with a 2-fold rotational symmetry about the primary axis; characterised in that the SMA actuator wires are connected between the movable element and the support structure so that one of the two groups of four SMA actuator wires provides a force on the movable element with a component in a first direction along the primary axis and the other of the two groups of four SMA actuator wires provides a force on the movable element with a component in a second direction along the primary axis, opposite to the first direction. a support structure; a movable element supported on the support structure in a manner allowing movement of the movable element relative to the support structure; and eight SMA actuator wires, divided in two groups of four SMA actuator wires, wherein: two SMA actuator wires are located on each of four sides around a notional primary axis, the four sides extending in a loop around said notional primary axis; the two SMA actuators on each of the four sides are inclined with respect to said primary axis; the SMA actuator wires of each of the two groups of four SMA actuator wires are arranged with a 2-fold rotational symmetry about the primary axis; characterised in that the SMA actuator wires are connected between the movable element and the support structure so that one of the two groups of four SMA actuator wires provides a force on the movable element with a component in a first direction along the primary axis and the other of the two groups of four SMA actuator wires provides a force on the movable element with a component in a second direction along the primary axis, opposite to the first direction. two SMA actuator wires are located on each of four sides around a notional primary axis, the four sides extending in a loop around said notional primary axis; the two SMA actuators on each of the four sides are inclined with respect to said primary axis; the SMA actuator wires of each of the two groups of four SMA actuator wires are arranged with a 2-fold rotational symmetry about the primary axis; characterised in that the SMA actuator wires are connected between the movable element and the support structure so that one of the two groups of four SMA actuator wires provides a force on the movable element with a component in a first direction along the primary axis and the other of the two groups of four SMA actuator wires provides a force on the movable element with a component in a second direction along the primary axis, opposite to the first direction.
A wind turbine blade having a blade shell body made of a composite material, said composite material comprising reinforcement fibers and a thermoset resin, said wind turbine blade comprising a tip end and a root end, as well as a leading edge and a trailing edge, said wind turbine blade comprising a thermoplastic material integrated in the shell body, said thermoplastic material being comprised in at least a part of the outer surface of the wind turbine blade, wherein said thermoplastic material is configured to act as anchoring site (61, 63, 68) for attachment of at least one additional surface mounted device (71, 73), wherein the wind turbine blade further comprises at least one surface mounted device (71, 73) attached to the anchoring site (61, 63, 68) of the wind turbine blade.
A method of characterizing an object that includes, at least locally, a plane of symmetry, wherein emitting and receiving ultrasound transducers (100, 200) positioned on a common axis are shifted, while emitting ultrasound by the emitting ultrasound transducer and observing, by the receiving ultrasound transducer, transmitted ultrasound (A, B, C) by said object, each observation being performed on an axis perpendicular to the plane of symmetry, each observation resulting from an emission of ultrasound generated along a respective one of said axes and meeting the object along said axis at an incidence (θ 1) other than normal, the ultrasound meeting the object in such a manner as to follow a path that is symmetrical relative to the plane of symmetry, at least two waves being observed among the longitudinal, transverse, and Rayleigh waves created by the emitted ultrasound, by observing two amplitude maximums of the measured signals, the travel time associated to said maximums of each ultrasound wave being analyzed in order to characterize the object.
A method for establishing a cloud bridge between a first virtual storage resource and a second virtual storage resource for transmitting data from one of either the first virtual storage resource and the second virtual storage resource to the other of the first virtual storage resource and the second virtual storage resource, the method comprising: receiving, by a storage delivery management service executing within a first virtual storage resource provisioned on at least one storage system comprising one or more hardware devices, user credentials of a user; enumerating a list of storage adapters associated with the user responsive to receiving the user credentials; invoking, by the storage delivery management service responsive to receiving the user credentials, a storage adapter identified in the enumerated list of storage adapters associated with the user; executing, via an interface for the invoked storage adapter, an instruction to identify a second virtual storage resource provisioned on at least one storage system comprising one or more hardware devices, wherein the interface comprises an interface translation file mapping each of a plurality of proprietary management profile formats to a standardized management profile format; accessing, by the storage delivery management service via the storage adapter, the second virtual storage resource; and establishing, by the storage delivery management service, a cloud bridge between the first virtual storage resource and the second virtual storage resource using management profile information stored in a format proprietary to the second virtual storage resource, the information translated by the storage adapter using the interface translation file. receiving, by a storage delivery management service executing within a first virtual storage resource provisioned on at least one storage system comprising one or more hardware devices, user credentials of a user; enumerating a list of storage adapters associated with the user responsive to receiving the user credentials; invoking, by the storage delivery management service responsive to receiving the user credentials, a storage adapter identified in the enumerated list of storage adapters associated with the user; executing, via an interface for the invoked storage adapter, an instruction to identify a second virtual storage resource provisioned on at least one storage system comprising one or more hardware devices, wherein the interface comprises an interface translation file mapping each of a plurality of proprietary management profile formats to a standardized management profile format; accessing, by the storage delivery management service via the storage adapter, the second virtual storage resource; and establishing, by the storage delivery management service, a cloud bridge between the first virtual storage resource and the second virtual storage resource using management profile information stored in a format proprietary to the second virtual storage resource, the information translated by the storage adapter using the interface translation file.
An energy storage device comprising an electrode assembly, a current collector (140, 150), and a case (100; 110, 111) accommodating the electrode assembly and the current collector (140, 150), wherein the case (100; 110, 111) has an inner surface provided with a recess, and a portion connecting the electrode assembly and the current collector (140, 150) or a portion connecting a conductive member (145, 155) connected to the electrode assembly and the current collector (140, 150) is at least partially disposed opposite to the recess via a lower insulating member, wherein the electrode assembly includes a main body portion and a tab (410, 420) projecting from the main body portion, and the tab (410, 420) is connected to the current collector (140, 150) or the conductive member (145, 155), characterised in that the recess is provided at the inner surface of the case (100; 110, 111) towards which the tab (410, 420) projects.
Solenoid valve having an armature pin which is mounted in at least one bearing (17a, 17b) and which interacts with a fluid valve, wherein the bearing (17a, 17b) is connected to a fluid-conducting region of the fluid valve via a connection which is embodied as an inlet bore made in a solenoid valve housing, wherein a fluid outlet which is connected in terms of flow to the bearing (17a, 17b) is arranged in an extension of the armature pin, and wherein the at least one bearing (17a, 17b) is arranged between the connection and the fluid outlet and is forcibly flowed through at least intermittently, characterized in that the fluid outlet is controlled by the armature pin in such a way that, in a blocking position, the armature pin blocks entry of fluid into the fluid outlet and, in an open position, enables entry of fluid into said fluid outlet, wherein, in the open state of the fluid valve, in which the solenoid valve is in an electrically deenergized state, the armature pin blocks the entry of fluid into the fluid outlet.
A water-based breaker fluid, comprising: an aqueous fluid; a water soluble polar organic solvent; an ester of formic acid present in an amount ranging from 20 to 50 volume percent of the breaker fluid; and a weighting agent. an aqueous fluid; a water soluble polar organic solvent; an ester of formic acid present in an amount ranging from 20 to 50 volume percent of the breaker fluid; and a weighting agent.
A composition comprising: - a composite particle comprising a polymer containing an unsaturated carboxylic acid monomer unit and, dispersed in the polymer, an inorganic nitride particle; and - a fluorine-containing elastomer having a cyano group at a terminal of a main chain and/or in a side chain. - a composite particle comprising a polymer containing an unsaturated carboxylic acid monomer unit and, dispersed in the polymer, an inorganic nitride particle; and - a fluorine-containing elastomer having a cyano group at a terminal of a main chain and/or in a side chain.
A water-absorbent sheet structure comprising a structure in which an absorbent layer comprising a water-absorbent resin and an adhesive is sandwiched with nonwoven fabrics from an upper side and a lower side of the absorbent layer, wherein the water-absorbent resin is contained in an amount of from 100 to 1,000 g/m 2, characterised in that the water-absorbent resin is evenly dispersed in the absorbent layer, the water-absorbent resin has a water-retention capacity of saline solution of from 15 to 50 g/g, as measured according to the method described in the description, and the water-absorbent sheet structure has a peeling strength of from 0.05 to 3.0 N/7 cm, as measured according to the method described in the description.
A bale wrap mechanism for use with a roll of wrap material, the bale wrap mechanism comprising: a frame including a wrap chute formed from one or more perimeter walls, wherein the wrap chute defines a wrap axis extending longitudinally therethrough, and wherein the one or more perimeter walls at least partially define a passageway; a wrap arm coupled to the frame, the wrap arm having a mounting point movable with respect to the frame; and a shaft coupled to the mounting point and configured to support a roll of wrap material thereon, wherein the shaft is configured to travel along a wrap path during a wrapping process, wherein the wrap path surrounds the passageway, and wherein the wrap path is non-circular in shape characterized in that the wrap arm includes a first wrapping arm having a first end pivotably coupled to the frame and a second end opposite the first end; a slider slidably coupled to the first wrapping arm and defining the mounting point, wherein the slider is movable with respect to the first wrapping arm between the first end and the second end of the first wrapping arm. a frame including a wrap chute formed from one or more perimeter walls, wherein the wrap chute defines a wrap axis extending longitudinally therethrough, and wherein the one or more perimeter walls at least partially define a passageway; a wrap arm coupled to the frame, the wrap arm having a mounting point movable with respect to the frame; and a shaft coupled to the mounting point and configured to support a roll of wrap material thereon, wherein the shaft is configured to travel along a wrap path during a wrapping process, wherein the wrap path surrounds the passageway, and wherein the wrap path is non-circular in shape characterized in that the wrap arm includes a first wrapping arm having a first end pivotably coupled to the frame and a second end opposite the first end; a slider slidably coupled to the first wrapping arm and defining the mounting point, wherein the slider is movable with respect to the first wrapping arm between the first end and the second end of the first wrapping arm.
Fixing unit suitable to be mounted in a non-circular opening of a plate, for example the wall of a fence post, the fixing unit comprising: - an inner part with an abutment surface of non-circular outer contour; - a connecting bolt arranged to protrude from the abutment surface, having an external thread, and connected to the inner part; - an anti-rotation device which engages with the inner part; wherein - the abutment surface of the fixing unit is formed by radial extensions projecting radially outwardly from a circle; and wherein A) the anti-rotation device is formed by an outer part which can be brought into engagement with the inner part; the outer part has at least one axial extension which extends parallel to the connecting bolt and can be brought into engagement with the inner part; and the axial extension is arranged adjacent to a radial extension in the use state of the fixing unit; or B) the anti-rotation device is formed by axial projections on the radial extensions, the axial projections in the state of use of the fixing unit remaining in extensions of the non-circular openings, in order to prevent a rotation of the inner part about its own axis. - an inner part with an abutment surface of non-circular outer contour; - a connecting bolt arranged to protrude from the abutment surface, having an external thread, and connected to the inner part; - an anti-rotation device which engages with the inner part; wherein - the abutment surface of the fixing unit is formed by radial extensions projecting radially outwardly from a circle; and wherein A) the anti-rotation device is formed by an outer part which can be brought into engagement with the inner part; the outer part has at least one axial extension which extends parallel to the connecting bolt and can be brought into engagement with the inner part; and the axial extension is arranged adjacent to a radial extension in the use state of the fixing unit; or B) the anti-rotation device is formed by axial projections on the radial extensions, the axial projections in the state of use of the fixing unit remaining in extensions of the non-circular openings, in order to prevent a rotation of the inner part about its own axis. A) the anti-rotation device is formed by an outer part which can be brought into engagement with the inner part; the outer part has at least one axial extension which extends parallel to the connecting bolt and can be brought into engagement with the inner part; and the axial extension is arranged adjacent to a radial extension in the use state of the fixing unit; or B) the anti-rotation device is formed by axial projections on the radial extensions, the axial projections in the state of use of the fixing unit remaining in extensions of the non-circular openings, in order to prevent a rotation of the inner part about its own axis.
Device to collect particulate material in an isolator, whereby the air settings in the isolator are controlled via a fan outside the isolator or via an in-house exhaust air system and both the supply air to and the exhaust air from the isolator is routed via the filters and, characterised in that a suction hose with nozzle and a product filter, HEPA filter (8, 9) and compressed air filter are located in the isolator and a vacuum cleaner is installed outside the isolator, whereby the suction air required between the isolator, product filter, HEPA filter (8, 9), vacuum cleaner and compressed-air filter is routed in circuit.