mhurhangee/ep-ind-claims huggingface dataset:
Method for supporting a driver of a commercial vehicle trailer combination, wherein a tractor vehicle of the commercial vehicle trailer combination comprises an optical measurement device by means of which the position of at least one measurement line that can be formed on a front top surface of a trailer/semitrailer of the commercial vehicle trailer combination when viewed in the vehicle's longitudinal direction (x) is determined, wherein at least one static and/or dynamic characteristic variable of the commercial vehicle trailer combination is determined from the position of the measurement line, and wherein an external contour of the top surface is of essentially rectangular form, characterized in that the measurement line is oriented parallel to or congruent with at least one vertical edge of the external contour of the top surface extending in the vehicle's vertical direction (z), in order to determine the height of the trailer/semitrailer, and/or the measurement line is oriented such that it intersects both a transverse edge (19, 21), extending in the vehicle's lateral direction (y), as well as a vertical edge, extending in the vehicle's vertical direction (z), of the external contour of the top surface in order to determine the relative yaw angle (α) between the tractor vehicle and the trailer/semitrailer and/or the height of the trailer/semitrailer and/or the width of the trailer/semitrailer.
A device for processing plastics, in particular thermosetting polyurethane, wherein at least two components which cause a crosslinking or reaction are mixed with one another, comprising a processing unit containing a cylinder, in which a screw is held such as to be able to rotate, wherein the cylinder has at least one filling opening (4, 6) and one outlet opening, and comprising a mould containing a cavity for receiving and curing the mixed components, wherein the processing unit is designed as an injection moulding unit having an injection nozzle, through which the plasticized injection moulding compound consisting of the first component and the second component is injected into the cavity of the mould, wherein the cylinder of the injection moulding unit has at least one second filling opening for supplying the second component, wherein the screw of the cylinder is connected to a metering unit (11, 36) via a mechanical coupling unit in such a way that the quantity of the second component introduced through the second filling opening is metered as a function of an axial length of the screw, wherein the metering unit has a double-acting metering cylinder with a coupling rod on both sides on the one hand and a valve unit on the other hand, via which the double-acting metering cylinder is connected to a reservoir of the second component and to the second filling opening of the injection moulding unit, characterized in that the metering unit (11, 36) has a piston rod and a piston, wherein the piston rod is rigidly and/or fixedly connected to the screw of the injection moulding unit via the mechanical coupling unit, in that the valve unit comprises four directional control valves so that two connections (A, B) of the metering cylinder which are assigned to the reservoir and two connections (A', B') of the metering cylinder which are assigned to the second filling opening are respectively coupled to the reservoir or to the second filling opening via a directional control valve (16, 17, 18, 19), in that the connections (A, B; A', B') of the metering cylinder which are assigned to the reservoir and to the second filling opening are each arranged at opposite ends of said metering cylinder, and in that the directional control valves (16, 17, 18, 19) of the metering unit are actuated in such a way that, by virtue of the axial movement of the piston rod towards a first end of the metering cylinder and towards a second end of the metering cylinder, which is brought about by means of the mechanical coupling unit, the second component located in a chamber arranged in front of the piston in the movement direction is pushed out to the second filling opening and a portion of the second component located in the reservoir is sucked into the chamber arranged behind the piston in the movement direction.
Arrangement for connecting a first electrical conductor to a second electrical conductor, having a press-on adapter which has a receptacle for the first conductor and at least one press-on member which can be actuated from outside, and having a housing-like finger-proof protection with a receptacle for the second conductor, the finger-proof protection being insertable into a chamber of the press-on adapter along an insertion direction and having at least one contacting slot running parallel to the insertion direction which exposes an interior of the finger-proof protection for contacting to the outside, characterized in that the at least one press-on member has an actuating section electrically insulated from the rest of the press-on member for actuating the press-on member, and in that the finger-proof protection is closed at a front end pointing in the insertion direction.
A mixing system for a gas turbine combustor arrangement, the mixing system comprising a lobed mixer and a wall (40, 42) enclosing a fluid flow path, wherein the lobed mixer is arranged in the wall (40, 42) between a first part of the wall and a second part of the wall, wherein the first part of the wall and the second part of the wall are spaced apart in the direction of a lobed mixer axis, wherein the lobed mixer comprises outer lobes, inner lobes and lobe sidewalls connecting the outer lobes and the inner lobes, wherein the lobed mixer extends in a circumferential direction around the lobed mixer axis, the outer lobes being arranged in a ring around the lobed mixer axis and the inner lobes being arranged in a smaller ring which is closer to the lobed mixer axis than the ring of the outer lobes, and wherein the lobed mixer extends in a circumferential direction from an upstream end to a trailing edge (20, 21, 22); characterized in that the distance between adjacent outer lobes is less than the circumferential width of the inner lobes.
An aerosol generating device (10; 110; 210) configured to operate with an aerosol generating substrate and comprising: - a device body (30; 130; 230) extending along a device axis and defining at least one side wall (40; 140; 240) extending along the device axis; - a cup-shaped heating chamber defining an open end and a sealed end opposite to the open end, the sealed end being air impermeable, the heating chamber being configured to receive a heater part of the aerosol generating substrate through the open end; - an airflow path extending between a flow inlet (66; 166; 266) and an flow outlet (64; 164; 264) through the open end of the heating chamber, wherein the airflow path comprises an upstream portion extending from the flow inlet (66; 166; 266) until an abutting end of the aerosol generating substrate, and a downstream portion extending from said abutting end until the flow outlet (64; 164; 264) through the aerosol generating substrate, when the aerosol generating substrate is inserted into the heating chamber, characterized in that the flow inlet (66; 166) is arranged on the side wall (40; 140; 240) of the device body (30; 130; 230). - a device body (30; 130; 230) extending along a device axis and defining at least one side wall (40; 140; 240) extending along the device axis; - a cup-shaped heating chamber defining an open end and a sealed end opposite to the open end, the sealed end being air impermeable, the heating chamber being configured to receive a heater part of the aerosol generating substrate through the open end; - an airflow path extending between a flow inlet (66; 166; 266) and an flow outlet (64; 164; 264) through the open end of the heating chamber, wherein the airflow path comprises an upstream portion extending from the flow inlet (66; 166; 266) until an abutting end of the aerosol generating substrate, and a downstream portion extending from said abutting end until the flow outlet (64; 164; 264) through the aerosol generating substrate, when the aerosol generating substrate is inserted into the heating chamber, characterized in that the flow inlet (66; 166) is arranged on the side wall (40; 140; 240) of the device body (30; 130; 230).
A drive circuit for driving at least one of a plurality of actuators (1, 2) of a printhead from a common drive waveform, and having: a switching circuit for coupling the common drive waveform to provide a drive pulse to a selected at least one of the actuators (1, 2), and a timing circuit coupled to receive a trimming signal, characterised in that the timing circuit has a control output coupled to control the switching circuit so as to form the drive pulse from at least part of a pulse in the common drive waveform, and so as to trim the drive pulse by controlling, according to the trimming signal, a duration of a step at an intermediate level in the drive pulse. a switching circuit for coupling the common drive waveform to provide a drive pulse to a selected at least one of the actuators (1, 2), and a timing circuit coupled to receive a trimming signal, characterised in that the timing circuit has a control output coupled to control the switching circuit so as to form the drive pulse from at least part of a pulse in the common drive waveform, and so as to trim the drive pulse by controlling, according to the trimming signal, a duration of a step at an intermediate level in the drive pulse.
A method of generating an innervated muscle construct, comprising seeding smooth muscle cells and neural progenitor cells onto a matrix material in a mold, having a central post; culturing the seeded cells in the mold that guides the smooth muscle cells to form an innervated smooth muscle cell construct of directionally oriented smooth muscle cells; and disposing the innervated muscle construct around a tubular scaffold.
A method of generating a customised finite element mesh for a component which is an actual example of a nominal component represented by a generic finite element mesh, the actual component displaying shape variation relative to the generic finite element mesh, the method including steps of: providing the generic finite element mesh comprising a plurality of nodes; providing a library of displacement shapes of the generic mesh, each displacement shape generating a corresponding altered mesh which has characteristic length scales for any curvatures introduced by its alteration which are greater than the corresponding characteristic lengths of the elements of the generic mesh; providing a set of scanned data points which map the surface of the actual component, each scanned data point defining the spatial position of a respective location on the surface of the actual component; superposing the scanned data points on the surface of the generic mesh; projecting the scanned data points onto respective proximal surface locations of the generic mesh to form a set of near data points, each near data point defining the spatial position of the respective location on the surface of the generic mesh; determining a combination of the displacement shapes which substantially removes the shape variation by reducing or eliminating deviations between scanned data points and their corresponding near data points; and applying the combination of displacement shapes to the generic mesh to morph the mesh and thereby generate a customised finite element mesh for the actual component. providing the generic finite element mesh comprising a plurality of nodes; providing a library of displacement shapes of the generic mesh, each displacement shape generating a corresponding altered mesh which has characteristic length scales for any curvatures introduced by its alteration which are greater than the corresponding characteristic lengths of the elements of the generic mesh; providing a set of scanned data points which map the surface of the actual component, each scanned data point defining the spatial position of a respective location on the surface of the actual component; superposing the scanned data points on the surface of the generic mesh; projecting the scanned data points onto respective proximal surface locations of the generic mesh to form a set of near data points, each near data point defining the spatial position of the respective location on the surface of the generic mesh; determining a combination of the displacement shapes which substantially removes the shape variation by reducing or eliminating deviations between scanned data points and their corresponding near data points; and applying the combination of displacement shapes to the generic mesh to morph the mesh and thereby generate a customised finite element mesh for the actual component.
An electronic module, suitable for being at least partially embedded in a data carrier body of a portable data carrier, comprising a module contacting device for electroconductive connection of the module to an elastic, electroconductive material of the data carrier, wherein the module contacting device is configured in such a spatially structured fashion that it is suitable, upon the embedding of the module in the data carrier body, for embossing a spatial structure in the elastic, electroconductive material under the application of pressure, characterized in that the module contacting device is configured flatly and a contact surface of the module contacting device facing the elastic material upon embedding is spatially structured by recesses (27; 28; 29), wherein at least some of the recesses (27; 28) taper in the direction of the side of the contact surface facing the elastic material upon embedding.
A system for feathering an aircraft propeller having coupled thereto an actuator for setting a blade pitch of the propeller, the blade pitch controlled by modulating a supply of hydraulic fluid to the actuator, the system comprising: a first feather solenoid and a second feather solenoid each comprising at least one solenoid coil (311, 321, 312, 322) and a solenoid valve (313, 323) for coupling to the actuator and coupled to the at least one solenoid coil (311, 321, 312, 322); and at least one controller, characterised in that: the at least one controller is configured to selectively energize and de-energize each at least one solenoid coil (311, 321, 312, 322), the solenoid valve of the first feather solenoid configured to be activated when the at least one solenoid coil (311, 312) of the first feather solenoid is energized and the solenoid valve of the second feather solenoid configured to be activated when the at least one solenoid coil (321, 322) of the second feather solenoid is de-energized, each solenoid valve (313, 323) configured to, when activated, modulate the supply of hydraulic fluid to the actuator for adjusting the blade pitch of the propeller towards a feather position. a first feather solenoid and a second feather solenoid each comprising at least one solenoid coil (311, 321, 312, 322) and a solenoid valve (313, 323) for coupling to the actuator and coupled to the at least one solenoid coil (311, 321, 312, 322); and at least one controller,
A garment connector comprising: a connector body; one or more contacts held by the connector body; one or more conductive members (18, 48) held by the connector body and corresponding to the one or more contacts, and a connector fixation member in a sheet-like shape held by the connector body and extending to an exterior of the connector body, wherein each of the one or more conductive members includes an internal conductive portion disposed inside the connector body and connected to a corresponding one of the one or more contacts, and an external conductive portion (18B, 48B) disposed outside the connector body, at least a part of the external conductive portion extending along the connector fixation member, wherein the garment connector is adapted for being attached to a garment (21, 51) by fixing the connector fixation member to the garment at the exterior of the connector body, characterized in that each of the conductive members (18, 48) is fabricated into cloth form using conductive fibers and has conductivity and flexibility. a connector body; one or more contacts held by the connector body; one or more conductive members (18, 48) held by the connector body and corresponding to the one or more contacts, and a connector fixation member in a sheet-like shape held by the connector body and extending to an exterior of the connector body, wherein each of the one or more conductive members includes an internal conductive portion disposed inside the connector body and connected to a corresponding one of the one or more contacts, and an external conductive portion (18B, 48B) disposed outside the connector body, at least a part of the external conductive portion extending along the connector fixation member, wherein the garment connector is adapted for being attached to a garment (21, 51) by fixing the connector fixation member to the garment at the exterior of the connector body,
An aqueous solution containing carbohydrate for generating smoke, wherein the aqueous solution consists of 91.9-98.95wt% of pure water, 1-8wt% of carbohydrate, and 0.05-0.1wt% of a water soluble aromatic substance of orange flavor.
An apparatus of a radio access network, RAN, controller, comprising: a processor; and a device readable medium having instructions stored thereon that, when being executed by the one or more processors, cause the processor to: receive, from a base station, a media access control, MAC, user plane, UP, message via an interface, wherein the MAC UP message is associated with a MAC protocol data unit, PDU, to be transferred between the base station and a user equipment, UE, or with a channel condition between the base station and the UE, and wherein the MAC UP message comprises an interference over thermal, IOT, which indicates an uplink interference from a neighboring user equipment in a neighboring cell; generate a MAC control plane, CP, message, based at least in part on the MAC UP message, wherein the MAC CP message is associated with MAC layer multi-user scheduling or MAC layer multi-cell coordination; and transmit the MAC CP message to the base station via the interface. a processor; and a device readable medium having instructions stored thereon that, when being executed by the one or more processors, cause the processor to: receive, from a base station, a media access control, MAC, user plane, UP, message via an interface, wherein the MAC UP message is associated with a MAC protocol data unit, PDU, to be transferred between the base station and a user equipment, UE, or with a channel condition between the base station and the UE, and wherein the MAC UP message comprises an interference over thermal, IOT, which indicates an uplink interference from a neighboring user equipment in a neighboring cell; generate a MAC control plane, CP, message, based at least in part on the MAC UP message, wherein the MAC CP message is associated with MAC layer multi-user scheduling or MAC layer multi-cell coordination; and transmit the MAC CP message to the base station via the interface. receive, from a base station, a media access control, MAC, user plane, UP, message via an interface, wherein the MAC UP message is associated with a MAC protocol data unit, PDU, to be transferred between the base station and a user equipment, UE, or with a channel condition between the base station and the UE, and wherein the MAC UP message comprises an interference over thermal, IOT, which indicates an uplink interference from a neighboring user equipment in a neighboring cell; generate a MAC control plane, CP, message, based at least in part on the MAC UP message, wherein the MAC CP message is associated with MAC layer multi-user scheduling or MAC layer multi-cell coordination; and transmit the MAC CP message to the base station via the interface.
A process for electrolysis of water comprising the use of an electrode comprising at least one oxide material of the following general formula: A 2-x-y A' x A" y M 1-z M' z O 4+δ, where: A is a metal cation belonging to the group formed by lanthanides and/or alkali metals and/or alkaline-earth metals; A' is at least one metal cation belonging to the group formed by lanthanides and/or alkali metals and/or alkaline-earth metals; A" is a cationic vacancy, that is to say a cation A and/or cation A' vacancy; M is a metal belonging to the group formed by metals of transition elements; M' is at least one metal belonging to the group formed by metals of transition elements; said material being such that 0 < y < 0.30, preferably 0 < y < 0.20; 0 < δ < 0.25, preferably 0 < δ < 0.10; 0 ≤ x ≤ 1; and 0 ≤ z ≤ 1. A is a metal cation belonging to the group formed by lanthanides and/or alkali metals and/or alkaline-earth metals; A' is at least one metal cation belonging to the group formed by lanthanides and/or alkali metals and/or alkaline-earth metals; A" is a cationic vacancy, that is to say a cation A and/or cation A' vacancy; M is a metal belonging to the group formed by metals of transition elements; M' is at least one metal belonging to the group formed by metals of transition elements;
Means for aiding a person in bed to stand up, comprising a column (2, 2.1) with connection means for connecting it to a frame part (14, 18, 33) of a bed, and an upright rod, which in its position of use extends transverse to the longitudinal extension of the column (2, 2.1),is connected to the upper end of the column (2, 2.1), and can be pivoted in relation to it, wherein a blocking mechanism is formed in the jointed connection between the upright rod and the column (2, 2.1), which blocks one pivoting direction of the upright rod but allows for the opposed pivoting direction, or wherein the jointed connection is formed by such a blocking mechanism, wherein the blocking mechanism can be released or switched over for changing the blocking direction, characterised in that the upright rod is angled asymmetrically, and the limb of the angled upright rod further away from the connection of the upright rod to the column (2, 2.1) forms a gripping section to be gripped by a user for his use, which, when the other, shorter limb is aligned parallel to the edge of the bed, extends over the lying surface.
A method for exposing a contacting device (31, 32) of an electrical component in a data carrier body for a portable data carrier, wherein a recess (41, 42) is mechanically formed in the data carrier body in the region of the contacting device (31, 32) to be exposed, characterized in that the contacting device (31, 32) in the recess (41, 42) is exposed by means of a laser such that the surface of the contacting device (31, 32) is roughened.