mhurhangee/ep-ind-claims huggingface dataset:
Exchange device for a traction battery of an industrial truck which is operated electrically by battery and has a receiving surface onto which the traction battery can be placed, wherein the exchange device can be inserted together with the traction battery into a battery compartment of the industrial truck and the exchange device has rollers which can be lowered below the receiving surface by lifting means and by means of which the traction battery can be raised together with the exchange device to such an extent that the exchange device can be moved out of the battery compartment in a rolling manner on a carriageway surface, characterized in that a control arrangement of the exchange device is configured to actuate the lifting means depending on a signal from sensor means which can detect a relative lifting height of the exchange device in relation to the industrial truck, wherein the sensor means can detect a lifting height in relation to a base plate of a battery compartment of the industrial truck.
A compound having the formula: wherein: Y is: X is -CH 2 -, -C(CH 3)H-, or -C(CH 2 CH 3)H-; R 1 is hydrogen, hydroxy, or halo; R 2 is hydrogen, halo, -CN, -CH 3, CF 3, or -OCH 3; or a pharmaceutically acceptable salt thereof. Y is: X is -CH 2 -, -C(CH 3)H-, or -C(CH 2 CH 3)H-; R 1 is hydrogen, hydroxy, or halo; R 2 is hydrogen, halo, -CN, -CH 3, CF 3, or -OCH 3; or a pharmaceutically acceptable salt thereof.
A coil terminal, comprising: a winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) which is configured so that an end of coiled wire is wound around the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) and then the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) is bent relative to a remaining section of the coil terminal; the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) having a pair of, proximal and distal wire engagement portions spaced away from each other in a longitudinal direction of the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173), characterised in that the wire end being extended along a surface in a region ranging from the proximal wire engagement portion to the distal wire engagement portions without being wound around the region, wherein the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) is bent relative to the remaining section by applying a bending force on a surface different from that along which the wire end is extended from the proximal to distal wire engagement portions. a winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) which is configured so that an end of coiled wire is wound around the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) and then the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) is bent relative to a remaining section of the coil terminal; the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) having a pair of, proximal and distal wire engagement portions spaced away from each other in a longitudinal direction of the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173), characterised in that the wire end being extended along a surface in a region ranging from the proximal wire engagement portion to the distal wire engagement portions without being wound around the region, wherein the winding section (33, 103, 113, 123, 133, 143, 153, 163, 173) is bent relative to the remaining section by applying a bending force on a surface different from that along which the wire end is extended from the proximal to distal wire engagement portions.
A subsea unit (10; 12; 14; 16; 18) comprising a housing containing a dielectric liquid, a first heat generating component and a second heat generating component, wherein the first heat generating component is arranged in thermal conductive connection with the housing, and the second heat generating component is arranged at a distance from the housing, characterised in that the first heat generating component is arranged in thermal conductive connection with a side wall of the housing, and a side wall insulator is arranged to insulate said side wall apart from where the first heat generating component is arranged in thermal conductive connection with the side wall.
A slide rail assembly, comprising: a slide rail provided with a sliding chute having an upwardly opened notch and a stopper; a pulley device comprising a pulley and a mounting seat, the pulley being rotatably mounted on the mounting seat, and the pulley being hung over the sliding chute and movable along the sliding chute; and a limiter fixed on the mounting seat, wherein the limiter is provided with a limiting portion which is located below the stopper, and the stopper prevents the pulley from upwardly moving out of the sliding chute by limiting upward movement of the limiting portion; wherein the sliding chute and the stopper are located on the same side of the slide rail and the stopper is located above the sliding chute, characterised in that the slide rail is further provided with a guiding and limiting groove, and the limiter is further provided with a guiding and limiting portion, wherein the guiding and limiting portion extends into the guiding and limiting groove and is movable along the guiding and limiting groove, and a groove wall of the guiding and limiting groove limits the movement of the guiding and limiting portion along a width direction of the sliding chute; and in that the guiding and limiting groove is located at the top of the slide rail, the limiting portion and the guiding and limiting portion are both located on the same side of the limiter, and the limiting portion is located below the guiding and limiting portion. a slide rail provided with a sliding chute having an upwardly opened notch and a stopper; a pulley device comprising a pulley and a mounting seat, the pulley being rotatably mounted on the mounting seat, and the pulley being hung over the sliding chute and movable along the sliding chute; and a limiter fixed on the mounting seat, wherein the limiter is provided with a limiting portion which is located below the stopper, and the stopper prevents the pulley from upwardly moving out of the sliding chute by limiting upward movement of the limiting portion; wherein the sliding chute and the stopper are located on the same side of the slide rail and the stopper is located above the sliding chute, characterised in that the slide rail is further provided with a guiding and limiting groove, and the limiter is further provided with a guiding and limiting portion, wherein the guiding and limiting portion extends into the guiding and limiting groove and is movable along the guiding and limiting groove, and a groove wall of the guiding and limiting groove limits the movement of the guiding and limiting portion along a width direction of the sliding chute; and in that the guiding and limiting groove is located at the top of the slide rail, the limiting portion and the guiding and limiting portion are both located on the same side of the limiter, and the limiting portion is located below the guiding and limiting portion.
Device for transporting and selectively pre-crosslinking a material web extruded from a rubber composition comprising: - an irradiating chamber with an electron beam source, - a running-through belt, arranged at the irradiating chamber and having a load side led through the irradiating chamber, - a bypass conveyor, arranged underneath the irradiating chamber, - a feeding device, which is arranged ahead of the irradiating chamber with respect to the transporting direction (P 1) and can be pivoted into a position leading to the running-through belt and into a position leading to the bypass conveyor, and characterized by - a transporting-away device, which is arranged after the irradiating chamber with respect to the transporting direction (P 1) and can be pivoted into a position leading to the running-through belt and into a position leading to the bypass conveyor. - an irradiating chamber with an electron beam source, - a running-through belt, arranged at the irradiating chamber and having a load side led through the irradiating chamber, - a bypass conveyor, arranged underneath the irradiating chamber, - a feeding device, which is arranged ahead of the irradiating chamber with respect to the transporting direction (P 1) and can be pivoted into a position leading to the running-through belt and into a position leading to the bypass conveyor, and characterized by - a transporting-away device, which is arranged after the irradiating chamber with respect to the transporting direction (P 1) and can be pivoted into a position leading to the running-through belt and into a position leading to the bypass conveyor.
A manufacturing method for manufacturing a component (201, 403, 501, 600, 600), in which a component (201, 403, 501, 600) is coated onto a substrate in an additive production process, wherein a warpage compensator (207, 209, 503, 609) is detachably arranged on the component (201, 403, 501, 600), so as to block a proper motion of the component (201, 403, 501, 600) caused by thermal warpage, wherein the detachable arrangement of the warpage compensator (207, 209, 503, 609) on the component (201, 403, 501, 600) comprises a form-fit, but not material connection and/or the detachable arrangement of the warpage compensator (207, 209, 503, 609) on the component (201, 403, 501, 600) is configured in such a way that the warpage compensator (207, 209, 503, 609) is arranged spaced apart from the component (201, 403, 501, 600), and wherein the warpage compensator (207, 209, 503, 609) is arranged on the component (201, 403, 501, 600) in such a way that the proper motion of the component (201, 403, 501, 600) is blocked at least in the direction of an x-axis that runs horizontally to the substrate. in which a component (201, 403, 501, 600) is coated onto a substrate in an additive production process, wherein a warpage compensator (207, 209, 503, 609) is detachably arranged on the component (201, 403, 501, 600), so as to block a proper motion of the component (201, 403, 501, 600) caused by thermal warpage, wherein the detachable arrangement of the warpage compensator (207, 209, 503, 609) on the component (201, 403, 501, 600) comprises a form-fit, but not material connection and/or the detachable arrangement of the warpage compensator (207, 209, 503, 609) on the component (201, 403, 501, 600) is configured in such a way that the warpage compensator (207, 209, 503, 609) is arranged spaced apart from the component (201, 403, 501, 600), and wherein the warpage compensator (207, 209, 503, 609) is arranged on the component (201, 403, 501, 600) in such a way that the proper motion of the component (201, 403, 501, 600) is blocked at least in the direction of an x-axis that runs horizontally to the substrate.
Aerosol-generating system, comprising an aerosol-generating device, a cartridge comprising a liquid agent, the cartridge being configured for being detachably connected to the aerosol-generating device and an aerosol-generating article, the aerosol-generating device comprising: a cavity for receiving the aerosol-generating article comprising an aerosol-forming substrate, and a heating element being configured to heat the aerosol-generating article received ir the cavity, the heating element comprising a compartment wall, characterised in that a first part of the compartment wall is located in the cavity and further characterised in that a second part of the compartment wall extends outside the cavity, wherein the second part of the compartment wall is configured to interact with the cartridge. an aerosol-generating device, a cartridge comprising a liquid agent, the cartridge being configured for being detachably connected to the aerosol-generating device and an aerosol-generating article, the aerosol-generating device comprising: a cavity for receiving the aerosol-generating article comprising an aerosol-forming substrate, and a heating element being configured to heat the aerosol-generating article received ir the cavity, the heating element comprising a compartment wall, characterised in that a first part of the compartment wall is located in the cavity and further characterised in that a second part of the compartment wall extends outside the cavity, wherein the second part of the compartment wall is configured to interact with the cartridge. a cavity for receiving the aerosol-generating article comprising an aerosol-forming substrate, and a heating element being configured to heat the aerosol-generating article received ir the cavity, the heating element comprising a compartment wall, characterised in that a first part of the compartment wall is located in the cavity and further characterised in that a second part of the compartment wall extends outside the cavity, wherein the second part of the compartment wall is configured to interact with the cartridge.
Safety device for a personal fall protection, said safety device comprising an anchoring member to which the personal fall protection can be coupled directly or indirectly, and further comprising fastening means for a firm and durable connection to an at least local covering of an object, said fastening means comprising a flexible fastening flap which extends laterally from said safety device, wherein during use said flexible fastening flap is glued, welded or otherwise adhered to the local covering of the object to render the firm and durable connection to the object, and said fastening means further comprising a screw member (20,21) which is adapted and intended to penetrate below the covering of the object, characterized in that said screw member (20, 21) is a flange-like screw member comprising at least one disc-like winding which at least practically spiralizes on a longitudinal axis.
A haptic interface system comprising: - a shell which may be manipulated by a user; - an actuator mechanically coupled to the shell and apt to provide a haptic stimulus on a fingertip of the user; - a motor assembly (10,12,14,20) configured to move the actuator with three degrees of freedom; characterized in that the shell is configured to be moved on a reference surface (S ref) by the user, said haptic interface system further comprising: - a memory unit configured to store a virtual three-dimensional surface; - a localization system (80,82,102,104) configured to determine the position and orientation of the shell with respect to the reference surface (S ref); and - a control stage (70,104); and wherein the control stage (70,104) includes: - a selection unit configured to select a point of the virtual three-dimensional surface, as a function of the position of the shell on the reference surface (S ref), the selected virtual point having a respective height, and the virtual three-dimensional surface having a respective inclination at the selected virtual point; and - an actuation unit (70,104) configured to control the motor assembly (10,12,14,20) so as to: - arrange the actuator at a height, with respect to the reference surface (S ref), which is a function of the height of the selected virtual point; and - tilt the actuator with respect to the reference surface (S ref), as a function of said respective inclination of the virtual three-dimensional surface; and wherein the control stage (70,104) is further configured to control the motor assembly (10,12,14,20) so as to move the actuator in an invariant manner with respect to the orientation of the shell. - a shell which may be manipulated by a user; - an actuator mechanically coupled to the shell and apt to provide a haptic stimulus on a fingertip of the user; - a motor assembly (10,12,14,20) configured to move the actuator with three degrees of freedom; - a memory unit configured to store a virtual three-dimensional surface; - a localization system (80,82,102,104) configured to determine the position and orientation of the shell with respect to the reference surface (S ref); and - a control stage (70,104); and - a selection unit configured to select a point of the virtual three-dimensional surface, as a function of the position of the shell on the reference surface (S ref), the selected virtual point having a respective height, and the virtual three-dimensional surface having a respective inclination at the selected virtual point; and - an actuation unit (70,104) configured to control the motor assembly (10,12,14,20) so as to: - arrange the actuator at a height, with respect to the reference surface (S ref), which is a function of the height of the selected virtual point; and - tilt the actuator with respect to the reference surface (S ref), as a function of said respective inclination of the virtual three-dimensional surface;
Method for operating a two-stroke Otto engine comprising at least one cylinder which receives a piston, comprising a crank housing which is fluidically connected via overflow channels (12, 13, 14, 15, 16) to the combustion chamber of the cylinder on both sides of a diameter plane of the cylinder which is determined by the axis of an outlet channel, and comprising two injection nozzles (6, 7) for fuel which are arranged on both sides of the diameter plane and of which the nozzle axes extend in the bottom dead centre position of the piston above the piston crown and at least approximately in the outflow direction (17, 18) of the overflow channels (12, 14; 13, 15) which are each provided on the opposite side of the diameter plane, wherein the fuel is injected during idling and in the lower partial load range per working cycle only via one of the injection nozzles (6, 7), wherein the nozzle axes of the two injection nozzles (6, 7) intersect on the side of the cylinder axis, remote from the outlet channel, in the diameter plane, characterised in that the two injection nozzles are designed as low pressure nozzles and multi-hole nozzles, and in that the fuel is injected through the injection nozzle (6, 7), which is activated during idling and in the lower partial load range, in a crank angle range, in which the piston crown moves below the intersection point of the nozzle axes, with reduced momentum into the combustion chamber of the cylinder such that the fuel injected into the combustion chamber is entrained with the fresh air, which is blown in via the overflow channels (12, 14; 13, 15), thus being intimately mixed with the fresh air streams, away from the piston crown towards the cylinder head.
An integrated circuit system comprising: a ring oscillator comprising a first plurality of logic gates connected in a ring configuration in which an output of each except a last of the plurality of logic gates is used as an input for a next one of the plurality of logic gates, the output of the last of the plurality of logic gates being fed back to and used as an input for a first of the plurality of logic gates; a second plurality of logic gates configured to implement a heater configured to generate a controlled amount of heat, the second plurality of logic gates also being configured to implement a temperature sensor configured to measure a temperature of the ring oscillator; and one or more logic circuits (105, 106) coupled to the heater and the temperature sensor, and configured to control the heater to heat the ring oscillator only until the temperature of the ring oscillator is one of a plurality of predefined temperatures, during or after which the ring oscillator is configured to start and operate. a ring oscillator comprising a first plurality of logic gates connected in a ring configuration in which an output of each except a last of the plurality of logic gates is used as an input for a next one of the plurality of logic gates, the output of the last of the plurality of logic gates being fed back to and used as an input for a first of the plurality of logic gates; a second plurality of logic gates configured to implement a heater configured to generate a controlled amount of heat, the second plurality of logic gates also being configured to implement a temperature sensor configured to measure a temperature of the ring oscillator; and one or more logic circuits (105, 106) coupled to the heater and the temperature sensor, and configured to control the heater to heat the ring oscillator only until the temperature of the ring oscillator is one of a plurality of predefined temperatures, during or after which the ring oscillator is configured to start and operate.
A loudspeaker diaphragm having a portion affixed with a coil and having a shape extending in a longitudinal direction, comprising: an edge portion located outside of the portion affixed with the coil; and a center portion located inside of the portion affixed with the coil; wherein the center portion is provided with a plurality of ribs, the edge portion has a convex portion having a protruding shape in cross section, the plurality of ribs each have a height lower than a height of the convex portion of the edge portion in cross section, the convex portion of the edge portion is provided along an outer rim of the coil, and the plurality of ribs are provided so as to extend along a lateral direction perpendicular to the longitudinal direction of the loudspeaker diaphragm. an edge portion located outside of the portion affixed with the coil; and a center portion located inside of the portion affixed with the coil; wherein the center portion is provided with a plurality of ribs, the edge portion has a convex portion having a protruding shape in cross section, the plurality of ribs each have a height lower than a height of the convex portion of the edge portion in cross section, the convex portion of the edge portion is provided along an outer rim of the coil, and the plurality of ribs are provided so as to extend along a lateral direction perpendicular to the longitudinal direction of the loudspeaker diaphragm.
Oscillating motor, particularly for an oscillation exciter for construction machines, having an oscillating motor housing, which is rotatably arranged on an oscillating motor shaft, wherein at least two pressure chambers for supplying a hydraulic oil are arranged, via which the oscillating motor is operable, characterised in that the oscillating motor shaft is provided with an axial hole, into which a torque proof arranged lance extends, through which axially at least two ducts for supplying the oscillating motor with oil are guided, which lead to ring grooves, which are in at least some areas circumferentially inserted at a distance to each other outside at the lance, wherein in the oscillating motor shaft radial holes for connecting the at least two ring grooves of the lance with the at least two pressure chambers are inserted, wherein the fit between the lance and the axial hole of the oscillating motor shaft in the area of the ring grooves of the lance is a narrow slide bearing.