mhurhangee/ep-ind-claims huggingface dataset:
A circuit comprising: a power semiconductor module (100; 200) comprising: a plurality of semiconductor devices (110, 120; 211-216), each semiconductor device comprising a semiconductor die having a collector, an emitter, and a gate (116, 126; 220), and being arranged for transitioning into a short-circuit failure mode, SCFM, in the event of a failure of the semiconductor device, a collector terminal being arranged for collectively connecting the collectors of the plurality of semiconductor devices to external circuit components, an emitter terminal being arranged for collectively connecting the emitters of the plurality of semiconductor devices to external circuit components, and a high-voltage unit arranged to detect the transitioning of any of the semiconductor devices into SCFM and supply, a high-voltage pulse to the gate of at least one of the other semiconductor devices of the plurality of semiconductor devices, wherein the high-voltage unit is arranged to supply the high voltage pulse in response to a failing semiconductor device of the plurality of semiconductor devices transitioning into an SCFM, characterised in that said high voltage pulse being set to cause an excessive current through the semiconductor die of the at least one of the other semiconductor devices resulting in the transitioning of the device into SCFM. a plurality of semiconductor devices (110, 120; 211-216), each semiconductor device comprising a semiconductor die having a collector, an emitter, and a gate (116, 126; 220), and being arranged for transitioning into a short-circuit failure mode, SCFM, in the event of a failure of the semiconductor device, a collector terminal being arranged for collectively connecting the collectors of the plurality of semiconductor devices to external circuit components, an emitter terminal being arranged for collectively connecting the emitters of the plurality of semiconductor devices to external circuit components, and a high-voltage unit arranged to detect the transitioning of any of the semiconductor devices into SCFM and supply, a high-voltage pulse to the gate of at least one of the other semiconductor devices of the plurality of semiconductor devices, wherein the high-voltage unit is arranged to supply the high voltage pulse in response to a failing semiconductor device of the plurality of semiconductor devices transitioning into an SCFM, characterised in that said high voltage pulse being set to cause an excessive current through the semiconductor die of the at least one of the other semiconductor devices resulting in the transitioning of the device into SCFM.
A tangible media embodying computer readable code instructions for performing a method for vibration mitigation during a robotic surgery with a system comprising a patient side cart including a moveable manipulator and a processor configured to control the manipulator and performing the method of the tangible media, the method comprising: receiving a requested action, wherein the requested action comprises a change in a velocity or a position of the manipulator; establishing a command position corresponding to a current position for the manipulator; calculating a smoothing curve made of one or more step values that are iteratively calculated, wherein each step value is calculated according to a simulated damping system, wherein the simulated damping system comprises a system mass representing a mass of the manipulator, a first mass interacting with the system mass and connected to a second mass via a first dashpot, and a second dashpot connecting the first mass to ground, wherein each step value is a position or a velocity of the first mass or the second mass; setting a new command position for the manipulator based on the calculated one or more step values of the smoothing curve; and moving the manipulator according to the new command position. receiving a requested action, wherein the requested action comprises a change in a velocity or a position of the manipulator; establishing a command position corresponding to a current position for the manipulator; calculating a smoothing curve made of one or more step values that are iteratively calculated, wherein each step value is calculated according to a simulated damping system, wherein the simulated damping system comprises a system mass representing a mass of the manipulator, a first mass interacting with the system mass and connected to a second mass via a first dashpot, and a second dashpot connecting the first mass to ground, wherein each step value is a position or a velocity of the first mass or the second mass; setting a new command position for the manipulator based on the calculated one or more step values of the smoothing curve; and moving the manipulator according to the new command position.
A breaking device for breaking a closing element of a medical container, comprising: - an operating arrangement comprising an operating device and an operating element connected to the operating device, - a breaking element connected to the operating element and particularly adapted to break the closing element of the medical container, wherein the breaking device further comprises: - a support plate, - a housing arranged movable with respect to the support plate according to a predetermined axial direction (X-X), the operating element being arranged in the housing, and - a first actuator arrangement connected to the support plate and interacting with the housing to selectively move the housing along said predetermined axial direction (X-X) so as to selectively position the breaking element in a breaking position with the closing element of the medical container. - an operating arrangement comprising an operating device and an operating element connected to the operating device, - a breaking element connected to the operating element and particularly adapted to break the closing element of the medical container, - a support plate, - a housing arranged movable with respect to the support plate according to a predetermined axial direction (X-X), the operating element being arranged in the housing, and - a first actuator arrangement connected to the support plate and interacting with the housing to selectively move the housing along said predetermined axial direction (X-X) so as to selectively position the breaking element in a breaking position with the closing element of the medical container.
A system comprising a syringe (4012', 4012") and an injector having a syringe retaining mechanism for retaining said syringe (4012', 4012"), the syringe (4012', 4012") comprising: a body comprising a rearward end (4022', 4022") and a forward end; a plunger movably disposed within the body; at least one attachment member (4044', 4048") associated with the body; and at least one release member (4050', 4030"); characterized in that the syringe retaining mechanism includes a flexible ring (4026', 4044"), the at least one attachment member (4044', 4048") cooperates with the flexible ring (4026', 4044") of the syringe retaining mechanism to releasably attach the syringe (4012', 4012") to the injector; and the at least one release member (4050', 4030") is operable to cause deformation of the flexible ring (4026', 4044") to enable release of the syringe (4012', 4012") from attachment with the injector upon rotation of the syringe (4012', 4012") about its axis relative to the injector. a body comprising a rearward end (4022', 4022") and a forward end; a plunger movably disposed within the body; at least one attachment member (4044', 4048") associated with the body; and at least one release member (4050', 4030");
Blocking element for a blockingdevice having a base body, a housing surrounding the base body and a threaded nut arranged in a mounting of the base body, characterised in that an insert embedded in the housing and made of a wear-resistant material is arranged between the base body and the threaded nut.
A needle safety device, comprising: a needle hub (1.2); a needle (1.3) having a distal tip (1.3.1) and a needle shield (1.1) telescopically coupled to the needle hub (1.2), the needle shield (1.1) including a first aperture (1.1.2) for allowing the needle (1.3) to pass through, characterised in that the needle hub (1.2) includes an axial stem (1.2.4) having one or more grooves and in that the needle safety device comprises an inner sleeve (1.4) rotatably coupled to the needle shield (1.1) and including a second aperture (1.4.2) for allowing the needle (1.3) to pass through, the inner sleeve (1.4) including one or more resilient arms (1.4.3) adapted to engage the groove (1.2.5), wherein, in a first axial position and a first angular position, the needle shield (1.1) covers the distal tip (1.3.1) of the needle (1.3) and the first aperture (1.1.2) is aligned with the second aperture (1.4.2), wherein, in a second axial position, the distal tip (1.3.1) of the needle (1.3) is through the first aperture (1.1.2) and the second aperture (1.4.2) and extends distally beyond the needle shield (1.1), and wherein, in a third axial position and a second angular position, the needle shield (1.1) covers the distal tip (1.3.1) of the needle (1.3) and the first aperture (1.1.2) is not aligned with the second aperture (1.4.2). a needle hub (1.2); a needle (1.3) having a distal tip (1.3.1) and a needle shield (1.1) telescopically coupled to the needle hub (1.2), the needle shield (1.1) including a first aperture (1.1.2) for allowing the needle (1.3) to pass through, characterised in that the needle hub (1.2) includes an axial stem (1.2.4) having one or more grooves and in that the needle safety device comprises an inner sleeve (1.4) rotatably coupled to the needle shield (1.1) and including a second aperture (1.4.2) for allowing the needle (1.3) to pass through, the inner sleeve (1.4) including one or more resilient arms (1.4.3) adapted to engage the groove (1.2.5), wherein, in a first axial position and a first angular position, the needle shield (1.1) covers the distal tip (1.3.1) of the needle (1.3) and the first aperture (1.1.2) is aligned with the second aperture (1.4.2), wherein, in a second axial position, the distal tip (1.3.1) of the needle (1.3) is through the first aperture (1.1.2) and the second aperture (1.4.2) and extends distally beyond the needle shield (1.1), and wherein, in a third axial position and a second angular position, the needle shield (1.1) covers the distal tip (1.3.1) of the needle (1.3) and the first aperture (1.1.2) is not aligned with the second aperture (1.4.2).
A welding device having a power source arranged in a housing and a cooling device arranged in a housing for cooling a welding torch, wherein an electrical connection is provided between the power source and the cooling device, and the electrical connection between the power source and the cooling device is formed by a plugging connection having at least two plugging parts (26, 27) that include corresponding contacts (28, 29), wherein at least one plugging part of the plugging connection is connected to the power source and at least one plugging part of the plugging connection is connected to the cooling device, so when the power source is arranged on the cooling device, the plugging parts (26, 27) of the plugging connection are connected automatically, characterised in that at least live contacts of the at least one plugging part connected to the power source are deactivated when disconnecting the at least two plugging parts (26, 27) of the plugging connection by connecting at least each of the live contacts of the at least one plugging part connected to the power source to two switches arranged on top of one another and being connected in series, and one switch of the switches connected in series is operable when connecting the plugging parts (26, 27) of the plugging connection by at least one actuating element arranged on the at least one plugging part that is arranged on the top of the housing of the cooling device, which actuation of the switch may be relayed to the switch arranged on top thereof.
A transparent light emitting device display, comprising: a transparent substrate; at least two light emitting devices provided on the transparent substrate; and a first common electrode wiring unit, a second common electrode wiring unit, and a signal electrode wiring unit provided on the transparent substrate, wherein the first common electrode wiring unit, the second common electrode wiring unit, and the signal electrode wiring unit comprise a metal mesh pattern, and the metal mesh pattern is provided in a region having an area of 80% or more of an entire area of an upper surface of the transparent substrate, the at least two light emitting devices are serially connected with the signal electrode wiring unit, the metal mesh pattern is formed of parallel wires parallel to the serial connection direction and vertical wires vertical to the parallel wires, and a ratio of a closing ratio of the parallel wires per unit area expressed by Equation 2 to a closing ratio of the vertical wires per unit area expressed by Equation 1 is 1.5 to 10: Closing ratio % of vertical wires per unit area = W 1 / P 1 × 100 Closing ratio % of parallel wires per unit area = W 2 / P 2 × 100 In Equations 1 and 2, W1 is a line width of the vertical wire, PI is pitch of the vertical wire, W2 is a line width of the parallel wire, and P2 is pitch of the parallel wire. a transparent substrate; at least two light emitting devices provided on the transparent substrate; and a first common electrode wiring unit, a second common electrode wiring unit, and a signal electrode wiring unit provided on the transparent substrate, wherein the first common electrode wiring unit, the second common electrode wiring unit, and the signal electrode wiring unit comprise a metal mesh pattern, and the metal mesh pattern is provided in a region having an area of 80% or more of an entire area of an upper surface of the transparent substrate, the at least two light emitting devices are serially connected with the signal electrode wiring unit, the metal mesh pattern is formed of parallel wires parallel to the serial connection direction and vertical wires vertical to the parallel wires, and a ratio of a closing ratio of the parallel wires per unit area expressed by Equation 2 to a closing ratio of the vertical wires per unit area expressed by Equation 1 is 1.5 to 10: Closing ratio % of vertical wires per unit area = W 1 / P 1 × 100 Closing ratio % of parallel wires per unit area = W 2 / P 2 × 100 In Equations 1 and 2, W1 is a line width of the vertical wire, PI is pitch of the vertical wire, W2 is a line width of the parallel wire, and P2 is pitch of the parallel wire.
Mobile rotary drive for a wind rotor of a wind power plant having a frame comprising a drive wheel for driving a segment of a rotor shaft of the wind power plant and a drive set, which drives the drive wheel in rotation as a drive pinion, characterized in that the drive wheel is a friction wheel and interacts with a contact pressure device in such a way that the contact pressure device produces a force which presses the friction wheel onto the segment with the result that the friction wheel can apply a drive torque to the segment through friction, wherein a torque support for supporting a counter-torque to the drive torque produced by the friction wheel is furthermore provided.
A blower unit for a chocolate coating machine for blowing off a part of the chocolate mass from confectionary products being coated by the chocolate mass, characterised in that the blower unit is designed to be controllable in an automated way for adjusting the temperature of the blowing off air by a change of the ratio between the partial volume flows forming the blowing off air, and the blower unit includes a suction apparatus for sucking in the partial volume flows, the suction apparatus including an actuator element having different positions, the ratio between the partial volume flows being designed to be adjustable by the positions of the actuator element.
An electronic apparatus, comprising: a window; a display panel disposed under the window; and a digitizer disposed under the display panel, the digitizer comprising: at least one photosensitive resin layer comprising a first surface (ZM-U, ZM-R) and a second surface (ZM-B, ZM-F) opposite to the first surface (ZM-U, ZM-R); and a plurality of sensing coils (RF1-1...RF2-3, CF1-1...CF2-3) disposed inside the at least one photosensitive resin layer, wherein the first surface (ZM-U, ZM-R) is less rough compared with the second surface (ZM-B, ZM-F), and the first surface (ZM-U, ZM-R) is disposed more adjacent to the window than the second surface (ZM-B, ZM-F). a window; a display panel disposed under the window; and a digitizer disposed under the display panel, the digitizer comprising: at least one photosensitive resin layer comprising a first surface (ZM-U, ZM-R) and a second surface (ZM-B, ZM-F) opposite to the first surface (ZM-U, ZM-R); and a plurality of sensing coils (RF1-1...RF2-3, CF1-1...CF2-3) disposed inside the at least one photosensitive resin layer, wherein the first surface (ZM-U, ZM-R) is less rough compared with the second surface (ZM-B, ZM-F), and the first surface (ZM-U, ZM-R) is disposed more adjacent to the window than the second surface (ZM-B, ZM-F). at least one photosensitive resin layer comprising a first surface (ZM-U, ZM-R) and a second surface (ZM-B, ZM-F) opposite to the first surface (ZM-U, ZM-R); and a plurality of sensing coils (RF1-1...RF2-3, CF1-1...CF2-3) disposed inside the at least one photosensitive resin layer, wherein the first surface (ZM-U, ZM-R) is less rough compared with the second surface (ZM-B, ZM-F), and the first surface (ZM-U, ZM-R) is disposed more adjacent to the window than the second surface (ZM-B, ZM-F).
A compound represented by the following formula, wherein in the general formula, R 1 and R 2 each independently represent a substituted or an unsubstituted alkyl group, R 3 represents an unsubstituted alkyl group or a substituted or an unsubstituted aryl group, R 4 represents an unsubstituted alkyl group, R 5 represents a substituted or an unsubstituted alkyl group, a substituted or an unsubstituted aryl group, or a substituted or an unsubstituted acyl group, R 6 represents an unsubstituted alkyl group or an alkoxy group, and n represents an integer of 0 to 5, wherein when n is an integer of 2 to 5, a plurality of R 6 's are the same or different from each other. wherein in the general formula, R 1 and R 2 each independently represent a substituted or an unsubstituted alkyl group, R 3 represents an unsubstituted alkyl group or a substituted or an unsubstituted aryl group, R 4 represents an unsubstituted alkyl group, R 5 represents a substituted or an unsubstituted alkyl group, a substituted or an unsubstituted aryl group, or a substituted or an unsubstituted acyl group, R 6 represents an unsubstituted alkyl group or an alkoxy group, and n represents an integer of 0 to 5, wherein when n is an integer of 2 to 5, a plurality of R 6 's are the same or different from each other.
A wind turbine 110 comprising a rotor 125, a nacelle 120, a support structure for the nacelle and at least one wind sensing apparatus mounted on the support structure, wherein the support structure comprises a tower 115 and the wind sensing apparatus comprises at least one light detection and ranging (LIDAR) apparatus 105, and characterized in that the at least one light detection and ranging (LIDAR) apparatus 105 is mounted on the support structure substantially near the base of the tower 115.
Catalyst apparatus for reducing pollutants in an offgas, comprising at least one layer (80, 81, 82) of a deNOx catalyst for decreasing nitrogen oxides and at least one layer of an oxidation catalyst for decreasing carbon monoxide located downstream of the deNOx catalyst, wherein the at least one layer (80, 81, 82) of the deNOx catalyst and the at least one layer of the downstream oxidation catalyst each have a multiplicity of flow channels, characterized in that the length (l 4) of the at least one layer of the oxidation catalyst is smaller than the length (l 3) of a directly preceding layer of the deNOx catalyst and the at least one layer of the oxidation catalyst has a greater number of flow channels than the first layer of the deNOx catalyst.
A separator, comprising: a non-woven fabric substrate obtained from fibers and having multiple pores formed between the fibers; and a polymer coating layer formed on a part or the whole of the surface of the fiber strands which form the non-woven fabric substrate, wherein the polymer coating layer comprises a polymer selected from the group consisting of polyamideimides having a tensile strength of 80 to 133 MPa, a tensile modulus of 3,000 to 7800 MPa and a flexural modulus of 3,000 to 7300 MPa. a non-woven fabric substrate obtained from fibers and having multiple pores formed between the fibers; and a polymer coating layer formed on a part or the whole of the surface of the fiber strands which form the non-woven fabric substrate, wherein the polymer coating layer comprises a polymer selected from the group consisting of polyamideimides having a tensile strength of 80 to 133 MPa, a tensile modulus of 3,000 to 7800 MPa and a flexural modulus of 3,000 to 7300 MPa.
A construction machine including an internal combustion engine controlled based on a torque command, an electric motor mechanically connected to the internal combustion engine, an electric energy storage device that supplies electric power to the electric motor, and a hydraulic pressure generator, the construction machine performing work by driving the hydraulic pressure generator using the internal combustion engine and the electric motor, characterized in that the construction machine comprises: first control means that controls a speed of the electric motor based on a speed command; and second control means that obtains the torque command having a rate of change with time limited based on a torque target. first control means that controls a speed of the electric motor based on a speed command; and second control means that obtains the torque command having a rate of change with time limited based on a torque target.
A trash can having an injection-molded plastic body comprising side walls (3, 4, 5, 6) and a base, which are arranged relative to one another in such a way that together they delimit a cavity having an opening opposite the base, in which two side walls (3, 4, 5, 6) facing one another each merge integrally into one another in a common corner region (11, 12, 13, 14) and in which a stand strip is arranged on a bottom surface of the base facing away from the cavity, said stand strip extending at least partially along the edges (27, 28, 29) of the bottom surface and having bent stand strip short sections (30, 31) at some of the common corner regions (11, 12, 13, 14), to which stand strip long sections (32, 33, 34) attach, wherein the curved stand strip short sections (30, 31) are at least partially disconnected from the stand strip long sections (32, 33, 34) by cutouts (35, 36, 37, 38), characterized in that each curved stand strip short section (30, 31) is disconnected by two cutouts (35, 36, 37, 38).