mhurhangee/ep-ind-claims huggingface dataset:
Switchable cylindrical explosive charge of a warhead with a fragmenting casing and with a tubular holder, arranged within the explosive charge, for a multiplicity of pellets arranged in a distributed manner, a hollow space that extends along the principal axis of the explosive charge being provided in the explosive charge and having arranged therein at least one displaceably mounted ignition device (ZK 2) or, in the region of the principal axis, two stationary ignition devices (ZK 1, ZK 2), characterized in that arranged on an end face of the explosive charge that is at a distance from the at least one displaceably mounted ignition device (ZK 2) or the two stationary ignition devices (ZK 1, ZK 2) there are in the region of a circular line around the principal axis a multiplicity of projectile-forming or fragmenting charges that are arranged in a uniformly distributed manner, are aligned with the explosive charge between the hollow space and the tubular holder and can be ignited at a point in time (t 1) that can be set in relation to the igniting point in time (t 2) of the explosive charge; and the intensity of the ignited projectile-forming or fragmenting charges is limited to the deflagrative initiation of the explosive charge or the disintegration thereof.
Pharmaceutical composition characterized in that it comprises as a pharmaceutically active ingredient a phenolic compound of formula I: in free form, as a salt, hydrate or in crystalline form, together with one or more pharmaceutically acceptable excipients.
A high voltage system comprising: a container for enclosing an electrically insulating gas; an electrical device arranged within the container; and a cooling medium conveyor arranged at least partially within the container, characterized by said conveyor comprising: a first pipe (130, 210) for conveying a liquid cooling medium, and a second pipe (140, 212) disposed around the first pipe (130, 210) such that a channel for containing a ventilating gas is formed between an outside of the first pipe (130, 210) and an inside of the second pipe (140, 212), wherein the conveyor is arranged in thermal contact with said electrical device. a container for enclosing an electrically insulating gas; an electrical device arranged within the container; and a cooling medium conveyor arranged at least partially within the container, characterized by said conveyor comprising: a first pipe (130, 210) for conveying a liquid cooling medium, and a second pipe (140, 212) disposed around the first pipe (130, 210) such that a channel for containing a ventilating gas is formed between an outside of the first pipe (130, 210) and an inside of the second pipe (140, 212), wherein the conveyor is arranged in thermal contact with said electrical device. a first pipe (130, 210) for conveying a liquid cooling medium, and a second pipe (140, 212) disposed around the first pipe (130, 210) such that a channel for containing a ventilating gas is formed between an outside of the first pipe (130, 210) and an inside of the second pipe (140, 212),
Industrial truck having at least one electric motor (26, 29) for the traction drive and/or as a drive of an apparatus, wherein the electric motor (26, 29) is a synchronous reluctance machine, characterized in that phase windings of the synchronous reluctance machine are composed of aluminium and also are designed in the form of bars or rails.
A method for processing process data (P1, P2, P3) by data bus subscribers (7a, 7b,..., 7n) of a local bus, the method comprising: receiving at least two instruction lists (17, 18, 19) at a data bus subscriber (7a, 7b,..., 7n), each instruction list (17, 18, 19) comprising a set of instructions for processing process data (P1, P2, P3); storing the at least two instruction lists (17, 18, 19) in a memory; receiving an instruction list index, ILI, and process data (P1, P2, P3) to be processed at the data bus subscriber (7a, 7b,..., 7n); selecting one of the at least two stored instruction lists (17, 18, 19) based on the received ILI when the ILI is associated with the stored instruction list (17, 18, 19); and executing the set of instructions of the selected instruction list (17, 18, 19) for processing the process data (P1, P2, P3) by the data bus subscriber (7a, 7b,..., 7n). receiving at least two instruction lists (17, 18, 19) at a data bus subscriber (7a, 7b,..., 7n), each instruction list (17, 18, 19) comprising a set of instructions for processing process data (P1, P2, P3); storing the at least two instruction lists (17, 18, 19) in a memory; receiving an instruction list index, ILI, and process data (P1, P2, P3) to be processed at the data bus subscriber (7a, 7b,..., 7n); selecting one of the at least two stored instruction lists (17, 18, 19) based on the received ILI when the ILI is associated with the stored instruction list (17, 18, 19); and executing the set of instructions of the selected instruction list (17, 18, 19) for processing the process data (P1, P2, P3) by the data bus subscriber (7a, 7b,..., 7n).
A system for a vehicle comprising a rear windscreen, a rear windscreen wiper (26, 28), a rear-view mirror and/or a display screen showing a real-time video stream from a rear windscreen camera, the system comprising one or more tracking sensors and a control unit; the one or more tracking sensors being coupled to the control unit and being configured to monitor the behaviour of a driver of the vehicle and to issue data to the control unit, the control unit and/or the one or more tracking sensors being arranged to make a positive determination that said monitored behaviour is indicative of a requirement to look through the rear windscreen of the vehicle, wherein the control unit is configured to activate the rear windscreen wiper (26, 28) to wipe the rear windscreen and/or to activate a rear windscreen washer system in dependence on making each said positive determination, wherein the one or more tracking sensors are configured to track that the driver's gaze is being directed toward or is directed at the rear-view mirror and/or display screen and thereby make said positive determination that monitored behaviour is indicative of a requirement to look through the rear windscreen of the vehicle.
A secondary battery, comprising a positive electrode plate and a negative electrode plate, the positive electrode plate comprising a positive electrode current collector and a positive electrode film disposed on at least one surface of the positive electrode current collector and comprising a positive active material; the negative electrode plate comprising a negative electrode current collector and a negative electrode film disposed on at least one surface of the negative electrode current collector and comprising a negative electrode active material; characterized in that, the positive active material comprises one or more of lithium-containing phosphates with olivine structure and modified compounds thereof; the negative electrode active material comprises a mixture of artificial graphite and natural graphite, and the negative electrode plate satisfies 0.04 ≤ I 3R /I 2H ≤ 0.22, preferably 0.06≤I 3R /I 2H ≤0.18; and in which the I 3R is a peak intensity of an X-ray diffraction peak of a 3R-phase 012 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description, and the I 2H is a peak intensity of an X-ray diffraction peak of a 2H-phase 100 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description. characterized in that, the positive active material comprises one or more of lithium-containing phosphates with olivine structure and modified compounds thereof; the negative electrode active material comprises a mixture of artificial graphite and natural graphite, and the negative electrode plate satisfies 0.04 ≤ I 3R /I 2H ≤ 0.22, preferably 0.06≤I 3R /I 2H ≤0.18; and in which the I 3R is a peak intensity of an X-ray diffraction peak of a 3R-phase 012 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description, and the I 2H is a peak intensity of an X-ray diffraction peak of a 2H-phase 100 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description.
Screwing device, comprising - a storage container for screws with a screw head, a screw head drive and a threaded pin, - a robot manipulator with an effector adapted to the screw head and the screw head drive, designed and set up to pick up and handle such a screw, - a separation unit connected to the storage container, which provides screws from the storage container at an interface separated in such a way at a known position so that a respective screw head is accessible for the effector, - a control unit for controlling/regulating the robot manipulator, wherein the control unit is designed and set up for the execution of the following first control program: o The effector is guided by the robot manipulator along a specified trajectory T1 with a target orientation O soll,T1 (R T1) to the screw head of a screw provided at the interface, wherein, along the trajectory T1 for locations R T1 of trajectory T1, the target orientation O soll,T1 (R T1) of the effector is defined, wherein force-controlled or impedance-controlled or admittance-controlled rotational movements and/or tilting movements and/or translational movement patterns and/or power winder patterns of the effector are carried out for picking up the screw head into the effector via the robot manipulator until a provided force/torque signature or a position/speed signature on the effector is reached or exceeded, indicating that the effector has successfully completed picking up the screw within predefined tolerances. - a storage container for screws with a screw head, a screw head drive and a threaded pin, - a robot manipulator with an effector adapted to the screw head and the screw head drive, designed and set up to pick up and handle such a screw, - a separation unit connected to the storage container, which provides screws from the storage container at an interface separated in such a way at a known position so that a respective screw head is accessible for the effector, - a control unit for controlling/regulating the robot manipulator, wherein the control unit is designed and set up for the execution of the following first control program: o The effector is guided by the robot manipulator along a specified trajectory T1 with a target orientation O soll,T1 (R T1) to the screw head of a screw provided at the interface, wherein, along the trajectory T1 for locations R T1 of trajectory T1, the target orientation O soll,T1 (R T1) of the effector is defined, wherein force-controlled or impedance-controlled or admittance-controlled rotational movements and/or tilting movements and/or translational movement patterns and/or power winder patterns of the effector are carried out for picking up the screw head into the effector via the robot manipulator until a provided force/torque signature or a position/speed signature on the effector is reached or exceeded, indicating that the effector has successfully completed picking up the screw within predefined tolerances.
A razor handle comprising: a main body portion characterised by: first and second spaced-apart fingertip engaging surfaces (24, 26) adapted to be engageable with opposite sides of a user's fingertips; a grip portion interposed between the fingertip engaging surfaces; and a connector for connecting, in use, the main body portion to a razor cartridge, the connector arranged adjacent a forward edge of the first fingertip engaging surface; wherein the grip portion is substantially transverse to the finger engaging surfaces such that the cross section of the body portion is substantially Ishaped, wherein the first fingertip engaging surface extends forwardly from a rearmost edge and dips to form a first curved recess shaped to conform to the shape of the pad of the user's fingertip and rises to form a raised plateau portion at a forward edge adjacent the connector; and wherein the first and second fingertip engaging surfaces (24, 26) define a gap or opening in the razor handle adjacent the connector, the gap adapted to enable, in use, a user's finger or fingers to project beyond a forward periphery of the razor handle to engage the trailing edge of the razor cartridge. first and second spaced-apart fingertip engaging surfaces (24, 26) adapted to be engageable with opposite sides of a user's fingertips; a grip portion interposed between the fingertip engaging surfaces; and a connector for connecting, in use, the main body portion to a razor cartridge, the connector arranged adjacent a forward edge of the first fingertip engaging surface; wherein the grip portion is substantially transverse to the finger engaging surfaces such that the cross section of the body portion is substantially Ishaped, wherein the first fingertip engaging surface extends forwardly from a rearmost edge and dips to form a first curved recess shaped to conform to the shape of the pad of the user's fingertip and rises to form a raised plateau portion at a forward edge adjacent the connector; and wherein the first and second fingertip engaging surfaces (24, 26) define a gap or opening in the razor handle adjacent the connector, the gap adapted to enable, in use, a user's finger or fingers to project beyond a forward periphery of the razor handle to engage the trailing edge of the razor cartridge.
Loader assembly for dosing long pasta, comprising at least one descender and a dosing unit which provides dosing means, characterized in that the loader assembly comprises two descenders, the dosing unit comprises two rotors each provided with a cavity, and two motors able to independently control the rotation of the respective rotors, the dosing means of the dosing unit comprise two paddles and lever means able to connect a paddle to a respective rotor, wherein each descender feeds exclusively a respective rotor, wherein control means of the loader assembly are able to synchronize the position of the rotors and the position of the respective paddles which are able to move horizontally between a first position in which the respective descender is obstructed and a second position in which the long pasta is free to access an accumulation space of each descender comprised between the paddle and the rotor. characterized in that the loader assembly comprises two descenders, the dosing unit comprises two rotors each provided with a cavity, and two motors able to independently control the rotation of the respective rotors, the dosing means of the dosing unit comprise two paddles and lever means able to connect a paddle to a respective rotor, wherein each descender feeds exclusively a respective rotor, wherein control means of the loader assembly are able to synchronize the position of the rotors and the position of the respective paddles which are able to move horizontally between a first position in which the respective descender is obstructed and a second position in which the long pasta is free to access an accumulation space of each descender comprised between the paddle and the rotor.
A steel for high-strength springs excellent in cold workability and quality stability, consisting of: 0.35 to 0.65 percent by mass of C, 1.4 to 2.5 percent by mass of Si, 0.1 to 1.0 percent by mass of Mn, 0.2 to 2.0 percent by mass of Cr, 0.1 to 1.0 percent by mass of Ni, 0.1 to 1.0 percent by mass of Cu, 0.020 percent by mass or less, exclusive of 0 percent by mass, of P, 0.020 percent by mass or less, exclusive of 0 percent by mass, of S, 0.006 percent by mass or less, exclusive of 0 percent by mass, of N, 0.1 percent by mass or less, exclusive of 0 percent by mass, of Al, wherein Wp(Fe) and W satisfy the following condition: W p (Fe) > 5 x W, wherein Wp(Fe) is the content of Fe in percent by mass constituting Fe-containing precipitates in the steel; and W is the carbon content in percent by mass of the steel, optionally at least one selected from the group consisting of: 0.02 to 0.1 percent by mass of Ti, 0.02 to 0.3 percent by mass of V, and 0.003 to 0.1 percent by mass of Nb, wherein Wp and W satisfy the following condition: Wp > 0.5 x W, wherein Wp is the total content of Ti, V and Nb in percent by mass constituting (Ti,V,Nb)-containing precipitates in the steel; and W is the total content of Ti, V and Nb in percent by mass of the steel; and/or optionally at least one of 0.1 to 0.5 percent by mass of Mo, and 0.0003 to 0.001 percent by mass of B, with the remainder being iron and inevitable impurities. 0.35 to 0.65 percent by mass of C, 1.4 to 2.5 percent by mass of Si, 0.1 to 1.0 percent by mass of Mn, 0.2 to 2.0 percent by mass of Cr, 0.1 to 1.0 percent by mass of Ni, 0.1 to 1.0 percent by mass of Cu, 0.020 percent by mass or less, exclusive of 0 percent by mass, of P, 0.020 percent by mass or less, exclusive of 0 percent by mass, of S, 0.006 percent by mass or less, exclusive of 0 percent by mass, of N, 0.1 percent by mass or less, exclusive of 0 percent by mass, of Al, 0.02 to 0.1 percent by mass of Ti, 0.02 to 0.3 percent by mass of V, and 0.003 to 0.1 percent by mass of Nb, 0.1 to 0.5 percent by mass of Mo, and 0.0003 to 0.001 percent by mass of B,
Container for a cosmetic product, in particular for a stick of cosmetic product, comprising a body, and a cup movable with respect to the body, the cup being able to receive the product, said container comprising a transparent part presenting a first zone, bare, making it possible to see inside the container, and at least one second opacified zone, called coated zone, made opaque after having been subjected to a surface treatment.
A nozzle for a cleaner comprising a nozzle housing including a suction flow path (112,114) through which air containing dust flows; a plurality of rotation cleaning units (40,41) which are disposed on a lower side of the nozzle housing, each of the plurality of rotation cleaning units including a rotation plate (420,440) to which a mop (402,404) can be attached and a water tank mounted on the nozzle housing and stores water to be supplied to the mop; characterized in that the nozzle comprises a plurality of driving devices (170,171) having a driving motor configured to drive the plurality of rotation cleaning units, wherein the nozzle housing includes a plurality of driving unit covers (132,134) having a protruding shape disposed so as to surround each of the driving devices. a nozzle housing including a suction flow path (112,114) through which air containing dust flows; a plurality of rotation cleaning units (40,41) which are disposed on a lower side of the nozzle housing, each of the plurality of rotation cleaning units including a rotation plate (420,440) to which a mop (402,404) can be attached and a water tank mounted on the nozzle housing and stores water to be supplied to the mop; characterized in that the nozzle comprises a plurality of driving devices (170,171) having a driving motor configured to drive the plurality of rotation cleaning units, wherein the nozzle housing includes a plurality of driving unit covers (132,134) having a protruding shape disposed so as to surround each of the driving devices.
An additive injection apparatus for a laundry treating machine, comprising: a main body disposed on a path along which a solvent flows and comprising an inlet and an outlet for receiving and discharging the solvent, respectively; an additive container disposed underneath the main body, for holding an additive; a nozzle having a communicating hole for communicating between the main body and the additive container; and a floater disposed in the main body, for rising and falling to open and close the communicating hole, wherein the floater is configured to be raised by the flow of the solvent, characterized in that the floater is configured to be raised by the flow of the solvent from the inlet to the outlet, allowing the communication hole to be opened and the solvent with the additive dissolved to be supplied to the main body through the communicating hole mainly by a diffusion action due to a concentration gradient between the main body and the additive container, wherein the center point of the inlet for receiving the solvent is located at a horizontal level below the center of floater, and wherein the floater has a specific gravity larger than the solvent. a main body disposed on a path along which a solvent flows and comprising an inlet and an outlet for receiving and discharging the solvent, respectively; an additive container disposed underneath the main body, for holding an additive; a nozzle having a communicating hole for communicating between the main body and the additive container; and a floater disposed in the main body, for rising and falling to open and close the communicating hole, wherein the floater is configured to be raised by the flow of the solvent, characterized in that the floater is configured to be raised by the flow of the solvent from the inlet to the outlet, allowing the communication hole to be opened and the solvent with the additive dissolved to be supplied to the main body through the communicating hole mainly by a diffusion action due to a concentration gradient between the main body and the additive container, wherein the center point of the inlet for receiving the solvent is located at a horizontal level below the center of floater, and wherein the floater has a specific gravity larger than the solvent.