mhurhangee/ep-ind-claims huggingface dataset:
Radial bending device for use in the manufacture of a component of an electric machine provided with coils and for bending in a radial direction wire ends of a wire end group which axially protrude from an annular housing of the component, the wire end group comprising at least three wire ends (20, 20a - 20d) arranged one after the other in a radial direction, the device comprising: a radially movable gripper designed for gripping at least one of the wire ends and for bending the at least one wire end in the radial direction, characterized in that the gripper has a first contact surface for at least one wire end, which first contact surface points in a first radial direction, and a second contact surface for at least one wire end, which second contact surface points in the opposite second radial direction, and in that an abutment element extending longitudinally or flatly with a first and a second side in the circumferential direction is provided for axial insertion between two radially adjacent wire ends of the wire end group in order to divide the wire end group into several parts (122, 124), wherein in a first radial movement range of the gripper, the first side of the abutment element is formed as an abutment for the first contact surface in order to sandwich at least one wire end of first part of the wire end group located on the first side between the abutment element and the first contact surface and in a second radial movement range of the gripper, the second side of the abutment element is formed as an abutment for the second contact surface in order to sandwich at least one wire end of the second part of the wire end group located on the second side between the abutment element and the second contact surface. a radially movable gripper designed for gripping at least one of the wire ends and for bending the at least one wire end in the radial direction, characterized in that the gripper has a first contact surface for at least one wire end, which first contact surface points in a first radial direction, and a second contact surface for at least one wire end, which second contact surface points in the opposite second radial direction, and in that an abutment element extending longitudinally or flatly with a first and a second side in the circumferential direction is provided for axial insertion between two radially adjacent wire ends of the wire end group in order to divide the wire end group into several parts (122, 124), wherein in a first radial movement range of the gripper, the first side of the abutment element is formed as an abutment for the first contact surface in order to sandwich at least one wire end of first part of the wire end group located on the first side between the abutment element and the first contact surface and in a second radial movement range of the gripper, the second side of the abutment element is formed as an abutment for the second contact surface in order to sandwich at least one wire end of the second part of the wire end group located on the second side between the abutment element and the second contact surface.
A compound comprising a polymer, an antithrombogenic agent, and an antimicrobial agent, wherein the antithrombogenic agent and the antimicrobial agent are covalently bound to the polymer, and wherein the antimicrobial agent comprises a guanidine group and the antithrombogenic agent comprises a heparin group.
A holster comprising: a housing adapted to receive a handgun assembly comprising a handgun and an accessory device attached to the handgun, said accessory device having a switch; a structure protruding from the housing and adapted to: move said switch of the accessory device to an off position as the handgun assembly is inserted into the holster, and hold the switch in the off position while the handgun assembly is retained in the holster; and an actuator (1864, 1872) adapted to selectively move the switch to an on position as the handgun assembly is withdrawn from the holster, wherein: the actuator (1864, 1872) is adapted to move between a neutral position and an engaged position, the actuator (1864, 1872) in the neutral position is adapted to not move the switch as the handgun assembly is withdrawn from the holster, and the actuator in the engaged position is adapted to move the switch from the off position to the on position as the handgun assembly is withdrawn from the holster. a housing adapted to receive a handgun assembly comprising a handgun and an accessory device attached to the handgun, said accessory device having a switch; a structure protruding from the housing and adapted to: move said switch of the accessory device to an off position as the handgun assembly is inserted into the holster, and hold the switch in the off position while the handgun assembly is retained in the holster; and move said switch of the accessory device to an off position as the handgun assembly is inserted into the holster, and hold the switch in the off position while the handgun assembly is retained in the holster; and an actuator (1864, 1872) adapted to selectively move the switch to an on position as the handgun assembly is withdrawn from the holster, wherein: the actuator (1864, 1872) is adapted to move between a neutral position and an engaged position, the actuator (1864, 1872) in the neutral position is adapted to not move the switch as the handgun assembly is withdrawn from the holster, and the actuator in the engaged position is adapted to move the switch from the off position to the on position as the handgun assembly is withdrawn from the holster. the actuator (1864, 1872) is adapted to move between a neutral position and an engaged position, the actuator (1864, 1872) in the neutral position is adapted to not move the switch as the handgun assembly is withdrawn from the holster, and the actuator in the engaged position is adapted to move the switch from the off position to the on position as the handgun assembly is withdrawn from the holster.
A passenger transport vehicle with a car body mounted on at least two axles, - wherein the car body comprises two single-deck car sections arranged above the axles and one double-deck car section arranged in longitudinal direction between the latter, wherein the double-deck car section has a lower level and an upper level, and, - wherein the lower level comprises two boarding areas and a first passenger area arranged in longitudinal direction between the latter such, - that the boarding areas are spaced apart from one another in longitudinal direction by the first passenger area, wherein each boarding area comprises at least one door system for laterally boarding into the passenger transport vehicle, - wherein the upper level comprises a second, a third and a fourth passenger area (20, 30, 40), wherein the second and third passenger areas (20, 30) are essentially arranged in vertical direction above a boarding area, and wherein the fourth passenger area is provided in longitudinal direction between the second and third passenger areas (20, 30), and - wherein a first passenger floor of the first passenger area in vertical direction is arranged lower than a boarding floor of the boarding area, and wherein a first vertical distance between the boarding floor and the first passenger floor amounts to between 50 and 250 mm. - wherein the car body comprises two single-deck car sections arranged above the axles and one double-deck car section arranged in longitudinal direction between the latter, wherein the double-deck car section has a lower level and an upper level, and, - wherein the lower level comprises two boarding areas and a first passenger area arranged in longitudinal direction between the latter such, - that the boarding areas are spaced apart from one another in longitudinal direction by the first passenger area, wherein each boarding area comprises at least one door system for laterally boarding into the passenger transport vehicle, - wherein the upper level comprises a second, a third and a fourth passenger area (20, 30, 40), wherein the second and third passenger areas (20, 30) are essentially arranged in vertical direction above a boarding area, and wherein the fourth passenger area is provided in longitudinal direction between the second and third passenger areas (20, 30), and - wherein a first passenger floor of the first passenger area in vertical direction is arranged lower than a boarding floor of the boarding area, and wherein a first vertical distance between the boarding floor and the first passenger floor amounts to between 50 and 250 mm.
A battery electrode assembly comprising a combination of two or more electrode units having the same width and different lengths, wherein the electrode units are stacked so that a stepped portion is formed between the electrode units, a positive electrode and a negative electrode face each other at an interface between the electrode units, the battery electrode assembly satisfies Formula 4: dNn / dPn ≤ dNn / dPn + 1 and the battery electrode assembly satisfies Formula 1-1: 1 ≤ Nn / Pn ≤ Nn / Pn + 1 where n denotes an integer equal to or greater than 1, dNn denotes a thickness of the negative electrode of the nth longest electrode unit, dPn denotes a thickness of the positive electrode of the nth longest electrode unit, dPn+1 denotes a thickness of the positive electrode of the (n+1)th longest electrode unit, Nn denotes reversible capacity per unit area of a negative electrode of the nth longest electrode unit, Pn denotes reversible capacity per unit area of a positive electrode of the nth longest electrode unit, and Pn+1 denotes reversible capacity per unit area of a positive electrode of the (n+1)th longest electrode unit. where n denotes an integer equal to or greater than 1, dNn denotes a thickness of the negative electrode of the nth longest electrode unit, dPn denotes a thickness of the positive electrode of the nth longest electrode unit, dPn+1 denotes a thickness of the positive electrode of the (n+1)th longest electrode unit, Nn denotes reversible capacity per unit area of a negative electrode of the nth longest electrode unit, Pn denotes reversible capacity per unit area of a positive electrode of the nth longest electrode unit, and Pn+1 denotes reversible capacity per unit area of a positive electrode of the (n+1)th longest electrode unit.
A chuck for an automatic inspection system, comprising: a removable insert, wherein the removable insert is configured to support a wafer so that an examination surface of the wafer lies within a focal range when the chuck is in a first configuration, wherein the removable insert is inserted into the chuck in the first configuration; and a first structure forming a recess that has a depth sufficient to support a photomask so that an examination surface of the photomask lies within the focal range when the chuck is in a second configuration, wherein the removable insert is not inserted into the chuck in the second configuration, wherein the chuck is adapted to be coupled to the inspection system, and wherein the chuck includes a sensor adapted to cause electrical operations of the inspection system to be disabled when the removable insert is removed from the chuck. a removable insert, wherein the removable insert is configured to support a wafer so that an examination surface of the wafer lies within a focal range when the chuck is in a first configuration, wherein the removable insert is inserted into the chuck in the first configuration; and a first structure forming a recess that has a depth sufficient to support a photomask so that an examination surface of the photomask lies within the focal range when the chuck is in a second configuration, wherein the removable insert is not inserted into the chuck in the second configuration, wherein the chuck is adapted to be coupled to the inspection system, and wherein the chuck includes a sensor adapted to cause electrical operations of the inspection system to be disabled when the removable insert is removed from the chuck.
Stimulation system for cow's udder, the system comprising at least one teat cup, a controller, a vacuum delivery to teat cup transducer, at least one vibration generating stimulating source, and means for transmitting vibrations generated by the stimulation source to cow's udder, wherein the vibration generating stimulation source is a vibrostimulation vibration actuator configured to generate mechanical vibrations and rigidly connected to the at least one teat cup for transmitting the generated vibrations to cow's udder, wherein the vibrostimulation vibration actuator is connected to the controller and the vacuum delivery to teat cup transducer, wherein the vibrostimulation vibration actuator is configured to receive a control signal from the controller after the controller receives signal from the vacuum delivery to teat cup transducer wherein the vibrostimulation vibration actuator is mounted on upper part of the end of the teat cup, through which the teat cup is put on a teat.
A flame-resistant composite member, having a film formed of a silicone resin composition comprising at least an inorganic oxide particle-containing condensation-reactive silicone resin on at least one surface of a base material, wherein the inorganic oxide particle-containing condensation-reactive silicone resin is a condensation-reactive silicone resin comprising a crosslinked structural body wherein in the crosslinked structural body, an inorganic oxide particle dispersed in a polysiloxane resin having a condensation-reactive group and the polysiloxane resin are crosslinked through a chemical bond, and wherein in the condensation-reactive silicone resin, as the polysiloxane resin having a condensation-reactive group, a condensation-reactive group-containing polysilsesquioxane wherein a basic structural unit thereof is a T unit and also a condensation-reactive group-containing polysiloxane wherein basic structural units thereof are a D unit and a T unit are used.
A method, comprising: controlling a radio transmitter or radio transceiver of a first node to transmit discovery signals at time periods defined by a first discovery pattern allocated to said first node from a set of discovery patterns each defining a respective combination of transmission time periods from a set of time periods; and controlling the radio transmitter or radio transceiver to use for said discovery signals one or more radio resources allocated to the transmission time periods of said first discovery pattern from radio resources shared by the set of discovery patterns, wherein any radio resource allocated to any transmission time period of any one of the discovery patterns is distinguished from any radio resource allocated to any other of the discovery patterns for the same transmission time period.
A method for extracting a target nucleic acid from a cell-free biological sample, which comprises: (a) mixing a cell-free biological sample, a salt and a solid support capable of reversibly binding nucleic acid, wherein: the sample comprises target nucleic acid and non-target nucleic acid, the size of the target nucleic acid is less than the size of the non-target nucleic acid, and the salt is present at a concentration in the range of 10 to 30% weight per volume, whereby the non-target nucleic acid is bound to the solid support in a first binding solution; (b) separating the solid support from the first binding solution, thereby yielding a fraction separated from the solid support; (c) mixing the fraction separated from the solid support with: (i) additional salt, thereby providing a high salt concentration state relative to (a), and (ii) a solid support capable of reversibly binding nucleic acid, wherein the salt is present at a concentration in the range of 20 to 60% weight per volume at which the target nucleic acid binds to the solid support, whereby the target nucleic acid is bound to the solid support in a second binding solution; (d) separating the solid support from the second binding solution; and (e) eluting the target nucleic acid from the solid support after (d), whereby the target nucleic acid is extracted from the cell-free biological sample and the target nucleic acid is selectively enriched from the sample. (a) mixing a cell-free biological sample, a salt and a solid support capable of reversibly binding nucleic acid, wherein: the sample comprises target nucleic acid and non-target nucleic acid, the size of the target nucleic acid is less than the size of the non-target nucleic acid, and the salt is present at a concentration in the range of 10 to 30% weight per volume, whereby the non-target nucleic acid is bound to the solid support in a first binding solution; the sample comprises target nucleic acid and non-target nucleic acid, the size of the target nucleic acid is less than the size of the non-target nucleic acid, and the salt is present at a concentration in the range of 10 to 30% weight per volume, (b) separating the solid support from the first binding solution, thereby yielding a fraction separated from the solid support; (c) mixing the fraction separated from the solid support with: (i) additional salt, thereby providing a high salt concentration state relative to (a), and (ii) a solid support capable of reversibly binding nucleic acid, wherein the salt is present at a concentration in the range of 20 to 60% weight per volume at which the target nucleic acid binds to the solid support, whereby the target nucleic acid is bound to the solid support in a second binding solution; (d) separating the solid support from the second binding solution; and (e) eluting the target nucleic acid from the solid support after (d), whereby the target nucleic acid is extracted from the cell-free biological sample and the target nucleic acid is selectively enriched from the sample.
An axle support of a motor vehicle having two metal longitudinal supports and at least one metal cross-beam, which is connected at connection points to the longitudinal supports having body attachment points in their end regions, characterised in that a reinforcement element made of wound fibre-reinforced plastic is provided only at the connection points and in the direct vicinity thereof.
A patient lift including a lifting member and a hoist assembly connected to the lifting member, the hoist assembly able to move the lifting member between a raised position situated closer to the hoist assembly, and a lowered position located more distantly from the hoist assembly; and an elongated switch member (20, 200, 300, 400) descending from the hoist assembly to a switch member actuating end (22, 222, 322, 422), the actuating end (22, 222, 322, 422) being below the raised position and above the lowered position; characterised in that; the hoist assembly has an emergency stop system wherein, urging the switch member (20, 200, 300, 400) in a first direction oriented in an axial sense along a length of the elongated switch member (20, 200, 300, 400), or in a rotational sense about the length of the elongated switch member (20, 200, 300, 400), places the hoist assembly in a one of the enabled state where the hoist assembly can move the lifting member between a raised position situated closer to the hoist assembly, and a lowered position located more distantly from the hoist assembly or the disabled state, where the hoist assembly cannot move the lifting member between the raised position and the lowered position; and urging the switch member (20, 200, 300, 400) in a second direction oriented differently than the first direction places the hoist assembly in the other of the enabled state or the disabled state.
A composition of magnetic beads comprising (a) a stabilizer and a magnetic core produced under solvothermal conditions, (b) a liquid-glass coating, wherein the magnetic beads are superparamagnetic, wherein the liquid-glass coating comprises a silicate and has a thickness of 20 nm or below, characterized in that the magnetic core is a defined aggregate of magnetic nanoparticles, said magnetic nanoparticles having a size of less than 30 nm and the diameter of the magnetic core is between 100-400 nm.
A protection system for an electrical variable speed doubly fed induction machine having a stator and a rotor, comprising: - instrument transformers (CTR1, CTR2, CTS1, CTS2, VTR1, VTR2) capable of measuring low frequency signals from the rotor and/or the stator, in particular rotor and/or stator low frequency signals having a frequency in the range of 0.1 Hz to 6 Hz; - a protection relay (R1, R2) configured to receive rotor and/or stator measurement values from the instrument transformers, said rotor and/or stator measurements values being sampled at a constant sampling rate, wherein the protection relay comprises a frequency determination module for determining the frequency of the rotor and/or stator low frequency signals, and at least one protection module configured to implement a rotor or stator protection algorithm making use of root mean square values each calculated from a series of said rotor or stator sampled measurement values within a variable size rolling window which size depends upon the determined frequency of the rotor or stator low frequency signals. - instrument transformers (CTR1, CTR2, CTS1, CTS2, VTR1, VTR2) capable of measuring low frequency signals from the rotor and/or the stator, in particular rotor and/or stator low frequency signals having a frequency in the range of 0.1 Hz to 6 Hz; - a protection relay (R1, R2) configured to receive rotor and/or stator measurement values from the instrument transformers, said rotor and/or stator measurements values being sampled at a constant sampling rate,
Bidirectional communication device comprising a master transmitter (SysM1, TRM1, SysM2, TRM2) connected to at least one slave transmitter (SysS1, TRS1, SysS2, TRS2) by an active connecting wire, the master transmitter and the slave transmitter having a common reference, the master transmitter being able to transmit a master signal to the slave transmitter and the slave transmitter being able to transmit a slave signal to the master transmitter, wherein the master signal is a digital voltage modulation and the slave signal is a digital current modulation, wherein, during an active state of the master transmitter, the master signal comprises a transmission clock and the slave signal is synchronised by the master signal, and wherein the master transmitter comprises a standby state in which the master signal no longer includes the transmission clock, characterised in that the master transmitter comprises a digitising means (STM, DM, R CS) able to digitise two discrete values of the slave signal, interpreted as binary values 0 or 1, and in that the master transmitter is configured to interpret as a passage of said master transmitter from the standby state to the active state, the consumption by the slave transmitter, or one of the slave transmitters, of a current digitised by the master transmitter as a logic state 1.