mhurhangee/ep-ind-claims huggingface dataset:
A work vehicle comprising: at least one travel device (1, 2) including a front travel device; a battery; a motor; an inverter configured to operate the motor; an operation section including an operator seat; a transmission case housing a transmission for travel; and a transmission shaft, wherein the motor, the transmission shaft, the transmission, and the travel device (1, 2) are connected to each other such that motive power from the motor is transmitted to the transmission via the transmission shaft and transmitted from the transmission to the travel device (1, 2), characterized in that the motor is forward of the front travel device in a side view. at least one travel device (1, 2) including a front travel device; a battery; a motor; an inverter configured to operate the motor; an operation section including an operator seat; a transmission case housing a transmission for travel; and a transmission shaft, wherein the motor, the transmission shaft, the transmission, and the travel device (1, 2) are connected to each other such that motive power from the motor is transmitted to the transmission via the transmission shaft and transmitted from the transmission to the travel device (1, 2), characterized in that the motor is forward of the front travel device in a side view.
A current sensing electrical contactor system comprising: a contactor assembly (12, 42) including moveable contacts, stationary contacts and a control coil configured to cause movement of the moveable contacts to open and close a current carrying path through the moveable and stationary contacts in response to a control signal, the contactor being only remotely operated to open and close the current carrying path; and a current sensing module (14, 48) configured to be physically coupled to an outer face of said contactor assembly, wherein the current sensing module includes a plurality of current sensors for sensing current through at least two current carrying paths defined by moveable and stationary contacts of said contactor assembly; characterized in that said current sensing module (14, 48) further comprises a ground fault sensor adapted to sense current through at least two conductors and generate a signal indicative of a ground fault; and an output for outputting a signal indicative of current sensed by the current sensing module (14, 48); and that the system further comprises a relay coupled to the output of said current sensing module and configured to apply or interrupt power upstream of the contactor (12, 42) in response to current sensed by the current sensing module (14, 48). a contactor assembly (12, 42) including moveable contacts, stationary contacts and a control coil configured to cause movement of the moveable contacts to open and close a current carrying path through the moveable and stationary contacts in response to a control signal, the contactor being only remotely operated to open and close the current carrying path; and a current sensing module (14, 48) configured to be physically coupled to an outer face of said contactor assembly, wherein the current sensing module includes a plurality of current sensors for sensing current through at least two current carrying paths defined by moveable and stationary contacts of said contactor assembly; characterized in that said current sensing module (14, 48) further comprises a ground fault sensor adapted to sense current through at least two conductors and generate a signal indicative of a ground fault; and an output for outputting a signal indicative of current sensed by the current sensing module (14, 48); and that the system further comprises a relay coupled to the output of said current sensing module and configured to apply or interrupt power upstream of the contactor (12, 42) in response to current sensed by the current sensing module (14, 48).
Axle support for a motor vehicle, having at least two longitudinal members (1.1, 1.2), at least one cross member (1.4) joining together the longitudinal members, at least two attachment points for attaching a steering gear housing (7.1) to the axle support and a device for positioning the steering gear housing (7.1) on the axle support prior to mounting of the steering gear housing (7.1) on the axle support, characterised in that the device for positioning the steering gear housing (7.1) has at least two mounts (5, 6), one mount of which being attached to one of the longitudinal members (1.1, 1.2) and/or the cross member (1.4) and another mount of the mounts (5,6) being attached to another of the longitudinal members (1.1, 1.2) and/or the cross member (1.4), wherein the respective mount (5, 6) has at least two indentations (5.3, 5.4, 6.3, 6.4) for receiving positioning protrusions provided (7.4, 7.5) provided on the steering gear housing (7.1).
A rotary steerable drilling assembly, comprising: a drilling motor coupled to a drive member; a housing (246, 258) outside the drive member having a first section and a second section; and a steering device that tilts the first section relative to the second section about a joint, the steering device (250, 350) including: an actuation device (280, 300, 322); and a tilt device coupled to the first section and second section; and wherein the actuation device (280, 300, 322) applies selected forces onto the tilt device to cause the first section to tilt relative to the second section; wherein the drive member runs through the joint to couple the drilling motor to a disintegrating device, and wherein the drilling motor rotates the disintegrating device via the drive member, wherein the steering device maintains the tilt substantially geostationary when the drilling assembly is rotating to drill a deviated section of the wellbore. a drilling motor coupled to a drive member; a housing (246, 258) outside the drive member having a first section and a second section; and a steering device that tilts the first section relative to the second section about a joint, the steering device (250, 350) including: an actuation device (280, 300, 322); and a tilt device coupled to the first section and second section; and wherein the actuation device (280, 300, 322) applies selected forces onto the tilt device to cause the first section to tilt relative to the second section; wherein the drive member runs through the joint to couple the drilling motor to a disintegrating device, and wherein the drilling motor rotates the disintegrating device via the drive member, wherein the steering device maintains the tilt substantially geostationary when the drilling assembly is rotating to drill a deviated section of the wellbore. an actuation device (280, 300, 322); and a tilt device coupled to the first section and second section; and wherein the actuation device (280, 300, 322) applies selected forces onto the tilt device to cause the first section to tilt relative to the second section; wherein the drive member runs through the joint to couple the drilling motor to a disintegrating device, and wherein the drilling motor rotates the disintegrating device via the drive member, wherein the steering device maintains the tilt substantially geostationary when the drilling assembly is rotating to drill a deviated section of the wellbore.
A communication jack comprising a front portion including insulation displacement contact terminals and a wire containment cap slidably mounted within the front portion, the wire containment cap comprising: a first side, the first side including a plurality of retainers for retaining wires; a second side, the second side being opposite the first side, the second side including a plurality of retainers, two sidewalls extending between the first side and the second side; a spine extending between the first side and the second side, the spine being located between the sidewalls; a support rib extending between the two sidewalls, the support rib including two pair separators extending perpendicularly from the support rib and toward the front portion, the two pair separators located on opposite sides of the spine for separating a pair of wires; and a plurality of sloped pair splitters located between two of the retainers and including a sharp edge for cutting through insulation material on a pair of bonded wires. a first side, the first side including a plurality of retainers for retaining wires; a second side, the second side being opposite the first side, the second side including a plurality of retainers, two sidewalls extending between the first side and the second side; a spine extending between the first side and the second side, the spine being located between the sidewalls; a support rib extending between the two sidewalls, the support rib including two pair separators extending perpendicularly from the support rib and toward the front portion, the two pair separators located on opposite sides of the spine for separating a pair of wires; and a plurality of sloped pair splitters located between two of the retainers and including a sharp edge for cutting through insulation material on a pair of bonded wires.
A blade outer air seal segment for a gas turbine engine comprising: a body having an outwardly facing side and an inwardly facing side having a circumferential expanse and a longitudinal expanse, the body formed of a first metal alloy having a first coefficient of thermal expansion; characterized in that the blade outer seal element further comprises: a recess formed in the inwardly facing side of the body; and a layer of a second metal alloy deposited in the recess, the second metal alloy having a second coefficient of thermal expansion, the second coefficient of thermal expansion being less than the first coefficient of thermal expansion. a body having an outwardly facing side and an inwardly facing side having a circumferential expanse and a longitudinal expanse, the body formed of a first metal alloy having a first coefficient of thermal expansion; characterized in that the blade outer seal element further comprises: a recess formed in the inwardly facing side of the body; and a layer of a second metal alloy deposited in the recess, the second metal alloy having a second coefficient of thermal expansion, the second coefficient of thermal expansion being less than the first coefficient of thermal expansion. a recess formed in the inwardly facing side of the body; and a layer of a second metal alloy deposited in the recess, the second metal alloy having a second coefficient of thermal expansion, the second coefficient of thermal expansion being less than the first coefficient of thermal expansion.
Device for atomizing liquid, consisting of a piezoelectric substrate or of a substrate coated with a piezoelectric layer or of a nonpiezoelectric substrate joined via a coupling medium to a piezoelectric substrate, where at least one interdigital transducer having electrodes has been applied to the piezoelectric substrate or to the substrate coated with a piezoelectric layer, and also one or more structures composed of polymer material having microchannels which have been applied by means of photolithographic processes are present on the piezoelectric substrate or on the substrate coated with a piezoelectric layer or on the nonpiezoelectric substrate joined via a coupling medium to the piezeoelectric substrate, which structures are arranged at least partly outside the region of spread of the acoustic wave or waves excited by the at least one interdigital transducer, and the microchannels have at least two openings and at least one of the openings of the microchannels is arranged in the direction of the acoustic wave or waves and this at least one opening of the microchannels is arranged at the position at which the acoustic wave or waves has/have a discernible increase in the amplitude of the acoustic wave or waves and the at least one opening of the microchannels which is not arranged in the direction of the acoustic wave is connected to a reservoir for liquid.
Device for recording a resistance of a measurement resistor of a measurement sensor, having: a passive electric oscillating circuit for generating a predetermined calibration current, wherein the passive electric oscillating circuit comprises a capacitor, and wherein the passive electric oscillating circuit furthermore comprises a calibration resistor, wherein the predetermined calibration current is able to be applied to the calibration resistor; an energy store that is able to be connected to the capacitor in order to apply electrical energy to the capacitor; and a control apparatus that is designed to switch on the passive electric oscillating circuit at the measurement resistor for the duration of an oscillation period of the passive electric oscillating circuit and to disconnect the capacitor from the energy store for the duration of the oscillation period in order to apply the predetermined calibration current to the measurement resistor, wherein the control apparatus is furthermore designed, throughout the duration of the oscillation period, to record a measurement voltage, dependent on the predetermined calibration current, across the measurement resistor in order to record the resistance of the measurement resistor, and wherein the control apparatus is furthermore designed, throughout the duration of the oscillation period, to record a calibration voltage, dependent on the predetermined calibration current, across the calibration resistor. a passive electric oscillating circuit for generating a predetermined calibration current, wherein the passive electric oscillating circuit comprises a capacitor, and wherein the passive electric oscillating circuit furthermore comprises a calibration resistor, wherein the predetermined calibration current is able to be applied to the calibration resistor; an energy store that is able to be connected to the capacitor in order to apply electrical energy to the capacitor; and a control apparatus that is designed to switch on the passive electric oscillating circuit at the measurement resistor for the duration of an oscillation period of the passive electric oscillating circuit and to disconnect the capacitor from the energy store for the duration of the oscillation period in order to apply the predetermined calibration current to the measurement resistor, wherein the control apparatus is furthermore designed, throughout the duration of the oscillation period, to record a measurement voltage, dependent on the predetermined calibration current, across the measurement resistor in order to record the resistance of the measurement resistor, and wherein the control apparatus is furthermore designed, throughout the duration of the oscillation period, to record a calibration voltage, dependent on the predetermined calibration current, across the calibration resistor.
A rotor for an electrical machine, the rotor comprising: a rotor (400, 500, 600, 1002, 1102, 1202, 1300, 1400, 1500) body having a central axis and including a plurality of permanent magnets (402, 1004, 1302) positioned to create a plurality of rotor magnetic poles distributed around a peripheral surface of the rotor, wherein each permanent magnet (402, 1004, 1302) comprises a magnet body (200, 300) having a center portion (202, 302, 402A) and a peripheral portion (204, 304, 402B), wherein the center portion (202, 302, 402A) comprises a material having higher remanence than the material comprising the peripheral portion (204, 304, 420B) and wherein the peripheral portion (204, 304, 402B) comprises a material having a higher coercivity than the material comprising the center portion (202, 302, 402A); and wherein the rotor (400, 500, 600, 1002, 1102, 1202, 1300, 1400, 1500) is a conductive cage rotor construction having a cage (404, 504, 604, 1006, 1106, 1206, 1502, 1508) comprising a plurality of closed conductive loops (1052A, 1502B, 1502C, 1502D) electrically connected between each other, the cage being a damping cage, made for the purpose to protect the magnets, each closed conductive loop (1052A, 1502B, 1502C, 1502D) being disposed around a corresponding rotor magnetic pole of the plurality of rotor magnetic poles, the cage being a hybrid cage, wherein the closed conductive loops of the cage are controllable to be a closed circuit or an open circuit. a rotor (400, 500, 600, 1002, 1102, 1202, 1300, 1400, 1500) body having a central axis and including a plurality of permanent magnets (402, 1004, 1302) positioned to create a plurality of rotor magnetic poles distributed around a peripheral surface of the rotor, wherein each permanent magnet (402, 1004, 1302) comprises a magnet body (200, 300) having a center portion (202, 302, 402A) and a peripheral portion (204, 304, 402B), wherein the center portion (202, 302, 402A) comprises a material having higher remanence than the material comprising the peripheral portion (204, 304, 420B) and wherein the peripheral portion (204, 304, 402B) comprises a material having a higher coercivity than the material comprising the center portion (202, 302, 402A); and wherein the rotor (400, 500, 600, 1002, 1102, 1202, 1300, 1400, 1500) is a conductive cage rotor construction having a cage (404, 504, 604, 1006, 1106, 1206, 1502, 1508) comprising a plurality of closed conductive loops (1052A, 1502B, 1502C, 1502D) electrically connected between each other, the cage being a damping cage, made for the purpose to protect the magnets, each closed conductive loop (1052A, 1502B, 1502C, 1502D) being disposed around a corresponding rotor magnetic pole of the plurality of rotor magnetic poles, the cage being a hybrid cage, wherein the closed conductive loops of the cage are controllable to be a closed circuit or an open circuit.
Wind turbine rotor blade comprising a shell, a web structure, and a lightning down conductor arrangement, wherein the rotor blade extends in a spanwise direction between a tip-side end and a root-side end, characterized in that the web structure is made from at least one fiber-laminate-based structure, wherein the lightning down conductor arrangement comprises at least one web terminal at least partly embedded in the web structure and at least one root-side end terminal arranged in a root-side end portion of the shell in a spanwise distance to the web terminal, wherein the root-side end terminal is connected to the web terminal by an end conductor arranged at the inner surface of the shell.
A pulverulent composition preparable by contacting a powder with 0.01 to 50 wt%, based on the overall mass of the composition, of a liquid component comprising at least one copolymer obtainable by polymerizing a mixture of monomers comprising at least one ethylenically unsaturated monomer which comprises at least one radical from the series carboxylic acid, carboxylic salt, carboxylic ester, carboxylic amide, carboxylic anhydride, and carboxylic imide and at least one ethylenically unsaturated monomer having a polyalkylene oxide radical, the liquid component comprising at least 1 wt% of the at least one copolymer and at least 30 wt% of an organic solvent, and the powder which is contacted with the liquid component comprising no inorganic binder, wherein the powder is coated with the liquid component. at least one ethylenically unsaturated monomer which comprises at least one radical from the series carboxylic acid, carboxylic salt, carboxylic ester, carboxylic amide, carboxylic anhydride, and carboxylic imide and at least one ethylenically unsaturated monomer having a polyalkylene oxide radical,
A bicycle component control apparatus (12: 112; 212) comprising: a controller (14; 114; 214) configured to operate a first electrical bicycle component in response to receiving a first signal from a first input member, and to operate a second electrical bicycle component in response to receiving a second signal from a second input member, characterized in that the controller (14; 114; 214) is configured to prohibit operation of the second electrical bicycle component upon starting operation of the first electrical bicycle component. a controller (14; 114; 214) configured to operate a first electrical bicycle component in response to receiving a first signal from a first input member, and to operate a second electrical bicycle component in response to receiving a second signal from a second input member, characterized in that the controller (14; 114; 214) is configured to prohibit operation of the second electrical bicycle component upon starting operation of the first electrical bicycle component.
A method for managing access to storage devices in a multi-node cluster, the method comprising: configuring a node of a plurality of nodes in a cluster, the node having a node-specific control virtual machine that instantiates a container on a container service machine on the node, wherein the container is hosted by the container service machine, communications between the container service machine and the node-specific control virtual machine occur over a link, and the node-specific control virtual machine operates as a storage controller to the node; and processing, by the node-specific control virtual machine, storage access IO commands initiated by the container to access a plurality of storage devices that are shared by at least two of the plurality of nodes in the cluster. configuring a node of a plurality of nodes in a cluster, the node having a node-specific control virtual machine that instantiates a container on a container service machine on the node, wherein the container is hosted by the container service machine, communications between the container service machine and the node-specific control virtual machine occur over a link, and the node-specific control virtual machine operates as a storage controller to the node; and processing, by the node-specific control virtual machine, storage access IO commands initiated by the container to access a plurality of storage devices that are shared by at least two of the plurality of nodes in the cluster.
A method at a remote control device, the method comprising: transmitting a switch signal to a receiver device indicating a request to change a background application at the receiver device to a new primary application, and a primary application at the receiver device to a new background application, the primary application being the application in focus on a display device; receiving configuration information for remote control settings corresponding to the new primary application; and displaying a remote control frame corresponding to the new primary application on a display of the remote control device, to replace a remote control frame corresponding to the primary application. transmitting a switch signal to a receiver device indicating a request to change a background application at the receiver device to a new primary application, and a primary application at the receiver device to a new background application, the primary application being the application in focus on a display device; receiving configuration information for remote control settings corresponding to the new primary application; and displaying a remote control frame corresponding to the new primary application on a display of the remote control device, to replace a remote control frame corresponding to the primary application.
An attachment collar for elongate elements, the collar comprising a belt portion suitable for being fastened to a support, the belt portion being open and defining an inside space suitable for receiving the elongate element, the collar further comprising means for closing the belt portion so as to retain the elongate elements in the inside space, the collar being characterized in that the means for closing the belt portion comprise firstly an array of gripping elements made of plastics material injected integrally with the belt portion and situated on its outside face, and secondly a tape secured to the belt portion via one of its ends, the inside face of the tape presenting retention means suitable for co-operating with the gripping elements of the belt portion in order to secure the tape and the belt portion together with a self-gripping system, wherein the belt portion and the tape are made of thermoplastic material, the belt portion presenting stiffness that is greater than the stiffness of the tape.