mhurhangee/ep-ind-claims huggingface dataset:
A wireless power transmission device for transmitting electric power to a wireless power reception device with a reception coil in a wireless manner, comprising; a first transmission coil; and a second transmission coil disposed inside the first transmission coil, wherein the first transmission coil and the second transmission coil are both configured to transmit electric power to the wireless power reception device by magnetic coupling to the reception coil, wherein the wireless power transmission device transmits electric power to the wireless power reception device through one of the first and second transmission coils (270, 290), based on a coupling state between the wireless power transmission device and the wireless power reception device depending on distance, angle or position thereof, so as to transmit electric power to the wireless power reception device through a coil for allowing the magnetic coupling to be better wherein the coupling state is indicated by a coupling coefficient between the first transmission coil and the reception coil provided in the wireless power reception device, or a coupling coefficient between the second transmission coil and the reception coil provided in the wireless power reception device, characterised in that sizes of the first and second transmission coils (270, 290) are set such that a point, at which the coupling coefficient between the first transmission coil and the reception coil of the wireless power reception device is minimized, coincides with a point at which the coupling coefficient between the second transmission coil and the reception coil of the wireless power reception device is maximized. a first transmission coil; and a second transmission coil disposed inside the first transmission coil, wherein the first transmission coil and the second transmission coil are both configured to transmit electric power to the wireless power reception device by magnetic coupling to the reception coil, wherein the wireless power transmission device transmits electric power to the wireless power reception device through one of the first and second transmission coils (270, 290), based on a coupling state between the wireless power transmission device and the wireless power reception device depending on distance, angle or position thereof, so as to transmit electric power to the wireless power reception device through a coil for allowing the magnetic coupling to be better wherein the coupling state is indicated by a coupling coefficient between the first transmission coil and the reception coil provided in the wireless power reception device, or a coupling coefficient between the second transmission coil and the reception coil provided in the wireless power reception device, characterised in that sizes of the first and second transmission coils (270, 290) are set such that a point, at which the coupling coefficient between the first transmission coil and the reception coil of the wireless power reception device is minimized, coincides with a point at which the coupling coefficient between the second transmission coil and the reception coil of the wireless power reception device is maximized.
Deflector for guiding lubricant to supply a hollow shaft, comprising a disc arc and a tubular nozzle for introducing the lubricant, which nozzle is intended to be engaged inside the hollow shaft, the disc arc forming on one of its faces at least one cavity intended to be capped, at least in part, by the end of the shaft and designed to collect the flow of lubricant coming from a guide chute and guide it towards the tubular nozzle, characterized in that the cavity is delimited by a lateral wall perpendicular to the plane of the disc arc along part of the edge of the disc arc, and by a collar extending radially from the cavity, the collar being separated from the lateral wall by a gap that is designed to provide fluidic communication between the cavity and the chute.
A bottom hole assembly for use in a subterranean well, the bottom hole assembly comprising: a whipstock; a mill releasably secured to the whipstock; an antenna; a release mechanism, in which the release mechanism is configured to release the mill from the whipstock in response to a predetermined release radio frequency signal received by the antenna; and a valve and a controller, in which the controller is configured to operate the valve in response to the predetermined release radio frequency signal received by the antenna, and in which the valve is configured to selectively open a flow path between a piston of the release mechanism and a flow passage in the mill. a whipstock; a mill releasably secured to the whipstock; an antenna; a release mechanism, in which the release mechanism is configured to release the mill from the whipstock in response to a predetermined release radio frequency signal received by the antenna; and a valve and a controller, in which the controller is configured to operate the valve in response to the predetermined release radio frequency signal received by the antenna, and in which the valve is configured to selectively open a flow path between a piston of the release mechanism and a flow passage in the mill.
A training pant (20;520;620) comprising: a chassis (34;522;622); an absorbent assembly formed separately from the chassis (34;522;622), the absorbent assembly attached to the chassis (34;522;622) by an attachment area (200;530;630) comprising a front attachment zone (202;532;632), a rear attachment zone (204;534;634), and a central attachment zone (206;536;636) extending between the front and rear attachment zones, the front and rear attachment zones having a first width and a second width, respectively, and the central attachment zone having a third width less than the first and second widths; and a pair of leg elastic members disposed along opposite sides of the training pant (20;520;620), and wherein the absorbent assembly overlaps at least a portion of the leg elastic members; characterised in that the width of the central attachment zone (206;536;636) is less than the minimum lateral distance between the leg elastic members, and the central attachment zone (206;536;636) extends a suitable length along the training pant (20;520;620) such that the attachment area (200;530;630) does not overlap the leg elastic members. a chassis (34;522;622); an absorbent assembly formed separately from the chassis (34;522;622), the absorbent assembly attached to the chassis (34;522;622) by an attachment area (200;530;630) comprising a front attachment zone (202;532;632), a rear attachment zone (204;534;634), and a central attachment zone (206;536;636) extending between the front and rear attachment zones, the front and rear attachment zones having a first width and a second width, respectively, and the central attachment zone having a third width less than the first and second widths; and a pair of leg elastic members disposed along opposite sides of the training pant (20;520;620), and wherein the absorbent assembly overlaps at least a portion of the leg elastic members; characterised in that the width of the central attachment zone (206;536;636) is less than the minimum lateral distance between the leg elastic members, and the central attachment zone (206;536;636) extends a suitable length along the training pant (20;520;620) such that the attachment area (200;530;630) does not overlap the leg elastic members.
A navigation system for performing a transfer alignment, the navigation system comprising: a set of local inertial sensors; a local strap-down navigation processor coupled to the set of local inertial sensors, the local strap-down navigation processor receiving inertial navigation data from the set of local inertial sensors and converting the inertial navigation data into a navigation solution; a local Kalman filter coupled to the local strap-down navigation processor, the local Kalman filter receiving the navigation solution produced by the local strap-down navigation processor; a master Kalman filter, the local Kalman filter further coupled to the master Kalman filter; wherein the local Kalman filter is adapted to receive a first message from the master Kalman filter comprising a Precision Transfer Alignment Message (PTAM) that includes at least one navigation aid measurement; wherein the local Kalman filter is adapted to input the navigation aid measurement into a measurement formation algorithm and calculate a measurement residual based on the navigation aid measurement; wherein the local Kalman filter is adapted to receive a second message from the master Kalman filter comprising a Reset Transfer Alignment Message (RTAM) that includes a bias correction applied by the master Kalman filter as a navigation reset; wherein the local Kalman filter is adapted to input the bias correction into a state propagation algorithm where the bias correction provided by the bias correction is added to a navigation state of the local Kalman filter and propagated. a set of local inertial sensors; a local strap-down navigation processor coupled to the set of local inertial sensors, the local strap-down navigation processor receiving inertial navigation data from the set of local inertial sensors and converting the inertial navigation data into a navigation solution; a local Kalman filter coupled to the local strap-down navigation processor, the local Kalman filter receiving the navigation solution produced by the local strap-down navigation processor; a master Kalman filter, the local Kalman filter further coupled to the master Kalman filter; wherein the local Kalman filter is adapted to receive a first message from the master Kalman filter comprising a Precision Transfer Alignment Message (PTAM) that includes at least one navigation aid measurement; wherein the local Kalman filter is adapted to input the navigation aid measurement into a measurement formation algorithm and calculate a measurement residual based on the navigation aid measurement; wherein the local Kalman filter is adapted to receive a second message from the master Kalman filter comprising a Reset Transfer Alignment Message (RTAM) that includes a bias correction applied by the master Kalman filter as a navigation reset; wherein the local Kalman filter is adapted to input the bias correction into a state propagation algorithm where the bias correction provided by the bias correction is added to a navigation state of the local Kalman filter and propagated.
Valve, in particular a throttle valve, for influencing a volume flow in an ambient air and air conditioning system, wherein the valve is arranged in an installation frame comprising an opening, and wherein the valve and the installation frame form an assembly unit, wherein the valve is mounted such that it can be pivoted about a shaft or axis in the opening, in particular arranged centrally to the opening, and wherein the installation frame and the valve are in each case made of plastic, wherein the installation frame comprises a collar, surrounding the opening part, in particular the complete opening, and formed in the manner of a support, characterised in that the collar comprises, in the region of an end of the shaft or the axis, a cut-out aperture which accommodates the shaft or axis in the manner of a latch.
A crystalline form of the salt of sitagliptin with L-tartaric acid, which is characterized by the following reflections in the x-ray powder pattern: 5.9; 9.8; 14.2; 19.5; 23.8 and 26.2 ± 0.2° 2-theta, using the CuKa radiation λ=1.542 Å = 0.1542 nm.
Device for monitoring a dangerous situation between a work machine and an operator of the work machine, characterized by a transmitting coil arrangement, which is arranged on the work machine and adapted to generate a magnetic field with work machine specific identification, a receiver coil arrangement, which is arranged on a remote control of the operator for controlling the work machine, on a helmet and/or a warning vest of the operator of the remote control, or which is provided in the immediate vicinity of the remote control and its operator and is adapted to receive the magnetic field of the transmitting coil arrangement, wherein a receiver evaluation unit downstream of the receiver coil arrangement is adapted to evaluate the magnetic field of the transmitting coil arrangement to determine the distance and/or the position of the work machine relative to the receiver coil arrangement, and wherein a data transmission link, which is, among other things, adapted for the transmission of control commands for controlling the work machine, between a transmitting unit of the remote control and a receiver unit of the work machine is adapted, depending on the position of the work machine, the distance of the work machine relative to the receiver coil arrangement and/or a control command of the remote control applied to the work machine: - to persist if a dangerous situation, wherein the work machine has a distance to the receiver coil arrangement endangering the operator of the remote control, is not recognizable, - to persist if such a dangerous situation is recognizable and the distance or the position of the work machine relative to the receiver coil arrangement is not aggravating, i.e., the work machine moves away from the receiver coil arrangement, or - to be interrupted if such a dangerous situation is recognizable and the distance and/or the position of the work machine relative to the receiver coil arrangement is aggravating, i.e., the work machine moves towards the receiver coil arrangement, or if there is a situation, wherein the distance or the position of the work machine relative to the receiver coil arrangement is unknown. - to persist if a dangerous situation, wherein the work machine has a distance to the receiver coil arrangement endangering the operator of the remote control, is not recognizable, - to persist if such a dangerous situation is recognizable and the distance or the position of the work machine relative to the receiver coil arrangement is not aggravating, i.e., the work machine moves away from the receiver coil arrangement, or - to be interrupted if such a dangerous situation is recognizable and the distance and/or the position of the work machine relative to the receiver coil arrangement is aggravating, i.e., the work machine moves towards the receiver coil arrangement, or if there is a situation, wherein the distance or the position of the work machine relative to the receiver coil arrangement is unknown.
A fiber comprising an olefin polymer composition comprising 100 parts by weight of an olefin polymer and 0.1 to 30 parts by weight of an acid-form anionic surfactant, the acid-form anionic surfactant having been melt kneaded in the fiber, wherein the acid-form anionic surfactant is a phosphate ester surfactant in which a hydrophobic group has not less than 9 carbon atoms, and the olefin polymer is a propylene/α-olefin random copolymer comprising propylene and an α-olefin and having a melting point (Tm) in the range of 125 to 155°C.
An insect-repelling textile product comprising: - at least one or more cellulose fibres, and - one or more cellulose-extruded fibres comprising an insect-repelling means, in which said cellulose fibres are comprised in an amount of minimally 35% by weight with respect to the total weight of the textile product, wherein said cellulose-extruded fibre comprises micro-fine dispersions of the insect-repelling means, characterized in that the insect-repelling textile product further comprises one or more synthetic fibres, in which said synthetic fibres comprise polyester fibres and/or polyamide fibres. - at least one or more cellulose fibres, and - one or more cellulose-extruded fibres comprising an insect-repelling means,
A solid oxide fuel cell single cell, comprising: a fuel cell unit in which an anode electrode, a solid electrolyte layer and a cathode electrode are sequentially laminated; a separator; and a current collection assisting layer disposed between the cathode electrode of the fuel cell unit and the separator, wherein the separator comprises protruded portions that are in contact with the current collection assisting layer to form gas channels between the separator and the current collection assisting layer, characterized in that at least a part of an end of the cathode electrode in a planar direction of the cathode electrode extends outward beyond an end of the current collection assisting layer in a planar direction of the current collection assisting layer. wherein the separator comprises protruded portions that are in contact with the current collection assisting layer to form gas channels between the separator and the current collection assisting layer, characterized in that at least a part of an end of the cathode electrode in a planar direction of the cathode electrode extends outward beyond an end of the current collection assisting layer in a planar direction of the current collection assisting layer.
A magnetic currency detector head configured to output an electrical signal in correspondence with an external magnetic field, the detector head comprising: at least one single tunnelling magnetoresistive "TMR" magnetic field sensor chip installed above a magnetic excitation element, a signal processing circuit, an output pin, and a circuit board; the sensing direction of the chip being parallel to the surface of the chip, and the direction of a magnetic excitation field generated at the chip by the magnetic excitation element being perpendicular to the surface of the chip, wherein the single TMR magnetic field sensor chip comprises: a substrate, a magnetic biasing structure deposited on the substrate, a magnetoresistive element, and an input terminal and an output terminal; wherein the magnetoresistive element consists of at least one magnetic tunnel junction "MTJ" unit; the MTJ unit consists of at least one MTJ string; the MTJ string consists of at least one MTJ; the sensing directions of the magnetoresistive element and the at least one MTJ are the same as the sensing direction of the chip; wherein the magnetic biasing structure generates a bias magnetic field on the chip that is parallel to the surface of the chip and perpendicular to the sensing direction of the chip; and wherein the signal processing circuit is configured to produce the electrical signal, which is electrically connected to the output pin through the circuit board. at least one single tunnelling magnetoresistive "TMR" magnetic field sensor chip installed above a magnetic excitation element, a signal processing circuit, an output pin, and a circuit board; the sensing direction of the chip being parallel to the surface of the chip, and the direction of a magnetic excitation field generated at the chip by the magnetic excitation element being perpendicular to the surface of the chip, wherein the single TMR magnetic field sensor chip comprises: a substrate, a magnetic biasing structure deposited on the substrate, a magnetoresistive element, and an input terminal and an output terminal; a substrate, a magnetic biasing structure deposited on the substrate, a magnetoresistive element, and an input terminal and an output terminal; wherein the magnetoresistive element consists of at least one magnetic tunnel junction "MTJ" unit; the MTJ unit consists of at least one MTJ string; the MTJ string consists of at least one MTJ; the sensing directions of the magnetoresistive element and the at least one MTJ are the same as the sensing direction of the chip; wherein the magnetic biasing structure generates a bias magnetic field on the chip that is parallel to the surface of the chip and perpendicular to the sensing direction of the chip; and wherein the signal processing circuit is configured to produce the electrical signal, which is electrically connected to the output pin through the circuit board.
A battery pack comprising: a battery cell comprising a terminal surface on which an electrode terminal is formed, a bottom surface which is opposite the terminal surface, and a lateral surface which is between the terminal surface and the bottom surface; a first tank which faces the terminal surface of the battery cell; a second tank which extends from the first tank and faces the lateral surface of the battery cell; and a third tank which extends from the second tank and faces the bottom surface of the battery cell, wherein a cavity is formed in the first and second tanks (T1, T2) to extend across the first and second tanks (T1, T2), and the cavity is filled with a first cooling medium and is fluidically isolated from outside of the battery pack, and a flow path is formed in the third tank to receive a flow of a second cooling medium which is different from the first cooling medium. a battery cell comprising a terminal surface on which an electrode terminal is formed, a bottom surface which is opposite the terminal surface, and a lateral surface which is between the terminal surface and the bottom surface; a first tank which faces the terminal surface of the battery cell; a second tank which extends from the first tank and faces the lateral surface of the battery cell; and a third tank which extends from the second tank and faces the bottom surface of the battery cell, wherein a cavity is formed in the first and second tanks (T1, T2) to extend across the first and second tanks (T1, T2), and the cavity is filled with a first cooling medium and is fluidically isolated from outside of the battery pack, and a flow path is formed in the third tank to receive a flow of a second cooling medium which is different from the first cooling medium.