mhurhangee/ep-ind-claims huggingface dataset:
A brake control system for controlling a braking operation applied to a wheel of a wheel assembly, comprising: a brake control unit configured to output a control signal to a Proportional Integral Derivative, PID, controller; the PID controller in communication with the brake control unit, the PID controller configured to receive the control signal from the brake control unit and an adjustment signal from an antiskid brake controller and output a modified control signal; a wheel speed sensor configured to output a wheel speed signal indicative of a speed of a wheel to the antiskid brake controller; and the antiskid brake controller in communication with the PID controller and with the wheel speed sensor, the antiskid brake controller configured to receive the wheel speed signal from the wheel speed sensor and to provide the adjustment signal to the PID controller; wherein the antiskid brake controller provides the adjustment signal to the PID controller in proportion to the wheel speed signal; wherein the modified control signal is adjusted based on the control signal and the adjustment signal; and wherein a reset schedule of an integrator of the PID controller is continually reset based on the wheel speed signal; and characterized in that the adjustment signal comprises a first threshold at a first speed and a second threshold at a second speed, wherein the first speed is slower than the second speed and the first threshold is smaller than the second threshold. a brake control unit configured to output a control signal to a Proportional Integral Derivative, PID, controller; the PID controller in communication with the brake control unit, the PID controller configured to receive the control signal from the brake control unit and an adjustment signal from an antiskid brake controller and output a modified control signal; a wheel speed sensor configured to output a wheel speed signal indicative of a speed of a wheel to the antiskid brake controller; and the antiskid brake controller in communication with the PID controller and with the wheel speed sensor, the antiskid brake controller configured to receive the wheel speed signal from the wheel speed sensor and to provide the adjustment signal to the PID controller; wherein the antiskid brake controller provides the adjustment signal to the PID controller in proportion to the wheel speed signal; wherein the modified control signal is adjusted based on the control signal and the adjustment signal; and wherein a reset schedule of an integrator of the PID controller is continually reset based on the wheel speed signal; and characterized in that the adjustment signal comprises a first threshold at a first speed and a second threshold at a second speed, wherein the first speed is slower than the second speed and the first threshold is smaller than the second threshold.
An amorphous carbon film, comprising: a mixed layer on a surface of a base material, said mixed layer containing portions of the base material and at least one substance selected from the group consisting of B, Al, Ti, V, Cr, Zr, Nb, Mo, Hf and Ta, said mixed layer formed with a thickness of 0.5 nm or greater 10 nm or less; and an amorphous carbon layer formed on top of said mixed layer, wherein: an average oxygen concentration contained in said mixed layer is 1 at% or less; a concentration of carbon in the film is 99.5 at% or greater; a concentration of hydrogen in the film is 0.5 at% or less; and a concentration of a rare gas element in the film is 0.5 at% or less. a mixed layer on a surface of a base material, said mixed layer containing portions of the base material and at least one substance selected from the group consisting of B, Al, Ti, V, Cr, Zr, Nb, Mo, Hf and Ta, said mixed layer formed with a thickness of 0.5 nm or greater 10 nm or less; and an amorphous carbon layer formed on top of said mixed layer, an average oxygen concentration contained in said mixed layer is 1 at% or less; a concentration of carbon in the film is 99.5 at% or greater; a concentration of hydrogen in the film is 0.5 at% or less; and a concentration of a rare gas element in the film is 0.5 at% or less.
A lead engagement device configured to be positioned in a lead lumen of a lead, the lead engagement device comprising: a hypotube comprising: a wall comprising an inner surface defining an inner lumen and an outer surface opposite the inner surface; a plurality of apertures extending through the wall from the inner surface to the outer surface; and a plurality of lead engagement fingers coupled to the wall and extending outwardly and proximally from the outer surface, each of the plurality of lead engagement fingers disposed adjacent to one of the plurality of apertures and comprising a portion of the wall cut to form said one of the apertures, the plurality of lead engagement fingers being configured to permit relative motion between the lead engagement device and the lead when applying a first force to the lead engagement device, the plurality of lead engagement fingers being configured to engage the lead and inhibit relative motion between the lead engagement device and the lead when applying a second force to the lead engagement device, the second force being applied in an opposite direction than the first force. a wall comprising an inner surface defining an inner lumen and an outer surface opposite the inner surface; a plurality of apertures extending through the wall from the inner surface to the outer surface; and a plurality of lead engagement fingers coupled to the wall and extending outwardly and proximally from the outer surface, each of the plurality of lead engagement fingers disposed adjacent to one of the plurality of apertures and comprising a portion of the wall cut to form said one of the apertures, the plurality of lead engagement fingers being configured to permit relative motion between the lead engagement device and the lead when applying a first force to the lead engagement device, the plurality of lead engagement fingers being configured to engage the lead and inhibit relative motion between the lead engagement device and the lead when applying a second force to the lead engagement device, the second force being applied in an opposite direction than the first force.
A golf bag (100, 900), comprising: a container defining a main compartment for holding a plurality of golf clubs, the container including a top portion having an open first end for receiving golf club shafts to be held; a flip pocket that is capable of moving between a flipped downward position and a flipped upward position wherein the flip pocket includes a first part permanently engaged with or integrally formed as part of the container proximate to the top portion of the container and a second part not permanently engaged with and not integrally formed as part of the container, wherein the flip pocket is movable between an engaged position at the flipped downward position and a disengaged position at the flipped upward position; a releasable connector system (126, 402, 500, 600, 700, 702, 800, 802) for releasably holding the flip pocket at the engaged position, wherein the releasable connector system includes: (a) a first component (126, 402B, 600B, 700, 802) engaged with or integrally formed as part of the flip pocket closer to the second part of the flip pocket than to the first part of the flip pocket and (b) a second component (126, 402A, 600A, 702, 800) engaged with or integrally formed as part of the container at a location so as to be able to interact with the first component when the flip pocket is at the engaged position; and wherein the first part is a top edge of the flip pocket and the second part is a bottom edge of the flip pocket. a container defining a main compartment for holding a plurality of golf clubs, the container including a top portion having an open first end for receiving golf club shafts to be held; a flip pocket that is capable of moving between a flipped downward position and a flipped upward position wherein the flip pocket includes a first part permanently engaged with or integrally formed as part of the container proximate to the top portion of the container and a second part not permanently engaged with and not integrally formed as part of the container, wherein the flip pocket is movable between an engaged position at the flipped downward position and a disengaged position at the flipped upward position; a releasable connector system (126, 402, 500, 600, 700, 702, 800, 802) for releasably holding the flip pocket at the engaged position, wherein the releasable connector system includes: (a) a first component (126, 402B, 600B, 700, 802) engaged with or integrally formed as part of the flip pocket closer to the second part of the flip pocket than to the first part of the flip pocket and (b) a second component (126, 402A, 600A, 702, 800) engaged with or integrally formed as part of the container at a location so as to be able to interact with the first component when the flip pocket is at the engaged position; and wherein the first part is a top edge of the flip pocket and the second part is a bottom edge of the flip pocket.
A procedure for creating a dental prosthetic, the procedure comprising: registering three-dimensional 3D optical impression image data of a tooth restoration site and 3D volume image data of the tooth restoration site; and removing image data corresponding to soft tissue in the tooth restoration site from the 3D dental impression image data, wherein the 3D optical impression is registered to the 3D volume image data, wherein the 3D optical impression registered to the 3D volume image data is imaging accurately the position and extent of the soft gum tissue and distinguish the soft tissue from hard tissue in the tooth restoration site, wherein the 3D volume image data is used to remove the soft gum tissue from the 3D optical impression, wherein the 3D volume image data includes one or more scans generated by one of cone-beam computed tomography, tomosynthesis, ultrasonography, magnetic resonance imaging, and positron emission tomography, wherein the image data corresponding to soft gum tissue local to a preparation margin of a tooth is removed from the 3D optical impression, wherein the image data corresponding to soft gum tissue is removed using an automated image processing procedure, wherein a model of a dental prosthetic is generated, based on the 3D dental impression image data in which the image data corresponding to soft tissue in the tooth restoration site has been removed.
A device comprising: a user input interface configured to obtain a voice input that is input by a first user of the device; a communication interface configured to transmit the obtained voice input to another device; and a controller configured to: obtain recognition information indicating a meaning of the obtained voice input, and determine whether an abnormal situation occurs, in which a second user of the other device does not understand the transmitted voice input, based on at least one voice input of the second user, wherein the communication interface is further configured to transmit the obtained recognition information to the other device, based on a result of the determination. a user input interface configured to obtain a voice input that is input by a first user of the device; a communication interface configured to transmit the obtained voice input to another device; and a controller configured to: obtain recognition information indicating a meaning of the obtained voice input, and determine whether an abnormal situation occurs, in which a second user of the other device does not understand the transmitted voice input, based on at least one voice input of the second user, wherein the communication interface is further configured to transmit the obtained recognition information to the other device, based on a result of the determination. obtain recognition information indicating a meaning of the obtained voice input, and determine whether an abnormal situation occurs, in which a second user of the other device does not understand the transmitted voice input, based on at least one voice input of the second user, wherein the communication interface is further configured to transmit the obtained recognition information to the other device, based on a result of the determination.
A method for assembling an element with a magnetic pole for a rotor for an axial flux electric machine, said rotor comprising a disc shaped body centred on an axis of rotation and extending in a main plane, said body having at least one housing, said magnetic pole element comprising a plurality of unit magnets, said method comprising the following steps: e1) forming a first row of at least two unit magnets and holding the unit magnets of said first row by a strip of adhesive material; e2) disposing said first row on an assembly support having a curvature equal or substantially equal to the curvature of a peripheral edge of the housing around the axis of rotation, so that the unit magnets of said first row are disposed along a first line which is comprised in an assembly plane and has a non-zero curvature; e3) forming another row of at least two other unit magnets and maintaining the unit magnets of said other row by another strip of adhesive material; e4) disposing said other row on said first row, so that the unit magnets of said other row are disposed along another line which is comprised in said assembly plane and has a non-zero curvature; e5) repeating steps e3) and e4) until assembling the magnetic pole element. e1) forming a first row of at least two unit magnets and holding the unit magnets of said first row by a strip of adhesive material; e2) disposing said first row on an assembly support having a curvature equal or substantially equal to the curvature of a peripheral edge of the housing around the axis of rotation, so that the unit magnets of said first row are disposed along a first line which is comprised in an assembly plane and has a non-zero curvature; e3) forming another row of at least two other unit magnets and maintaining the unit magnets of said other row by another strip of adhesive material; e4) disposing said other row on said first row, so that the unit magnets of said other row are disposed along another line which is comprised in said assembly plane and has a non-zero curvature; e5) repeating steps e3) and e4) until assembling the magnetic pole element.
A method for communication by an apparatus, comprising: generating an aggregate physical layer, PHY, packet comprising a plurality PHY packets for transmission to a plurality of nodes, wherein the first PHY packet of the plurality of PHY packets comprises a Block Acknowledgement, ACK, Transmission Allocation, BATA, frame comprising a resource allocation for each of the plurality of nodes to send an acknowledgement to the apparatus, wherein the resource allocation comprises a data rate for each of the plurality of nodes to send its respective acknowledgement to the apparatus; wherein the data rate is the same for each of the plurality of nodes and corresponds to a lowest reliable data rate amongst all nodes of the plurality of nodes, or wherein, for each one of the plurality of nodes, the data rate is the lowest reliable data rate for that one of the plurality of nodes; and transmitting the aggregate physical layer packet. generating an aggregate physical layer, PHY, packet comprising a plurality PHY packets for transmission to a plurality of nodes, wherein the first PHY packet of the plurality of PHY packets comprises a Block Acknowledgement, ACK, Transmission Allocation, BATA, frame comprising a resource allocation for each of the plurality of nodes to send an acknowledgement to the apparatus, wherein the resource allocation comprises a data rate for each of the plurality of nodes to send its respective acknowledgement to the apparatus; wherein the data rate is the same for each of the plurality of nodes and corresponds to a lowest reliable data rate amongst all nodes of the plurality of nodes, or wherein, for each one of the plurality of nodes, the data rate is the lowest reliable data rate for that one of the plurality of nodes; and transmitting the aggregate physical layer packet.
Information equipment that is controlled by a control apparatus and located in a consumer's facility, comprising: a communication unit (310, 320) configured to perform transmission and reception of a command conforming to a predetermined protocol with the control apparatus via a network connected to the control apparatus, and receives an operational instruction from the control apparatus; and a control unit configured to control an operation of the information equipment according to the operational instruction, wherein the communication unit (310, 320) transmits a breakdown notification message indicating that the network has had a breakdown to the control apparatus when the network is restored after the breakdown, the information equipment is characterised in that, that the information equipment is at least one of a distributed power supply, a power storage apparatus, and a thermal storage apparatus. a communication unit (310, 320) configured to perform transmission and reception of a command conforming to a predetermined protocol with the control apparatus via a network connected to the control apparatus, and receives an operational instruction from the control apparatus; and a control unit configured to control an operation of the information equipment according to the operational instruction, wherein the communication unit (310, 320) transmits a breakdown notification message indicating that the network has had a breakdown to the control apparatus when the network is restored after the breakdown, the information equipment is characterised in that, that the information equipment is at least one of a distributed power supply, a power storage apparatus, and a thermal storage apparatus.
A method for raising or lowering a load parallel to a wind turbine tower of a wind turbine, wherein the load is a spare part or service equipment which needs to be placed atop or descended from a nacelle of the wind turbine, the method comprising the following steps: raising or lowering the load using a cable, and exerting a force acting on the load towards the tower using guiding means supported at the tower for preventing a swinging of the load due a force caused by wind, wherein the guiding means comprise a closed loop around the tower and are moveably supported at the tower and move along the tower when raising or lowering the load, wherein a tack-line is attached to the guiding means for additionally controlling the load. raising or lowering the load using a cable, and exerting a force acting on the load towards the tower using guiding means supported at the tower for preventing a swinging of the load due a force caused by wind, wherein the guiding means comprise a closed loop around the tower and are moveably supported at the tower and move along the tower when raising or lowering the load, wherein a tack-line is attached to the guiding means for additionally controlling the load.
An oven comprising: a main body; a cooking chamber formed inside the main body and including a bottom wall; a burner provided below the bottom wall of the cooking chamber and configured to generate heated air; a door arranged to open or close the cooking chamber; a bottom plate provided to cover the bottom wall of the cooking chamber and to be spaced apart from the bottom wall of the cooking chamber; and an outlet for heated air formed between an end of the bottom plate facing the door and the bottom wall of the cooking chamber, such that the heated air generated from the burner is discharged toward the door, characterized in a supporting plate coupled to the bottom wall of the cooking chamber between the bottom plate and the bottom wall, and including at least one hole for moving heated air formed at an end of the supporting plate facing the door, and a guide bracket provided between the bottom plate and the supporting plate to guide the heated air from the at least one hole for moving heated air to the outlet for heated air. a main body; a cooking chamber formed inside the main body and including a bottom wall; a burner provided below the bottom wall of the cooking chamber and configured to generate heated air; a door arranged to open or close the cooking chamber; a bottom plate provided to cover the bottom wall of the cooking chamber and to be spaced apart from the bottom wall of the cooking chamber; and an outlet for heated air formed between an end of the bottom plate facing the door and the bottom wall of the cooking chamber, such that the heated air generated from the burner is discharged toward the door, characterized in a supporting plate coupled to the bottom wall of the cooking chamber between the bottom plate and the bottom wall, and including at least one hole for moving heated air formed at an end of the supporting plate facing the door, and a guide bracket provided between the bottom plate and the supporting plate to guide the heated air from the at least one hole for moving heated air to the outlet for heated air.
A lithium secondary battery comprising: a mixed positive electrode active material obtained by mixing a lithium manganese oxide represented by [Chemical Formula 1] shown below and a metal oxide having an olivine structure represented by [Chemical Formula 2] shown below and charged at a voltage of 4.45 V or higher based on a positive electrode potential, wherein the mixed positive electrode active material comprises the metal oxide having the olivine structure in an amount of 10 to 40 weight parts; [Chemical Formula 1] a Li 2 MnO 3 -(1-a)LiMO 2 wherein 0<a<1, and M is simultaneously composed of Mn, Ni, and Co, [Chemical Formula 2] LiFePO 4 wherein the metal oxide having the olivine structure in the mixed positive electrode active material is coated with a conductive material. a mixed positive electrode active material obtained by mixing a lithium manganese oxide represented by [Chemical Formula 1] shown below and a metal oxide having an olivine structure represented by [Chemical Formula 2] shown below and charged at a voltage of 4.45 V or higher based on a positive electrode potential, wherein the mixed positive electrode active material comprises the metal oxide having the olivine structure in an amount of 10 to 40 weight parts; [Chemical Formula 1] a Li 2 MnO 3 -(1-a)LiMO 2 wherein 0<a<1, and M is simultaneously composed of Mn, Ni, and Co, [Chemical Formula 2] LiFePO 4 wherein the metal oxide having the olivine structure in the mixed positive electrode active material is coated with a conductive material.