mhurhangee/ep-ind-claims huggingface dataset:
A self-propelled irrigation system having at least one span (102, 104, 106) and a drive tower, wherein the drive tower comprises: a drive controller (112, 113, 114), wherein the drive controller comprises a power supplying circuit; a drive motor (117, 120), wherein the drive motor is connected to apply torque to a drive shaft; wherein the drive shaft is connected to a least one drive wheel (115, 116, 117); wherein the drive motor is a 3-phase induction motor; and the motive power applied to the drive motor is applied to three phases of the drive motor; the system characterised in that the power supplying circuit is configured to signal an ON condition when a motive power request is input into the controller and an OFF condition when motive power is not input into the system; wherein the power supplying circuit supplies AC motive power to the drive motor when the drive controller signals the ON condition: further wherein the power supplying circuit supplies DC non-motive power to at least one phase of the motor when the drive controller signals the OFF condition and wherein the application of non-motive power brakes and prevents the drive shaft from turning until the DC current is removed. a drive controller (112, 113, 114), wherein the drive controller comprises a power supplying circuit; a drive motor (117, 120), wherein the drive motor is connected to apply torque to a drive shaft; wherein the drive shaft is connected to a least one drive wheel (115, 116, 117); wherein the drive motor is a 3-phase induction motor; and the motive power applied to the drive motor is applied to three phases of the drive motor; the system characterised in that the power supplying circuit is configured to signal an ON condition when a motive power request is input into the controller and an OFF condition when motive power is not input into the system; wherein the power supplying circuit supplies AC motive power to the drive motor when the drive controller signals the ON condition: further wherein the power supplying circuit supplies DC non-motive power to at least one phase of the motor when the drive controller signals the OFF condition and wherein the application of non-motive power brakes and prevents the drive shaft from turning until the DC current is removed.
A method of communicating with an evolved NodeB, eNB in a communication network comprising a 3GPP network and a Wi-Fi access network, the 3GPP network comprising a User Equipment, UE, the eNB, a Mobility Management Entity, MME, and a location function, the method comprising, at the MME: providing information to the location function, the location function storing information associating an identity of the MME with the UE; receiving from a further node (9; 10) which is a Wi-Fi access controller or Service Aware control node a first message, the first message based on information acquired from the location function and identifying a UE connected with the eNB; determining whether an established connection relating to the UE exists between the MME and the eNB; in the event that the established connection exists, forwarding the first message to the eNB using the established connection, receiving a first response message from the eNB including any information requested from the eNB, and forwarding the first response to the further node (9; 10); and in the event that the established connection does not exist, sending a second response message to the further node (9; 10), the second response message informing the further node that the UE is not connected with the eNB. providing information to the location function, the location function storing information associating an identity of the MME with the UE; receiving from a further node (9; 10) which is a Wi-Fi access controller or Service Aware control node a first message, the first message based on information acquired from the location function and identifying a UE connected with the eNB; determining whether an established connection relating to the UE exists between the MME and the eNB; in the event that the established connection exists, forwarding the first message to the eNB using the established connection, receiving a first response message from the eNB including any information requested from the eNB, and forwarding the first response to the further node (9; 10); and in the event that the established connection does not exist, sending a second response message to the further node (9; 10), the second response message informing the further node that the UE is not connected with the eNB.
A sodium ion battery which comprises a cathode, an anode and an electrolyte composition comprising at least one sodium compound selected from the group consisting of sodium monofluorophosphate (Na 2 PO 3 F), sodium difluorophosphate (NaPO 2 F 2) and mixture thereof.
A core assembly (72; 102) for fabricating an air cooled blade outer air seal (BOAS) (62; 100) for a gas turbine engine, the core assembly (72; 102) comprising: an end portion (80A,B; 130A,B) for defining circumferential passages within a circumferential side of a BOAS (62; 100); and a middle portion spaced apart from the end portion (80A,B; 130A,B) and defining circumferential passages through a middle part of the BOAS (62; 100), characterised in that: the end portion (80A, B; 130 A, B) defines a first circumferential cross-section (86; 104; 106; 108) with a first radial height and the middle portion defines a second circumferential cross-section with a second radial height, and the first radial height is greater than the second radial height. an end portion (80A,B; 130A,B) for defining circumferential passages within a circumferential side of a BOAS (62; 100); and a middle portion spaced apart from the end portion (80A,B; 130A,B) and defining circumferential passages through a middle part of the BOAS (62; 100), characterised in that: the end portion (80A, B; 130 A, B) defines a first circumferential cross-section (86; 104; 106; 108) with a first radial height and the middle portion defines a second circumferential cross-section with a second radial height, and the first radial height is greater than the second radial height.
An air cleaner comprising: a flying body capable of floating by using a propeller (21, 22, 23, 24) as propulsion; and a dust collector (4-1, 4-2, 4-3, 4-4) that includes an intake opening and an exhaust opening and attracts dust in the air flowing in from the intake opening, wherein the dust collector (4-1, 4-2, 4-3, 4-4) is fitted to the propeller (21, 22, 23, 24) so that the propeller (21, 22, 23, 24) of the flying body is at any of a position near the intake opening of the dust collector (4-1, 4-2, 4-3, 4-4), a position inside the dust collector (4-1, 4-2, 4-3, 4-4), and a position near the exhaust opening (4-B) so that when the propeller (21, 22, 23, 24) is rotated, surrounding air is forcibly suctioned into the dust collector by an intake force and an exhaust force of the propeller (21, 22, 23, 24), the dust collector (4-1, 4-2, 4-3, 4-4) comprises a plurality of cylindrical attraction units (40A, 40B, 40C) which are fitted concentrically, so that portions (G1, G2) between the plurality of cylindrical attraction units (40A, 40B, 40C) serve as air passages, and forcibly suctioned air is distributed through the plurality of the air passages, and the flying body is a drone structured so that a plurality of the propellers (21, 22, 23, 24) that take in air from an upper side and exhaust air to a lower side are disposed around a main body unit including a control unit that controls flying movement, characterized in that: the dust collector (4-1, 4-2, 4-3, 4-4) electrostatically attracts dust in the air flowing in from the intake opening, and each of the plurality of cylindrical attraction units (40A, 40B, 40C) includes an electrode, and the plurality of cylindrical attraction units (40A, 40B, 40C) are fitted concentrically so that the electrodes adjacent to each other oppose each other, and the dust collector (4-1, 4-2, 4-3, 4-4) comprises a power supply unit to generate a potential difference between the electrodes opposing each other. the dust collector (4-1, 4-2, 4-3, 4-4) electrostatically attracts dust in the air flowing in from the intake opening, and each of the plurality of cylindrical attraction units (40A, 40B, 40C) includes an electrode, and the plurality of cylindrical attraction units (40A, 40B, 40C) are fitted concentrically so that the electrodes adjacent to each other oppose each other, and the dust collector (4-1, 4-2, 4-3, 4-4) comprises a power supply unit to generate a potential difference between the electrodes opposing each other.
Process for producing active material for an electrode of an electrochemical cell, which comprises • a buildup step A in which a pulverulent composite composed of lithium-intercalating carbon particles as component 1, silicon particles as component 2 and a polymer, as component 3, which can be pyrolyzed to form amorphous carbon is formed, and • a pyrolysis step B in which the composite is heat treated in the absence of atmospheric oxygen at a temperature at which the pyrolyzable polymer decomposes to form amorphous carbon, wherein the lithium-intercalating carbon particles are transferred in the buildup step into a fluidized-bed reactor and coated in this with a shell composed of the polymer and the silicon particles in order to effect direct formation of the pulverulent composite, and • the polymer which can be pyrolyzed to form amorphous carbon or a corresponding polymer precursor and • the silicon particles are fed as solution or suspension into the fluidized-bed reactor. • a buildup step A in which a pulverulent composite composed of lithium-intercalating carbon particles as component 1, silicon particles as component 2 and a polymer, as component 3, which can be pyrolyzed to form amorphous carbon is formed, and • a pyrolysis step B in which the composite is heat treated in the absence of atmospheric oxygen at a temperature at which the pyrolyzable polymer decomposes to form amorphous carbon, wherein the lithium-intercalating carbon particles are transferred in the buildup step into a fluidized-bed reactor and coated in this with a shell composed of the polymer and the silicon particles in order to effect direct formation of the pulverulent composite, and • the polymer which can be pyrolyzed to form amorphous carbon or a corresponding polymer precursor and • the silicon particles are fed as solution or suspension into the fluidized-bed reactor.
An antenna assembly comprising: an antenna including a first conductive antenna portion and a second conductive antenna portion, wherein the antenna is an aperture antenna, wherein the first conductive antenna portion of the antenna includes a portion of a metal chassis, and wherein the second conductive antenna portion of the antenna includes a flexible printed circuit antenna pattern; and a filter circuit coupled to the antenna, wherein the filter circuit includes: a low pass filter coupled between the first conductive antenna portion and a specific absorption rate controller, the low pass filter to filter out a radio frequency signal, and pass an SAR signal from the antenna to the SAR controller, wherein the RF signal has a higher frequency than the SAR signal; and a high pass filter coupled between the first conductive antenna portion and the second conductive antenna portion, wherein the second conductive antenna portion is coupled to an RF port, the high pass filter to pass the RF signal from the antenna to the RF port and to filter out the SAR signal. an antenna including a first conductive antenna portion and a second conductive antenna portion, wherein the antenna is an aperture antenna, wherein the first conductive antenna portion of the antenna includes a portion of a metal chassis, and wherein the second conductive antenna portion of the antenna includes a flexible printed circuit antenna pattern; and a filter circuit coupled to the antenna, wherein the filter circuit includes: a low pass filter coupled between the first conductive antenna portion and a specific absorption rate controller, the low pass filter to filter out a radio frequency signal, and pass an SAR signal from the antenna to the SAR controller, wherein the RF signal has a higher frequency than the SAR signal; and a high pass filter coupled between the first conductive antenna portion and the second conductive antenna portion, wherein the second conductive antenna portion is coupled to an RF port, the high pass filter to pass the RF signal from the antenna to the RF port and to filter out the SAR signal. a low pass filter coupled between the first conductive antenna portion and a specific absorption rate controller, the low pass filter to filter out a radio frequency signal, and pass an SAR signal from the antenna to the SAR controller, wherein the RF signal has a higher frequency than the SAR signal; and a high pass filter coupled between the first conductive antenna portion and the second conductive antenna portion, wherein the second conductive antenna portion is coupled to an RF port, the high pass filter to pass the RF signal from the antenna to the RF port and to filter out the SAR signal.
A method of a mobile device comprising: receiving, from a wearable device, a request for an input of text; capturing an image displayed on an interface of a wearable device, wherein the image displayed on the interface of the wearable device includes a text input box; recognizing text input box fields in the captured image; displaying a replica of the text input box based on the recognized text input box fields; receiving, from a user, input text to be input to the replicated text input box fields through the user interface of the mobile device; detecting a user input indicating that text entry is complete and ready to be transferred to the wearable device; entering into a near field communication, NFC, output mode in the mobile device in response to the user input; the mobile device and the wearable device receiving coordinated signals to coordinate a transfer with the wearable device entering an NFC input mode, wherein the NFC input mode is initiated on the wearable device by a data exchange application; and transmitting, to the wearable device, a batch of the input text through a wireless channel. receiving, from a wearable device, a request for an input of text; capturing an image displayed on an interface of a wearable device, wherein the image displayed on the interface of the wearable device includes a text input box; recognizing text input box fields in the captured image; displaying a replica of the text input box based on the recognized text input box fields; receiving, from a user, input text to be input to the replicated text input box fields through the user interface of the mobile device; detecting a user input indicating that text entry is complete and ready to be transferred to the wearable device; entering into a near field communication, NFC, output mode in the mobile device in response to the user input; the mobile device and the wearable device receiving coordinated signals to coordinate a transfer with the wearable device entering an NFC input mode, wherein the NFC input mode is initiated on the wearable device by a data exchange application; and transmitting, to the wearable device, a batch of the input text through a wireless channel.
An electromagnet for a stator comprising: a stator core formed of a back yoke and a tooth projecting from the back yoke: an insulator attached to the tooth; and a coil wound around the insulator, wherein the insulator comprises a winding barrel around which the coil is wound in a plurality of layers, a first flange formed at one end of the winding barrel adjacent to the back yoke, the first flange having a notch through which a line material of the coil passes, and a second flange formed at another end of the winding barrel such that the line material of the coil is guided to the winding barrel through the notch from an outside of the first flange, wound around the winding barrel, and taken out of the first flange through the notch; and the first flange comprises a first portion located on a side of the notch for positioning a winding start of the line material and a second portion located on an opposite side of the notch to the first portion for positioning a winding end of the line material, characterized in that a projecting length of the first portion from the winding barrel is set to be longer than a projecting length of the second portion from the winding barrel. an insulator attached to the tooth; and a coil wound around the insulator, wherein the insulator comprises a winding barrel around which the coil is wound in a plurality of layers, a first flange formed at one end of the winding barrel adjacent to the back yoke, the first flange having a notch through which a line material of the coil passes, and a second flange formed at another end of the winding barrel such that the line material of the coil is guided to the winding barrel through the notch from an outside of the first flange, wound around the winding barrel, and taken out of the first flange through the notch; and the first flange comprises a first portion located on a side of the notch for positioning a winding start of the line material and a second portion located on an opposite side of the notch to the first portion for positioning a winding end of the line material, characterized in that a projecting length of the first portion from the winding barrel is set to be longer than a projecting length of the second portion from the winding barrel.
A valve comprising: a first valve wall; a second valve wall; the first valve wall and the second valve wall being joined together to form a fluid communication channel; a protruding valve element joined to the second valve wall and extending into the fluid communication channel, wherein a portion of the fluid communication channel is formed between the protruding valve element and the first valve wall; a hinge element formed on the second valve wall, thereby defining a hinged header, the hinge element being positioned so that a first portion of the protruding valve element is below the hinge element and a second portion of the protruding valve element is above the hinge element; the hinged header having a first configuration wherein the header obstructs the fluid communication channel and a second configuration wherein the fluid communication channel is free of obstruction by the hinged header. a first valve wall; a second valve wall; the first valve wall and the second valve wall being joined together to form a fluid communication channel; a protruding valve element joined to the second valve wall and extending into the fluid communication channel, wherein a portion of the fluid communication channel is formed between the protruding valve element and the first valve wall; a hinge element formed on the second valve wall, thereby defining a hinged header, the hinge element being positioned so that a first portion of the protruding valve element is below the hinge element and a second portion of the protruding valve element is above the hinge element; the hinged header having a first configuration wherein the header obstructs the fluid communication channel and a second configuration wherein the fluid communication channel is free of obstruction by the hinged header.
A resonance type power transmission device comprising: a resonator for transmission; a resonator for reception whose resonance condition is matched to that of said resonator for transmission; and a transmission power supply to supply electric power; a transmission antenna to transmit the electric power from the transmission power supply; a reception antenna to receive the electric power from the transmission antenna via the resonator for transmission and the resonator for reception; and a reception power supply to receive the electric power received by the reception antenna, characterized in that the device comprises a conductive substance establishing an electrical single point connection between said resonator for transmission and said resonator for reception such that the resonator for transmission and the resonator for reception are connected to each other at an electrical single point. a resonator for transmission; a resonator for reception whose resonance condition is matched to that of said resonator for transmission; and a transmission power supply to supply electric power; a transmission antenna to transmit the electric power from the transmission power supply; a reception antenna to receive the electric power from the transmission antenna via the resonator for transmission and the resonator for reception; and a reception power supply to receive the electric power received by the reception antenna,
A controller that controls an internal combustion engine comprising a processor (14B, 14C) that traps a predetermined substance contained in exhaust gas and processes the substance, the controller comprising: an estimator that estimates a trap amount (A, E) of the substance trapped by the processor (14B, 14C); a regeneration controller that carries out, when a predetermined regeneration condition is satisfied, regeneration control that removes the substance from the processor (14B, 14C); a setter that sets, when a predetermined idling stop condition is satisfied while the regeneration control is being carried out, a stopping time (ts) of the internal combustion engine, the stopping time (ts) being based on the trap amount (A, E); and an idling stop controller that stops, when the stopping time (ts) is set, the internal combustion engine for the stopping time (ts) from the time point at which the predetermined idling stop condition is satisfied wherein the setter sets the stopping time (ts) to zero when the trap amount (A, E) exceeds a first threshold (A1, E1), and the setter sets the stopping time (ts) to be equal to or more than a minimum time (ts 0, ts 1) when the trap amount (A, E) is equal to or less than the first threshold (A1, E1), the minimum time (ts 0, ts 1) being longer than zero. an estimator that estimates a trap amount (A, E) of the substance trapped by the processor (14B, 14C); a regeneration controller that carries out, when a predetermined regeneration condition is satisfied, regeneration control that removes the substance from the processor (14B, 14C); a setter that sets, when a predetermined idling stop condition is satisfied while the regeneration control is being carried out, a stopping time (ts) of the internal combustion engine, the stopping time (ts) being based on the trap amount (A, E); and