mhurhangee/ep-ind-claims huggingface dataset:
System of an electric motor which controls an actuator for a vehicle driveline clutch system and a safety device for the electric motor, where the motor includes at least three coils (20a, 20b and 20c) and where resistors (22a, 22b and 22c) are provided and connected with each of the coils (20a, 20b and 20c) and the resistors (22a, 22b and 22c) are configured so that their resistance can be adjusted, the safety device comprising: a safety module including switches (30a, 30b and 30c) for each of the coils (20a, 20b and 20c) of the motor, respectively; a safety control module configured to provide an output signal to the safety module, which actively holds the switches (30a, 30b and 30c) opened during a regular operation of the motor, and to provide an output signal to the safety module, which closes the switches (30a, 30b and 30c) when a malfunction of the motor is detected, so that the coils (20a, 20b and 20c) with the connected resistors (22a, 22b and 22c) are shorted and the motor is stopped slower than in a normal power-off situation; wherein an energy storage device to be charged with a power supply (10, 10') during the regular operation and said energy storage device is configured to power the safety control module, when a malfunction of the motor occurs, to send the output signal to the safety module to close the switches (30a, 30b and 30c). a safety module including switches (30a, 30b and 30c) for each of the coils (20a, 20b and 20c) of the motor, respectively; a safety control module configured to provide an output signal to the safety module, which actively holds the switches (30a, 30b and 30c) opened during a regular operation of the motor, and to provide an output signal to the safety module, which closes the switches (30a, 30b and 30c) when a malfunction of the motor is detected, so that the coils (20a, 20b and 20c) with the connected resistors (22a, 22b and 22c) are shorted and the motor is stopped slower than in a normal power-off situation; wherein an energy storage device to be charged with a power supply (10, 10') during the regular operation and said energy storage device is configured to power the safety control module, when a malfunction of the motor occurs, to send the output signal to the safety module to close the switches (30a, 30b and 30c).
A method for providing a distinct perceptual location for an input audio source (202, 602', 1802') within an audio mixture, comprising: separating the input audio source into a foreground signal (650, 1850) and a background signal (652, 1852); processing the foreground signal to provide a foreground perceptual angle for the foreground signal; processing the foreground signal to provide a desired attenuation level for the foreground signal; processing the background signal that has been low pass filtered to provide a background perceptual angle for the background signal; processing the background signal to provide a desired attenuation level for the background signal, wherein the attenuation is applied to a first background channel based on sampling rate and a length of a delay line applied to a second background channel; and combining the foreground signal and the background signal into an output audio source (602, 1802). separating the input audio source into a foreground signal (650, 1850) and a background signal (652, 1852); processing the foreground signal to provide a foreground perceptual angle for the foreground signal; processing the foreground signal to provide a desired attenuation level for the foreground signal; processing the background signal that has been low pass filtered to provide a background perceptual angle for the background signal; processing the background signal to provide a desired attenuation level for the background signal, wherein the attenuation is applied to a first background channel based on sampling rate and a length of a delay line applied to a second background channel; and combining the foreground signal and the background signal into an output audio source (602, 1802).
Method for forwarding a call from a first communication device to a second communication device, the method comprises the steps of: detecting the second communication device; forwarding an established call from the first communication device to the second communication device; characterized in that a movement of the first communication device is measured, the measured movement is compared with a predetermined movement characteristic, and if such a predetermined movement characteristic is detected in the measured movement, the second communication device is selected among one or more detected communication devices to forward the call on the basis of a direction of the measured movement of the first communication device relative to the second communication device, wherein the predetermined movement corresponds to a movement of a hand performing a throw movement. detecting the second communication device; forwarding an established call from the first communication device to the second communication device; characterized in that a movement of the first communication device is measured, the measured movement is compared with a predetermined movement characteristic, and if such a predetermined movement characteristic is detected in the measured movement, the second communication device is selected among one or more detected communication devices to forward the call on the basis of a direction of the measured movement of the first communication device relative to the second communication device, wherein the predetermined movement corresponds to a movement of a hand performing a throw movement.
A method of reducing corrosion of ferrous materials used to process or transport oil feedstocks comprising: reacting an alkali metal in its metallic state with a quantity of an oil feedstock in the presence of a non-oxidizing gas, wherein the oil feedstock comprises naphthenic acids and the oil feedstock has a TAN value of greater than or equal to 1 mgKOH/g; removing solids formed from the reaction, thereby forming a de-acidified oil feedstock liquid; contacting the de-acidified oil feedstock liquid with a ferrous material; wherein the alkali metal in its metallic state is formed by electrochemically reducing alkali metal ions. reacting an alkali metal in its metallic state with a quantity of an oil feedstock in the presence of a non-oxidizing gas, wherein the oil feedstock comprises naphthenic acids and the oil feedstock has a TAN value of greater than or equal to 1 mgKOH/g; removing solids formed from the reaction, thereby forming a de-acidified oil feedstock liquid; contacting the de-acidified oil feedstock liquid with a ferrous material; wherein the alkali metal in its metallic state is formed by electrochemically reducing alkali metal ions.
A crane with a hydraulic system with at least one hydraulic circuit, which comprises at least one hydraulic consumer, and a constant pressure network, characterized in that the at least one hydraulic circuit is coupled with the constant pressure network via at least one pressure reducer, whereby a higher volume flow with low pressure as compared to the constant pressure network can be generated in the hydraulic circuit.
Centrifugal pump for conveying solids-containing media, having at least one arrangement for reducing a backflow (13, 20) from a first space into a second space, and having a closed impeller which comprises a rear shroud away from which at least one blade projects, said at least one blade being covered by a cover shroud in such a way that at least one at least partially closed channel is formed, wherein the surface of the impeller at least partially has a layer of carbon, wherein the closed impeller interacts with a non-rotating counterpart element (2, 21) which is arranged directly on the pump casing, wherein the counterpart element (2, 21) at least partially has a layer of carbon, wherein the centrifugal pump has an arrangement for reducing a backflow in the form of a gap seal, wherein the gap seal comprises a rotating component, which is in the form of a running ring, and a non-rotating component, which is in the form of a split ring, wherein the rotating component is arranged on a radial outer side of the cover shroud of the impeller, wherein the rotating component rotates with the impeller, wherein the non-rotating component is arranged on the pump casing and has a radial ring inner side as a guide, which interacts with the radial ring outer side of the rotating component and forms the gap seal, characterized in that the rotating component and the non-rotating component are coated with a tetrahedral hydrogen-free amorphous carbon layer or ta-C, wherein, in addition to the arrangement for reducing a backflow, a further arrangement comprising a rotating element and a non-rotating element is provided, wherein the rotating element is in the form of a ring and is arranged on the axial end face of the cover shroud, wherein the rotating element has an axially extending projection which engages into a groove in the cover shroud, wherein the non-rotating element is in the form of an axially displaceable ring which is guided by a surface of the pump casing against radial displacement, wherein a force-generating element exerts a force on the non-rotating element and presses the non-rotating element against the rotating element, wherein the force-generating element is in the form of a spring, wherein the non-rotating element is sealed off from the casing part by a seal element, wherein the seal element is preferably an O-ring, wherein the rotating element and the non-rotating element are formed from a high-grade-steel material coated with ta-C, wherein the two axially mutually facing end faces of the rotating element and the non-rotating element are pressed onto one another by the force-generating element.
A method for transmitting and receiving signals in a frequency band in a wireless communications network, the method comprising: determining a frequency separation between a frequency of a transmit signal and a frequency of a receive signal within the frequency band comprising selecting a transmit-receive frequency separation value from at least two predefined transmit-receive frequency separation values for the frequency band based on at least one of a number of physical channels associated with the transmit signal, and a number of physical channels associated with the receive signal; and transmitting and receiving signals in the frequency band in accordance with the determined frequency separation. determining a frequency separation between a frequency of a transmit signal and a frequency of a receive signal within the frequency band comprising selecting a transmit-receive frequency separation value from at least two predefined transmit-receive frequency separation values for the frequency band based on at least one of a number of physical channels associated with the transmit signal, and a number of physical channels associated with the receive signal; and transmitting and receiving signals in the frequency band in accordance with the determined frequency separation.
A glass substrate intended for use in a wet atmosphere, characterized in that it is coated with a multilayer comprising, in order of increasing distance from the substrate, - a layer of silicon nitride or oxynitride having a thickness between 10 and 90 nm, and - a layer of silica having a thickness between 10 and 65 nm and having a surface exposed to the ambient air. - a layer of silicon nitride or oxynitride having a thickness between 10 and 90 nm, and - a layer of silica having a thickness between 10 and 65 nm and having a surface exposed to the ambient air.
Rotor (1, 1', 1", 1′′′, 1ʺʺ, 1""') for helicopter comprising: - a shaft adapted to be put into rotation by at least one engine element; - a hub splined to said shaft; - at least four blades radially connected to said hub and rotationally movable thereabout; - at least one damping connection assembly (9, 9', 9", 9′′′) provided between at least one first blade and at least one second blade of said at least four of blades, said at least one first blade and said at least one second blade being radially non-adjacent, wherein radially non-adjacent means that said at least one first blade and said at least one second blade define each a radius of said rotor and said rotor comprise at least one third blade interposed between said at least one first blade and said at least one second blade which defines a third radius of said rotor; said at least one damping connection assembly (9, 9', 9", 9′′′) comprising: - at least one upper connection rod arranged above said hub and connected to said first blade at a first end of said at least one damping connection assembly (9, 9', 9", 9"'), - at least one lower connection rod arranged below said hub and connected to said second blade at a second end of said at least one damping connection assembly (9, 9', 9", 9"'), - and at least one damper element (14, 14', 14") interposed between said first end and said second end. - a shaft adapted to be put into rotation by at least one engine element; - a hub splined to said shaft; - at least four blades radially connected to said hub and rotationally movable thereabout; - at least one damping connection assembly (9, 9', 9", 9′′′) provided between at least one first blade and at least one second blade of said at least four of blades, said at least one first blade and said at least one second blade being radially non-adjacent, wherein radially non-adjacent means that said at least one first blade and said at least one second blade define each a radius of said rotor and said rotor comprise at least one third blade interposed between said at least one first blade and said at least one second blade which defines a third radius of said rotor; - at least one upper connection rod arranged above said hub and connected to said first blade at a first end of said at least one damping connection assembly (9, 9', 9", 9"'), - at least one lower connection rod arranged below said hub and connected to said second blade at a second end of said at least one damping connection assembly (9, 9', 9", 9"'), - and at least one damper element (14, 14', 14") interposed between said first end and said second end.
Loudspeaker assembly comprising a sound transducer and an acoustic lens, said acoustic lens having one or more movable members (5,5'), where said movable members (5,5') may be moved from a first position (10,10') where the movable members (5,5') have a first influence on the directivity of the acoustic lens, to a second position (20,20') where the movable members (5,5') have a second influence on the directivity of the acoustic lens, and any position in-between said first position (10,10') and said second position (20,20') characterized in that the sound transducer is arranged adjacent the acoustic lens, for emitting sound in a first direction, and where the movable members (5,5',6,6',7,7') rotate around one or more first axes parallel to the first direction.
A neurotransmitter receptor modulating agent for use in a method of stimulating increased myelination of nerves in a human subject having a demyelinating disease, the method comprising administering to the subject a therapeutically effective dose of the neurotransmitter receptor modulating agent, wherein the neurotransmitter receptor modulating agent is benztropine, clemastine, salmeterol, salbutamol, trifluoperazine, or a salt thereof.
A locking device comprising an outer sleeve and at least one locking unit located in the outer sleeve, wherein the locking unit is formed by connecting a plurality of pressing blocks, with a gap between two adjacent ones of the pressing blocks, a rod locking hole is provided in the gap, and a fastening hole is provided on the outer sleeve at a position corresponding to the locking unit; and when a fastener is inserted into the fastening hole to directly or indirectly press the locking unit, the locking unit deforms and drives the pressing blocks to tightly press rods (8, 9) mounted in the respective rod locking holes at the same time, characterized in that the locking unit is in the shape of a fan, the pressing blocks are distributed in the circumferential direction of the outer sleeve and roots of the pressing blocks are securely connected to each other, a sharp groove is provided on the pressing block in the middle, the tip of the sharp groove points to the center of the fan, and an inner wall of the outer sleeve is provided with a wedge block to be inserted into the sharp groove; a trapezoidal ejector block is also provided in the outer sleeve, and the trapezoidal ejector block is located between two pressing blocks on the outermost side of the locking unit; and the fastening hole is directly opposite to the trapezoidal ejector block.
A method for operating a network, wherein at least one M2M, Machine to Machine, node providing and/or using an M2M service is assigned to a cellular network and will be authorized for communication with the cellular network for providing Machine-Type Communication, MTC, wherein the at least one M2M node will be associated with at least one master terminal that owns a unique master terminal ID, Identifier, which uniquely identifies said master terminal within the cellular network, and that a state of authentication of the M2M node or M2M nodes will be initialized, based on authentication data of the master terminal, so that the M2M node or M2M nodes can be addressed using the master terminal ID and can directly communicate with the cellular network on the basis of the initialized state of authentication, wherein at least one M2M service - represented by the M2M nodes within their M2M service-specific group - or at least one M2M node or the M2M nodes within their M2M service-specific group will be assigned to a home cell using a location identifier.
An apparatus for use in a user equipment UE, operable to perform hybrid automatic repeat request HARQ, acknowledgement ACK,-negative acknowledgement NACK, transmissions, the apparatus comprising one or more processors (1202, 1204) and memory configured to: generate, at the UE, a UE capability information message for transmission to an eNodeB, the UE capability information message indicating that the UE supports a self-contained HARQ ACK-NACK transmission scheme that uses a self-contained subframe structure; signal a transceiver (1206, 1208) at the apparatus to send a request to use the HARQ ACK-NACK transmission scheme; and process, at the UE, an indication received from the eNodeB in response to the request, wherein the indication configures the UE to use the self-contained HARQ ACK-NACK transmission scheme to perform HARQ ACK-NACK transmissions; characterized in that the self-contained HARQ ACK-NACK transmission scheme that uses the self-contained subframe structure enables the UE to perform the following in one subframe: a demodulation and decoding for an advanced physical downlink control channel, xPDCCH, and an advanced physical downlink shared channel, xPDSCH; and a transmission of HARQ ACK-NACK feedback for the xPDSCH via an advanced physical uplink control channel, xPUCCH. generate, at the UE, a UE capability information message for transmission to an eNodeB, the UE capability information message indicating that the UE supports a self-contained HARQ ACK-NACK transmission scheme that uses a self-contained subframe structure; signal a transceiver (1206, 1208) at the apparatus to send a request to use the HARQ ACK-NACK transmission scheme; and process, at the UE, an indication received from the eNodeB in response to the request, wherein the indication configures the UE to use the self-contained HARQ ACK-NACK transmission scheme to perform HARQ ACK-NACK transmissions; characterized in that the self-contained HARQ ACK-NACK transmission scheme that uses the self-contained subframe structure enables the UE to perform the following in one subframe: a demodulation and decoding for an advanced physical downlink control channel, xPDCCH, and an advanced physical downlink shared channel, xPDSCH; and a transmission of HARQ ACK-NACK feedback for the xPDSCH via an advanced physical uplink control channel, xPUCCH. a demodulation and decoding for an advanced physical downlink control channel, xPDCCH, and an advanced physical downlink shared channel, xPDSCH; and a transmission of HARQ ACK-NACK feedback for the xPDSCH via an advanced physical uplink control channel, xPUCCH.
An article of footwear (300, 600, 700), comprising: a midsole; an upper (306, 604, 704), secured with respect to the midsole, forming an opening to admit a foot of a wearer, the opening being adjustable between a first segment of the upper and a second segment of the upper to secure the article of footwear to the foot of the wearer; a slidable securing device, coupled between the first segment and the second segment of the upper, configured to slide along a length of a track and secure the first and second segments together; a motorized lacing system positioned within the midsole, configured to engage with a lace to increase and decrease tension on the lace, the motorized lacing system comprising: a motor; and a lace spool, operatively coupled to the motor, configured to spool and unspool the lace to increase and decrease the tension on the lace, respectively; wherein the lace is secured to the slidable securing device, and wherein, when tension is placed on the lace, the lace causes the slidable securing device to slide along the track and secure the first and second segments together; and wherein the first and second segments are on opposing sides of an opening on a heel counter of the article of footwear a midsole; an upper (306, 604, 704), secured with respect to the midsole, forming an opening to admit a foot of a wearer, the opening being adjustable between a first segment of the upper and a second segment of the upper to secure the article of footwear to the foot of the wearer; a slidable securing device, coupled between the first segment and the second segment of the upper, configured to slide along a length of a track and secure the first and second segments together; a motorized lacing system positioned within the midsole, configured to engage with a lace to increase and decrease tension on the lace, the motorized lacing system comprising: a motor; and a lace spool, operatively coupled to the motor, configured to spool and unspool the lace to increase and decrease the tension on the lace, respectively; wherein the lace is secured to the slidable securing device, and wherein, when tension is placed on the lace, the lace causes the slidable securing device to slide along the track and secure the first and second segments together; and a motor; and a lace spool, operatively coupled to the motor, configured to spool and unspool the lace to increase and decrease the tension on the lace, respectively; wherein the lace is secured to the slidable securing device, and wherein, when tension is placed on the lace, the lace causes the slidable securing device to slide along the track and secure the first and second segments together; and wherein the first and second segments are on opposing sides of an opening on a heel counter of the article of footwear