mhurhangee/ep-ind-claims huggingface dataset:
An adsorbent for use in the treatment of systemic inflammatory response syndrome by removing histone from a liquid derived from a living-organism comprising a water insoluble carrier and a biocompatible polymer, wherein the carrier is selected from the group consisting of polyethylene terephthalate and a styrene divinylbenzene-based copolymer, wherein the carrier comprises a quaternary ammonium group, and wherein the biocompatible polymer is a hydroxyethyl methacrylate-based polymer. wherein the carrier is selected from the group consisting of polyethylene terephthalate and a styrene divinylbenzene-based copolymer, wherein the carrier comprises a quaternary ammonium group, and wherein the biocompatible polymer is a hydroxyethyl methacrylate-based polymer.
A method of a User Equipment, UE, configured with bundled transmission, the method comprising: initializing a configured uplink grant; performing a plurality of transmissions within a bundle of a Medium Access Control Protocol Data Unit, MAC PDU, using the configured uplink grant; stopping a running Discontinuous Reception, DRX, timer, in response to a first transmission of the plurality of transmissions: starting a Hybrid Automatic Repeat Request, HARQ, Round-Trip Time, RTT, timer in response to the first transmission; starting the DRX timer in response to expiration of the HARQ RTT timer; not stopping the DRX timer in response to one or more second transmissions of the plurality of transmissions; and monitoring, when the DRX timer is running, a downlink control channel for an uplink grant for retransmission. initializing a configured uplink grant; performing a plurality of transmissions within a bundle of a Medium Access Control Protocol Data Unit, MAC PDU, using the configured uplink grant; stopping a running Discontinuous Reception, DRX, timer, in response to a first transmission of the plurality of transmissions: starting a Hybrid Automatic Repeat Request, HARQ, Round-Trip Time, RTT, timer in response to the first transmission; starting the DRX timer in response to expiration of the HARQ RTT timer; not stopping the DRX timer in response to one or more second transmissions of the plurality of transmissions; and monitoring, when the DRX timer is running, a downlink control channel for an uplink grant for retransmission.
A method comprising: determining an estimate of a self-interference channel response from a primary transmitter of a transceiver to a receiver of the transceiver and determining an estimate of an auxiliary channel response from an auxiliary transmitter of the transceiver to the receiver; determining a residual self-interference baseband channel response at a baseband processor of the receiver; preprocessing a primary transmit signal and an auxiliary transmit signal with the estimated auxiliary channel response and a negative of the estimated self-interference channel response, respectively; transmitting the preprocessed primary transmit signal and the preprocessed auxiliary transmit signal in a transmit frequency range; receiving a desired signal within a receive frequency range substantially overlapping the transmit frequency range, and receiving a residual self-interference signal; and reducing the residual self-interference signal using the residual self-interference baseband channel response. determining an estimate of a self-interference channel response from a primary transmitter of a transceiver to a receiver of the transceiver and determining an estimate of an auxiliary channel response from an auxiliary transmitter of the transceiver to the receiver; determining a residual self-interference baseband channel response at a baseband processor of the receiver; preprocessing a primary transmit signal and an auxiliary transmit signal with the estimated auxiliary channel response and a negative of the estimated self-interference channel response, respectively; transmitting the preprocessed primary transmit signal and the preprocessed auxiliary transmit signal in a transmit frequency range; receiving a desired signal within a receive frequency range substantially overlapping the transmit frequency range, and receiving a residual self-interference signal; and reducing the residual self-interference signal using the residual self-interference baseband channel response.
Method for the regeneration of an exhaust-gas purification component, which comprises at least a honeycomb body, filter, separator, catalytic converter substrate body, adsorber, impactor and/or a flow mixer, comprising at least the following steps: i) charging at least one capacitor, ii) heating a sub-volume or a plurality of sub-volumes of the exhaust-gas purification component to at least 900 °C through the supply of at least a part of the energy stored in the capacitor, wherein at least one ignition element, which comprises an electrode being arranged in the exhaust-gas purification component and/or a heating wire being arranged in the exhaust-gas purification component, supplies the energy as electrical energy to the at least one sub-volume, wherein when electrical energy is supplied electrical current flows through the sub-volume and directly heats the sub-volume. i) charging at least one capacitor, ii) heating a sub-volume or a plurality of sub-volumes of the exhaust-gas purification component to at least 900 °C through the supply of at least a part of the energy stored in the capacitor, wherein at least one ignition element, which comprises an electrode being arranged in the exhaust-gas purification component and/or a heating wire being arranged in the exhaust-gas purification component, supplies the energy as electrical energy to the at least one sub-volume, wherein when electrical energy is supplied electrical current flows through the sub-volume and directly heats the sub-volume.
Sensorless brushless motor control device, comprising: - a voltage divider (101, 102, 103) between each motor phase (Ph1, Ph2, Ph3) and a node on which the intermediary voltage signal is generated, - wherein each voltage divider (101, 102, 103) is configured for generating a first corrected electromotive force (V2, V2, V2), - a computation unit configured for controlling this motor on the basis of said first corrected electromotive forces (V2, V2, V2) characterized in that it comprises: - a first amplification module common to the motor phases of the motor and configured for generating an intermediary voltage signal, and in that each first corrected electromotive force (V2, V2, V2) has an average value essential equal to half of the value of the supply voltage (Zadc) of said computation unit. - a voltage divider (101, 102, 103) between each motor phase (Ph1, Ph2, Ph3) and a node on which the intermediary voltage signal is generated, - wherein each voltage divider (101, 102, 103) is configured for generating a first corrected electromotive force (V2, V2, V2), - a computation unit configured for controlling this motor on the basis of said first corrected electromotive forces (V2, V2, V2) characterized in that it comprises: - a first amplification module common to the motor phases of the motor and configured for generating an intermediary voltage signal,
A display device (20,220), comprising: a processor for running a program responsive to a numeric input to generate a display of information from a plurality of sources; a display (30,120) having a touch screen (130,230); and a controller for controlling said display (30,120) to show output from said program, wherein: the program runs responsive to two simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a first number of sources, the program runs responsive to three simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a second number of sources, and the program runs responsive to four simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a third number of sources. a processor for running a program responsive to a numeric input to generate a display of information from a plurality of sources; a display (30,120) having a touch screen (130,230); and a controller for controlling said display (30,120) to show output from said program, wherein: the program runs responsive to two simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a first number of sources, the program runs responsive to three simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a second number of sources, and the program runs responsive to four simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a third number of sources. the program runs responsive to two simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a first number of sources, the program runs responsive to three simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a second number of sources, and the program runs responsive to four simultaneous taps on said touch screen (130,230) to generate a simultaneous display of information from a third number of sources.
A gypsum board comprising at least one mat-facer, wherein said at least one mat-facer comprises at least two plies, an inner ply and an outer ply, where the inner ply is in contact with the core of said gypsum board and comprises a mixture of cellulose fibers, inorganic or mineral fibers and optionally organic fibers, and said outer ply comprises essentially cellulose fibers, and wherein said mat-facer further comprises at least a binder; characterized in that said mat-facer further comprises at least mineral filler particles, said particles having a d50 from about 0.1 to about 10 μm and being distributed at least partially into said inner and/or outer ply.
A non-contact electric power transmission system ( 10, 90) in which electric power is transmitted between a vehicle and a charging station in a non-contact manner, said charging station including an electric power transmission device ( 20A, 20B, 20C) transmitting electric power in a non-contact manner and a first communication device, said vehicle including an electric power reception device receiving electric power in a non-contact manner and a second communication device, said charging station emitting a second signal, which is a broadcast signal, through the first communication device notifying that a state allows charging, characterized in that said vehicle emitting a first signal through the second communication device when a movement of the vehicle is detected after reception of electric power from said electric power transmission device by said electric power reception device is completed, and said charging station emitting the second signal through the first communication device when said charging station receives said first signal.
Triple circuit lubrication device for lubricating a mechanical system, said lubrication device being provided with a tank and two lubrication circuits (10,20), said tank containing a lubrication liquid, a first lubrication circuit comprising a first pump, first pipes, a first pressure sensor, a first heat exchanger, first spray nozzles and a first suction point for sucking up said lubrication liquid, a second lubrication circuit comprising a second pump, second pipes, a second pressure sensor, a second heat exchanger, second spray nozzles and a second suction point for sucking up said lubrication liquid, said first and second suction points (16,26) being situated in said tank, each pump (11,21) distributing via said first and second suction points (16,26) said lubrication liquid respectively into said first and second pipes, and then into said first and second spray nozzles (14,24) in order to lubricate said mechanical system, characterised in that, said triple circuit lubrication device comprises a tertiary circuit in which a tertiary liquid flows, said tertiary circuit comprising a third pump, third pipes, a third pressure sensor, said second heat exchanger and a third heat exchanger, said third pump permitting the flow of said tertiary liquid through said second heat exchanger and said third heat exchanger, said second suction point being situated below said first suction point.
A synthetic resin container with a window that is produced by biaxially stretch blow molding a test-tube-shaped preform, wherein the synthetic resin container with a window comprises a circumferential wall including a longitudinal strip-shaped portion that is made of a transparent or a semi-transparent B resin and that is formed in a longitudinal strip shape penetrating the circumferential wall in a circumferentially predetermined position in the circumferential wall over a predetermined height range, a remaining portion of the circumferential wall excluding the longitudinal strip-shaped portion being made of an A resin that is obtained by coloring a synthetic resin and that is adhesive to the B resin, and the longitudinal strip-shaped portion serving as a window portion, characterized in that a portion of the B resin constituting the longitudinal strip-shaped portion has flown around to an opposite side of the circumferentially predetermined position in which the longitudinal strip-shaped portion is formed, to be laminated in the vicinity of a portion of the circumferential wall made of the A resin that is close to an inner circumferential surface of the circumferential wall.
Method of generating oxygen, said method comprising the steps of: intermittently guiding a stream of oxygen comprising gas through at least one adsorption chamber being equipped with an oxygen separation adsorbent, thereby defining an adsorption mode and a desorption mode of the at least one adsorption chamber, and thereby enriching the oxygen comprising gas with respect to oxygen, guiding the enriched oxygen comprising gas to a primary side of a dense membrane, heating the dense membrane to a temperature at which it is permeable for oxygen, generating an oxygen flow through the dense membrane to its secondary side, thereby separating the oxygen from the enriched oxygen comprising gas and forming a stream of oxygen, wherein said method further comprises the step of guiding at least a part of the generated oxygen through the at least one adsorption chamber being in desorption mode. intermittently guiding a stream of oxygen comprising gas through at least one adsorption chamber being equipped with an oxygen separation adsorbent, thereby defining an adsorption mode and a desorption mode of the at least one adsorption chamber, and thereby enriching the oxygen comprising gas with respect to oxygen, guiding the enriched oxygen comprising gas to a primary side of a dense membrane, heating the dense membrane to a temperature at which it is permeable for oxygen, generating an oxygen flow through the dense membrane to its secondary side, thereby separating the oxygen from the enriched oxygen comprising gas and forming a stream of oxygen, wherein said method further comprises the step of guiding at least a part of the generated oxygen through the at least one adsorption chamber being in desorption mode.
Method for the production of an electrostatic particle sensor which is designed to be used in an exhaust gas stream of an internal combustion engine, wherein the electrostatic particle sensor has at least one first electrode extending along a longitudinal axis and at least one second electrode which is at a distance from the first electrode and is arranged coaxially around the at least one first electrode, wherein the method comprises the steps of: - arranging at least one glass solder (162, 164) in a mould in such a way that the at least one glass solder (162, 164) extends radially from the at least one first electrode to the at least one second electrode, and the at least one first electrode is electrically insulated from the at least one second electrode, - arranging at least one insulating element (182, 184, 186, 188) in the mould in such a way that the at least one insulating element (182, 184, 186, 188) is in contact with at least one region of an axial side surface of the at least one glass solder (162, 164), and - finish moulding the at least one glass solder (162, 164) into at least one glass insulator (162, 164) in such a way that the at least one glass insulator (162, 164), together with the at least one insulating element (182, 184, 186, 188), is positioned in a predetermined position relative to the at least one first electrode and the at least one second electrode, wherein the insulating element (182, 184, 186, 188) is designed to at least partially shape the at least one glass insulator (162, 164) during the finish moulding of the at least one glass insulator (162, 164) and to at least partially isolate the at least one glass insulator (162, 164) from the exhaust gas of the internal combustion engine during a measuring operation of the sensor. - arranging at least one glass solder (162, 164) in a mould in such a way that the at least one glass solder (162, 164) extends radially from the at least one first electrode to the at least one second electrode, and the at least one first electrode is electrically insulated from the at least one second electrode, - arranging at least one insulating element (182, 184, 186, 188) in the mould in such a way that the at least one insulating element (182, 184, 186, 188) is in contact with at least one region of an axial side surface of the at least one glass solder (162, 164), and - finish moulding the at least one glass solder (162, 164) into at least one glass insulator (162, 164) in such a way that the at least one glass insulator (162, 164), together with the at least one insulating element (182, 184, 186, 188), is positioned in a predetermined position relative to the at least one first electrode and the at least one second electrode, wherein the insulating element (182, 184, 186, 188) is designed to at least partially shape the at least one glass insulator (162, 164) during the finish moulding of the at least one glass insulator (162, 164) and to at least partially isolate the at least one glass insulator (162, 164) from the exhaust gas of the internal combustion engine during a measuring operation of the sensor.
An apparatus comprising a data transmitter that comprises an analog front end connectable to proximal ends of a plurality of subscriber lines and a digital signal processor configured to drive the analog front end to cause a plurality of output signals to be transmitted on the subscriber lines using frequency-division multiplexing; wherein the digital signal processor comprises a vector processor configured to: for a first tone, generate a plurality of first precoded data signals (546 1 -546 N) by applying a plurality of weighting factors to a value being communicated to a data receiver at a distal end of a selected one of the subscriber lines; and drive the analog front end to apply each of the first precoded data signals to a respective one of the subscriber lines; wherein the first precoded data signals that are applied to the subscriber lines other than the selected one of the subscriber lines are coupled to the selected one of the subscriber lines by way of interline crosstalk on the first tone; wherein the weighting factors are selected such as to cause constructive interference of the first precoded data signals received by the data receiver, each of the weighting factors being represented by a one-bit value, a two-bit value, or a three-bit value; and wherein the vector processor is configured to apply any of the weighting factors to the value using one or more operations from a set comprising: a sign-bit change; a swap of real and imaginary parts of a complex value; and setting a value to zero. wherein the digital signal processor comprises a vector processor configured to: for a first tone, generate a plurality of first precoded data signals (546 1 -546 N) by applying a plurality of weighting factors to a value being communicated to a data receiver at a distal end of a selected one of the subscriber lines; and drive the analog front end to apply each of the first precoded data signals to a respective one of the subscriber lines; for a first tone, generate a plurality of first precoded data signals (546 1 -546 N) by applying a plurality of weighting factors to a value being communicated to a data receiver at a distal end of a selected one of the subscriber lines; and drive the analog front end to apply each of the first precoded data signals to a respective one of the subscriber lines; wherein the first precoded data signals that are applied to the subscriber lines other than the selected one of the subscriber lines are coupled to the selected one of the subscriber lines by way of interline crosstalk on the first tone; wherein the weighting factors are selected such as to cause constructive interference of the first precoded data signals received by the data receiver, each of the weighting factors being represented by a one-bit value, a two-bit value, or a three-bit value; and wherein the vector processor is configured to apply any of the weighting factors to the value using one or more operations from a set comprising: a sign-bit change; a swap of real and imaginary parts of a complex value; and setting a value to zero. a sign-bit change; a swap of real and imaginary parts of a complex value; and setting a value to zero.
A semiconductor device comprising a shift register supported by an insulating substrate and comprising a plurality of stages each including a plurality of thin film transistors and at least one diode (D2a, D2b, D2c, D2d, D2e), wherein each of the plurality of stages of the shift register further comprises at least one input signal line arranged to receive an external signal; the plurality of thin film transistors have the same conductivity type; when the conductivity type of the plurality of thin film transistors is an N type, a cathode-side electrode of the at least one diode in each stage is connected to the at least one input signal line in the respective stage, which is connected to a gate of a selected one of the plurality of thin film transistors, and no other diode of the at least one diodes in the respective stage is arranged with an anode-side electrode thereof connected to the at least one input line in the respective stage; when the conductivity type of the plurality of thin film transistors is a P type, an anode-side electrode of the at least one diode in each stage is connected to the at least one input signal line in the respective stage, which is connected to a gate of a selected one of the plurality of thin film transistors, and no other diode of the at least one diodes in the respective stage is arranged with a cathode-side electrode thereof connected to the at least one input line in the respective stage.
A system comprising a harness, capable of receiving a load, a support element for being carried by a user and being selected from a group comprising belts, straps, bands, and combinations thereof, and a bridging device (200, 300) coupling the harness to the support element, wherein said bridging device (200, 300) comprises a first axle attached to a frame of the harness; a first plate connected to the first axle; a second axle configured to be attachable to the support element; a second plate connected to the second axle; a middle axle connected to the first plate and the second plate, to extend according to the extent of the bending movement performed by the user.
An alpha-2 adrenergic agonist for use in a method of treating pain in a patient suffering from painful diabetic neuropathy wherein first the presence of nociceptor function is determined in the patient in a manner that identifies those patients, which would show an evoked pain level of >0 on a 0-10 numerical pain rating scale of the capsaicin challenge test when being subjected to a 0.1% capsaicin stimulus applied to the pretibial area for 30 minutes; and then, if the patient has nociceptor function in the skin, said alpha-2 adrenergic agonist is topically applied at and/or in the area described as painful.