mhurhangee/ep-ind-claims huggingface dataset:
A motor drive device comprising: a full-wave rectification circuit to which a single-phase AC power supply is inputted; an inverter for converting DC electric power outputted from the full-wave rectification circuit into AC electric power; a control portion for performing PWM drive control on the inverter; a smoothing portion which is adapted to have a resonance frequency equal to or more than 40 times a frequency of the single-phase AC power supply and, further, is constituted by a reactor placed in a line connecting the inverter to the single-phase AC power supply, and a capacitor connected, in parallel, to an input side of the inverter; and a motor adapted to be driven by the inverter, characterized in that the motor comprises an IPM motor having a winding specification adjusted to provide an effective value of the motor induced voltage (V e) to be smaller than an effective value of the voltage (V g) of the single-phase AC power supply within a motor-rotational-speed range (θ 1 - θ 2), and the winding specification is adjusted to provide a time interval (θ 2 - θ 3) within which a maximum value of the induced voltage (V e) in the motor is larger than an instantaneous value of the absolute voltage value (V g) of the single-phase AC power supply voltage to be less than half the period of the single-phase AC power supply within a predetermined motor-rotational-speed range. a full-wave rectification circuit to which a single-phase AC power supply is inputted; an inverter for converting DC electric power outputted from the full-wave rectification circuit into AC electric power; a control portion for performing PWM drive control on the inverter; a smoothing portion which is adapted to have a resonance frequency equal to or more than 40 times a frequency of the single-phase AC power supply and, further, is constituted by a reactor placed in a line connecting the inverter to the single-phase AC power supply, and a capacitor connected, in parallel, to an input side of the inverter; and a motor adapted to be driven by the inverter, characterized in that the motor comprises an IPM motor having a winding specification adjusted to provide an effective value of the motor induced voltage (V e) to be smaller than an effective value of the voltage (V g) of the single-phase AC power supply within a motor-rotational-speed range (θ 1 - θ 2), and the winding specification is adjusted to provide a time interval (θ 2 - θ 3) within which a maximum value of the induced voltage (V e) in the motor is larger than an instantaneous value of the absolute voltage value (V g) of the single-phase AC power supply voltage to be less than half the period of the single-phase AC power supply within a predetermined motor-rotational-speed range.
Apparatus for monitoring an onboard power supply system, wherein the onboard power supply system comprises at least one first subnetwork at a first voltage and a further subnetwork (10, 20b) at a further voltage, wherein the first voltage and the further voltage are used to supply power to loads (18, 22a, 22b), having at least one coupling means (25, 27) for disconnectably connecting the two subnetworks (10, 20a, 20b), and wherein at least one of the subnetworks (10, 20a, 20b) has an energy store (16, 34, 36), having at least one evaluation means for monitoring proper insulation of the two subnetworks (10, 20a, 20b), characterized in that the first subnetwork has at least one means provided in it for generating a characteristic signal, wherein the further subnetwork (10, 20b) has at least one detection means arranged in it for detecting the further voltage, wherein the evaluation means evaluates the further voltage in order to identify whether there is a typical magnitude of the characteristic signal in the further subnetwork (10, 20b).
A cellular telecommunications terminal (10, 10') having a full-capability mode of operation and a reduced-capability mode of operation, the terminal (10, 10') comprising: a plurality of cellular transmitter and cellular receiver pairs, each pair being associated to its respective antenna; and a controller configured to control at least one of the cellular transmitters to transmit a capability message indicating for each antenna whether the antenna is associated with a cellular transmitter and cellular receiver pair which are full-duplex capable or whether the antenna is associated with a cellular transmitter and cellular receiver pair which are half-duplex capable. a plurality of cellular transmitter and cellular receiver pairs, each pair being associated to its respective antenna; and a controller configured to control at least one of the cellular transmitters to transmit a capability message indicating for each antenna whether the antenna is associated with a cellular transmitter and cellular receiver pair which are full-duplex capable or whether the antenna is associated with a cellular transmitter and cellular receiver pair which are half-duplex capable.
A system comprising a mechanical key, which includes a bit and a head and is made of metal, for actuating a twist lock and an additional device provided at the head of the key, the additional device comprising a housing, and the head of the key being surrounded by the housing of the additional device from two mutually opposing sides with a respective housing wall, the housing being mounted rotatably relative to the head of the key, an electrical contact being arranged in each case at the respective inner side of the two housing walls, it being possible to bring the two electrical contacts into an "open" position or a "closed" position by a rotation of the housing relative to the head, the two electrical contacts in the "open" position being situated at a distance from the head of the key, and in the "closed" position resting against the head of the key in a galvanically conducting manner, and thus being galvanically conductively connected to one another across the head of the key, and the additional device comprising a battery and an electric consumer that can be powered by the battery, characterized in that the battery in the "open" position is disconnected from the electric consumer, and in the "closed" position is galvanically conductively connected to the electric consumer.
A fiber-reinforced plastic composition, comprising: a thermoplastic resin, a reactive rubber, wherein the reactive rubber is a Reactor-made thermoplastic poly olefin (RTPO), and a fiber, wherein the thermoplastic resin is a polypropylene resin, and wherein the reactive rubber is present in an amount of from 5 parts by weight to 10 parts by weight with respect to 100 parts by weight of the thermoplastic resin, and wherein the reactive rubber is formed by polymerization of a rubber component onto a polypropylene chain, wherein the rubber component is an ethylene-propylene-based rubber. a thermoplastic resin, a reactive rubber, wherein the reactive rubber is a Reactor-made thermoplastic poly olefin (RTPO), and a fiber, wherein the thermoplastic resin is a polypropylene resin, and wherein the reactive rubber is present in an amount of from 5 parts by weight to 10 parts by weight with respect to 100 parts by weight of the thermoplastic resin, and wherein the reactive rubber is formed by polymerization of a rubber component onto a polypropylene chain, wherein the rubber component is an ethylene-propylene-based rubber.
A fusible link unit comprising: a first alternator terminal including a screw hole configured to be connected with an opposite terminal with a screw; a battery terminal; and one or more load terminals respectively including fuse links, wherein each of the load terminals is connected to the battery terminal through each of the fuse links, wherein the first alternator terminal, the battery terminal, the load terminals and the fuse links are mutually connected and unitized in a fuse unit characterized by a second alternator terminal including a connector configured to be connected with an opposite connector, the second alternator terminal being formed in a male terminal shape connectable with a female connector; wherein the second alternator terminal is also connected and unitized in said fuse unit wherein the first alternator terminal is directly connected to the second alternator terminal, wherein the first and second alternator terminals (7, 8) are connected directly to one of the load terminals, and wherein the first alternator terminal and the battery terminal are arranged extending in a direction perpendicular to a direction in which the female connector engages to the second alternator terminal. a first alternator terminal including a screw hole configured to be connected with an opposite terminal with a screw; a battery terminal; and one or more load terminals respectively including fuse links, wherein each of the load terminals is connected to the battery terminal through each of the fuse links, wherein the first alternator terminal, the battery terminal, the load terminals and the fuse links are mutually connected and unitized in a fuse unit characterized by a second alternator terminal including a connector configured to be connected with an opposite connector, the second alternator terminal being formed in a male terminal shape connectable with a female connector; wherein the second alternator terminal is also connected and unitized in said fuse unit wherein the first alternator terminal is directly connected to the second alternator terminal, wherein the first and second alternator terminals (7, 8) are connected directly to one of the load terminals, and wherein the first alternator terminal and the battery terminal are arranged extending in a direction perpendicular to a direction in which the female connector engages to the second alternator terminal.
A device for transferring a packaging unit into a barrier system for pharmaceuticals, wherein the packaging unit comprises a sterilized container and at least one sterile product arranged therein and wherein the packaging unit, in an initial state, is surrounded by an outer packaging sterilized at least on the inside, wherein the barrier system has an access opening through which the packaging unit can be transferred from a surrounding region of the barrier system into an interior of the barrier system, wherein a film tube which is closed on the end side is arranged in the surrounding region of the barrier system, the interior of the film tube communicating with the access opening, characterized in that a connecting device is provided for producing a connection region between an outer face of a planar cover portion of the outer packaging and a planar overlap portion of an outer face of the film tube overlapping the cover portion, and in that a separating device is provided for locally separating the connection region and cutting through the material of the film tube and the material of the outer packaging, wherein the connection between the overlap portion of the film tube and the cover portion of the outer packaging and the isolation associated therewith of the outer face of the cover portion of the container is maintained, but at the same time producing a through-opening which makes it possible to transfer the packaging unit out of the outer packaging into the interior of the film tube.
A cell penetrating peptide inhibitor comprising an inhibitory peptide which comprises one of the following sequences: LTRITLE (SEQ ID NO: 4) ETRITLE (SEQ ID NO: 6) LTRIYLE (SEQ ID NO: 7) YTRIYLE (SEQ ID NO: 8) WTRITLE (SEQ ID NO: 9) WTRIYLE (SEQ ID NO: 10) ETRIYLE (SEQ ID NO: 11) LTKITLE (SEQ ID NO: 12) YTKITLE (SEQ ID NO: 13) WTKITLE (SEQ ID NO: 14) ETKITLE (SEQ ID NO: 15) LTKIYLE (SEQ ID NO: 16) YTKIYLE (SEQ ID NO: 17) ETKIYLE (SEQ ID NO: 18); fused, optionally via a linker sequence, to a cell penetrating peptide, wherein the CPP comprises a poly-Arginine tag. LTRITLE (SEQ ID NO: 4) ETRITLE (SEQ ID NO: 6) LTRIYLE (SEQ ID NO: 7) YTRIYLE (SEQ ID NO: 8) WTRITLE (SEQ ID NO: 9) WTRIYLE (SEQ ID NO: 10) ETRIYLE (SEQ ID NO: 11) LTKITLE (SEQ ID NO: 12) YTKITLE (SEQ ID NO: 13) WTKITLE (SEQ ID NO: 14) ETKITLE (SEQ ID NO: 15) LTKIYLE (SEQ ID NO: 16) YTKIYLE (SEQ ID NO: 17) ETKIYLE (SEQ ID NO: 18);
Apparatus for attaching a shrinkable label on a product placed on a conveyor, by irradiating light onto the shrinkable label, the apparatus comprising two sets of light emitters which are arranged opposite each other on both sides of the conveyor along a defined length of the conveyor to form an irradiation volume through which the conveyor passes, wherein the light emitters are configured to emit directed light bundles into the irradiation volume in directions (20a - 20d) different from each other, and wherein in a plan view of the apparatus, the directions (20a - 20d) of the light bundles intersect with a longitudinal central axis of the conveyor, characterized in that in a plan view of the apparatus, the intersection points (24a - 24d) of the directions (20a - 20d) of the light bundles emitted from the light emitters on a same side of the conveyor with the longitudinal central axis of the conveyor differ from each other.
A small volume oral transmucosal drug delivery dissolvable dosage form for oral transmucosal administration to a subject, comprising: from 0.25 to 200 micrograms (mcg) of sufentanil and said dosage form has a volume of less than 20 μl or a mass of less than 20 mg, wherein the dosage form is a tablet.
A method for the removal of ammonia from the off-gas of a finishing section of a urea production plant, comprising (a) contacting the off-gas with a solid adsorbent capable of physically adsorbing ammonia; (b) separating the solid adsorbent having ammonia adsorbed thereon from the gas. (a) contacting the off-gas with a solid adsorbent capable of physically adsorbing ammonia; (b) separating the solid adsorbent having ammonia adsorbed thereon from the gas.
A method of manufacturing a polycrystalline oxide thin-film transistor array substrate, characterized in that the method comprises the following steps: 1) forming an amorphous oxide thin film layer on a substrate; 2) selectively etching the amorphous oxide thin film layer, such that the irregularly packed atoms in the amorphous oxide thin film layer are etched off, while the regularly packed atoms are left; 3) passivating and annealing the amorphous oxide thin film layer at a temperature of 300-450 °C after the step 2; 4) forming a second amorphous oxide thin film on the amorphous oxide thin film layer after the step 3; and 5) annealing the second amorphous oxide thin film formed in the step 4 at a temperature of 300-450 °C to convert the amorphous oxide thin film into the polycrystalline oxide thin film; wherein the step 4 further comprises forming active layer channels by a patterning process after the formation of the second oxide film; or the step 5 further comprises forming active layer channels by a patterning process after annealing the second oxide thin film. 1) forming an amorphous oxide thin film layer on a substrate; 2) selectively etching the amorphous oxide thin film layer, such that the irregularly packed atoms in the amorphous oxide thin film layer are etched off, while the regularly packed atoms are left; 3) passivating and annealing the amorphous oxide thin film layer at a temperature of 300-450 °C after the step 2; 4) forming a second amorphous oxide thin film on the amorphous oxide thin film layer after the step 3; and 5) annealing the second amorphous oxide thin film formed in the step 4 at a temperature of 300-450 °C to convert the amorphous oxide thin film into the polycrystalline oxide thin film;
A method performed at a receiver device (104, 200) configured to receive an optical signal modulated with a stream of symbols comprising a sequence of training symbols, the method comprising: in first equalizer circuitry (242, 300) of the receiver device, calculating first coefficients and applying the first coefficients to digital signals representative of the optical signal, thereby resulting in first compensated signals; in second equalizer circuitry (246, 500) of the receiver device, calculating second coefficients based on a correlation between the first compensated signals and digital signals representative of the sequence of training symbols and applying the second coefficients to the first compensated signals, thereby resulting in second compensated signals; and in third equalizer circuitry (250, 400) of the receiver device, calculating third coefficients and applying the third coefficients to the second compensated signals, thereby resulting in third compensated signals, characterized in that the third equalizer circuitry has a feedback structure, wherein the first, second, and third coefficients compensate for impairments in the optical signal varying at respective first, second, and third rates, wherein the third rate is higher than the first rate and lower than the second rate. in first equalizer circuitry (242, 300) of the receiver device, calculating first coefficients and applying the first coefficients to digital signals representative of the optical signal, thereby resulting in first compensated signals; in second equalizer circuitry (246, 500) of the receiver device, calculating second coefficients based on a correlation between the first compensated signals and digital signals representative of the sequence of training symbols and applying the second coefficients to the first compensated signals, thereby resulting in second compensated signals; and in third equalizer circuitry (250, 400) of the receiver device, calculating third coefficients and applying the third coefficients to the second compensated signals, thereby resulting in third compensated signals, characterized in that the third equalizer circuitry has a feedback structure, wherein the first, second, and third coefficients compensate for impairments in the optical signal varying at respective first, second, and third rates, wherein the third rate is higher than the first rate and lower than the second rate.
A secondary battery cell performance estimation method comprising: storing data obtained by measuring a secondary cell temperature, an electric current, and a voltage while the secondary cell is charged or discharged; estimating an internal resistance value of the secondary cell from a charging/discharging curve by using the secondary cell temperature data, the electric current data, and the voltage data, and predetermined data indicating a relationship between a charged capacity and open circuit voltages of a cathode active material and anode active material; calculating a reaction resistance component, an ohmic resistance component, and a diffusion resistance component by dividing the estimated internal resistance value into three components; and correcting the estimated internal resistance value based on a value obtained by correcting the reaction resistance component using a coefficient Ea in accordance with a temperature, correcting the ohmic resistance component using a coefficient Eb in accordance with the temperature, and the diffusion resistance component using a coefficient Ec in accordance with the temperature, and adding up the corrected components, wherein the coefficient Ea is a constant for determining a dependence of the reaction resistance component on the temperature, the coefficient Eb is a constant for determining a dependence of the ohmic resistance component on the temperature, and the coefficient Ec is a constant for determining a dependence of the diffusion resistance component on the temperature. storing data obtained by measuring a secondary cell temperature, an electric current, and a voltage while the secondary cell is charged or discharged; estimating an internal resistance value of the secondary cell from a charging/discharging curve by using the secondary cell temperature data, the electric current data, and the voltage data, and predetermined data indicating a relationship between a charged capacity and open circuit voltages of a cathode active material and anode active material; calculating a reaction resistance component, an ohmic resistance component, and a diffusion resistance component by dividing the estimated internal resistance value into three components; and correcting the estimated internal resistance value based on a value obtained by correcting the reaction resistance component using a coefficient Ea in accordance with a temperature, correcting the ohmic resistance component using a coefficient Eb in accordance with the temperature, and the diffusion resistance component using a coefficient Ec in accordance with the temperature, and adding up the corrected components, wherein the coefficient Ea is a constant for determining a dependence of the reaction resistance component on the temperature, the coefficient Eb is a constant for determining a dependence of the ohmic resistance component on the temperature, and the coefficient Ec is a constant for determining a dependence of the diffusion resistance component on the temperature.
A unit load device inerting system for including on-board an aircraft comprising: a nitrogen generation system; a first conduit coupled to the nitrogen generation system and configured to carry nitrogen gas; a unit load device; an inlet located downstream of the first conduit, wherein the inlet is attached to the unit load device to deliver the nitrogen gas into the unit load device; an outlet attached to the unit load device; and a second conduit coupled to the outlet, wherein the second conduit is configured to carry nitrogen gas out of the unit load device; and a computer controller coupled to the nitrogen generation system and configured to control the nitrogen generation system to deliver the nitrogen into the unit load device (i) prior to take-off of the aircraft, and (ii) for an entire duration of the flight or for an entire duration of the flight except during a portion of descent. a nitrogen generation system; a first conduit coupled to the nitrogen generation system and configured to carry nitrogen gas; a unit load device; an inlet located downstream of the first conduit, wherein the inlet is attached to the unit load device to deliver the nitrogen gas into the unit load device; an outlet attached to the unit load device; and a second conduit coupled to the outlet, wherein the second conduit is configured to carry nitrogen gas out of the unit load device; and a computer controller coupled to the nitrogen generation system and configured to control the nitrogen generation system to deliver the nitrogen into the unit load device (i) prior to take-off of the aircraft, and (ii) for an entire duration of the flight or for an entire duration of the flight except during a portion of descent.