mhurhangee/ep-ind-claims huggingface dataset:
An electrically operated aerosol-generating system comprising: a main unit comprising a heating portion arranged at an outer surface of the main unit, the heating portion comprising one or more electric heaters; and a tubular aerosol-generating article comprising: a tubular aerosol-forming substrate; and an inner passage, wherein: the inner passage of the tubular aerosol-generating article is configured to receive the heating portion of the main unit; the one or more electric heaters are arranged to heat the tubular aerosol-forming substrate when the tubular aerosol-generating article is received on the heating portion of the main unit; the main unit comprises means to determine that the tubular aerosol-generating article is received on the heating portion of the main unit; and the main unit comprises a proximal portion, and a distal portion opposite the proximal portion, the proximal portion comprising the heating portion, and the means to determine that the tubular aerosol-generating article is received on the heating portion of the main unit being arranged distal to the heating portion. a main unit comprising a heating portion arranged at an outer surface of the main unit, the heating portion comprising one or more electric heaters; and a tubular aerosol-generating article comprising: a tubular aerosol-forming substrate; and an inner passage, a tubular aerosol-forming substrate; and an inner passage, the inner passage of the tubular aerosol-generating article is configured to receive the heating portion of the main unit; the one or more electric heaters are arranged to heat the tubular aerosol-forming substrate when the tubular aerosol-generating article is received on the heating portion of the main unit; the main unit comprises means to determine that the tubular aerosol-generating article is received on the heating portion of the main unit; and the main unit comprises a proximal portion, and a distal portion opposite the proximal portion, the proximal portion comprising the heating portion, and the means to determine that the tubular aerosol-generating article is received on the heating portion of the main unit being arranged distal to the heating portion.
A computing system, comprising: an anonymizer server (26, 104) communicatively coupled to a data repository configured to store a personal identification information, PII, data, wherein the anonymizer server is configured to perform operations comprising: receiving a repository configuration request comprising an anonymized data schema and a measure of anonymity; creating an anonymized data repository clone based on the anonymized data schema and the measure of anonymity; adding synthetic data to the anonymized data repository clone to reach the received measure of anonymity; anonymizing the PII data to create an anonymized data; and storing the anonymized data in the anonymized data repository clone. receiving a repository configuration request comprising an anonymized data schema and a measure of anonymity; creating an anonymized data repository clone based on the anonymized data schema and the measure of anonymity; adding synthetic data to the anonymized data repository clone to reach the received measure of anonymity; anonymizing the PII data to create an anonymized data; and storing the anonymized data in the anonymized data repository clone.
A secure multiparty computation method in which GF(p k) is an extended field having a characteristic of p and a degree k of field extension, a is data that is an element of the extended field GF(p k), [a] is a share obtained by applying additive secret sharing to data a, v is an integer equal to 254, p=2, k=8, the secure multiparty computation method computing a share [a v] of the v-th power of data a from a share [a] of data a while data a is concealed and being executed by a secure multiparty computation system that includes three or more secret computation apparatuses (1 1,..., 1 n), the secure multiparty computation method comprising: computing multiplications using a protocol Mult in additive secret sharing; and computing the p u -th power of a share [a t] of the t-th power of data a, in a local operation unit of each of the secret computation apparatuses, using a local power operation LocalExp that does not communicate with the other secret computation apparatuses, wherein the share [a t] is locally held, u and t are integers equal to or larger than 1 satisfying t*p u ≤ v, characterized in that the secure multiparty computation method computes the share [a v] as: [a 2]:=LocalExp([a], 2), [a 3]←Mult([a 2], [a]), [a 12]:=LocalExp([a 3], 2 2), [a 15]←Mult([a 12], [a 3]), [a 14]←Mult([a 12], [a 2]), [a 240]:=LocalExp([a 15], 2 4), and [a 254]←Mult([a 240], [a 14]); and the multiplications of Mult([a 12], [a 3]) and Mult([a 12], [a 2]) are executed in parallel. the secure multiparty computation method computing a share [a v] of the v-th power of data a from a share [a] of data a while data a is concealed and being executed by a secure multiparty computation system that includes three or more secret computation apparatuses (1 1,..., 1 n), the secure multiparty computation method comprising: computing multiplications using a protocol Mult in additive secret sharing; and computing the p u -th power of a share [a t] of the t-th power of data a, in a local operation unit of each of the secret computation apparatuses, using a local power operation LocalExp that does not communicate with the other secret computation apparatuses, wherein the share [a t] is locally held, u and t are integers equal to or larger than 1 satisfying t*p u ≤ v, characterized in that the secure multiparty computation method computes the share [a v] as: [a 2]:=LocalExp([a], 2), [a 3]←Mult([a 2], [a]), [a 12]:=LocalExp([a 3], 2 2), [a 15]←Mult([a 12], [a 3]), [a 14]←Mult([a 12], [a 2]), [a 240]:=LocalExp([a 15], 2 4), and [a 254]←Mult([a 240], [a 14]); and the multiplications of Mult([a 12], [a 3]) and Mult([a 12], [a 2]) are executed in parallel. [a 2]:=LocalExp([a], 2), [a 3]←Mult([a 2], [a]), [a 12]:=LocalExp([a 3], 2 2), [a 15]←Mult([a 12], [a 3]), [a 14]←Mult([a 12], [a 2]), [a 240]:=LocalExp([a 15], 2 4), and [a 254]←Mult([a 240], [a 14]); and the multiplications of Mult([a 12], [a 3]) and Mult([a 12], [a 2]) are executed in parallel.
A system (1, 2) for remotely and non-invasively monitoring a plasma source in a plasma chamber, said system (1, 2) comprising: a magnetic field antenna positioned, in use, in the near electromagnetic field of the plasma source, wherein the magnetic field antenna is a magnetic loop antenna, which, in use, is placed in the near electromagnetic field, remote from the plasma chamber, and is inductively coupled to the plasma source, and wherein the magnetic loop antenna is adapted to measure near field signals emitted from the plasma source.
A polydopamine film, characterized by being loaded with silver sulfadiazine; wherein the polydopamine film is free of a residue of a catalyst of trifluoromethanesulfonic acid or trifluoromethanesulfonic salt.
A system for automatically protecting a motor independent of the occurrence or accuracy of a fault load amperage, abbreviation FLA, value being provided for initial calibration, the system comprising an overload circuit including a current sensor for sensing at least a peak inrush current and a running current supplied to the motor and a contactor provisioned for selectively supplying power to the motor over time the system being characterized by: a microprocessor-based control board, wherein the control board implements executable instructions stored in memory for calculating an acceptable operating range for the running current, the acceptable operating range being calculated based on a fraction range of the sensed peak inrush current, and the control board is configured to indicate a fault condition if the sensed running current does not enter the acceptable operating range within a predetermined amount of time or not stay within the acceptable operating range during continued operation of the motor.
A control apparatus for an internal combustion engine equipped with a recirculation device for returning part of exhaust gas to an intake side, characterized by comprising: a calculation portion that calculates a retardation amount (α, β, γ) indicating an amount by which a base ignition timing determined by an operation state of the internal combustion engine is corrected toward a retardation side,; and a control portion that controls an ignition timing of the internal combustion engine with reference to a set ignition timing (a) obtained by retarding the base ignition timing in accordance with the retardation amount, wherein the calculation portion calculates the retardation amount as a larger value when the recirculation device is in operation than when the recirculation device is stopped; and the base ignition timing is advanced as the amount of EGR gas increases, the control apparatus being characterized in that the calculation portion calculates the retardation amount (α, β, γ) in accordance with an intake air temperature (THa) as a temperature of a gas sucked into the internal combustion engine; and when the recirculation device is in operation, the retardation amount is set to a value that increases as the EGR gas increases. a calculation portion that calculates a retardation amount (α, β, γ) indicating an amount by which a base ignition timing determined by an operation state of the internal combustion engine is corrected toward a retardation side,; and a control portion that controls an ignition timing of the internal combustion engine with reference to a set ignition timing (a) obtained by retarding the base ignition timing in accordance with the retardation amount, wherein the calculation portion calculates the retardation amount as a larger value when the recirculation device is in operation than when the recirculation device is stopped; and the base ignition timing is advanced as the amount of EGR gas increases, the control apparatus being characterized in that the calculation portion calculates the retardation amount (α, β, γ) in accordance with an intake air temperature (THa) as a temperature of a gas sucked into the internal combustion engine; and when the recirculation device is in operation, the retardation amount is set to a value that increases as the EGR gas increases.
Method for cleaning a surface in a private household with a cleaning robot which is provided with at least one sensor (2, 3) for detecting obstacles and for mapping the surroundings and/or performs a cleaning ride according to a route planned on the basis of sensor signals of the sensor (2, 3), wherein the cleaning robot has wheels for moving in a direction of travel and a cleaning mechanism for cleaning, wherein the wheels and the cleaning mechanism are driven by at least one motor which is supplied with electrical energy by means of at least one battery of the cleaning robot, characterized in that the cleaning robot has an overall height H of 0.12 m to 0.5 m, a weight W of less than 20 kg, a maximum possible operating speed S max of less than 1.50 km/h and an area performance A of 220 m 2 to 950 m 2 at a dust pick-up, abbreviated DPU, from the surface to be cleaned of DPU > 50%, wherein the area performance A with the unit [m 2] describes the size of a surface that can be cleaned after a complete charging of all batteries of the cleaning robot at DPU > 50% or which is with a maximum speed v max at DPU > 50% according to the formula area performance A = v max · s B T 3600, where v max = maximum speed in [m/s] at DPU > 50%, s B = cleaning width of the cleaning robot in [m] and T = maximum running time in [h] at the maximum speed v max at DPU > 50%, wherein the maximum running time T is the operating time that is possible with a full charge of the battery or batteries of the cleaning robot at the maximum speed v max at which the criterion DPU > 50% is just fulfilled over the cleaning width, wherein the cleaning width is the width transverse to the direction of travel, which the cleaning robot is capable of cleaning during a forward movement in the direction of travel during a cleaning ride, wherein the surface is cleaned by the cleaning robot at least twice a day for at least one week, wherein at least one piece of furniture with a clearance height of not more than 10 cm is present on the surface to be cleaned.
A measuring device comprising a comb signal generator, wherein the comb signal generator comprises a signal generator, adapted to successively generate a plurality of continuous wave signals, wherein the comb signal generator is adapted to successively generate a comb signal from each continuous wave signal of the plurality of continuous wave signals, wherein each of the comb signals has a comb signal bandwidth, wherein the comb signal generator comprises a modulator, adapted to successively modulate each of said continuous wave signals of the plurality of continuous wave signals with a control signal, whereby generating the comb signals, wherein the measuring device comprises at least one measuring path connected to at least one measuring port, and wherein the signal generator of the comb signal generator is adapted to generate measuring signals within the at least one measuring path. wherein the comb signal generator comprises a signal generator, adapted to successively generate a plurality of continuous wave signals, wherein the comb signal generator is adapted to successively generate a comb signal from each continuous wave signal of the plurality of continuous wave signals, wherein each of the comb signals has a comb signal bandwidth, wherein the comb signal generator comprises a modulator, adapted to successively modulate each of said continuous wave signals of the plurality of continuous wave signals with a control signal, whereby generating the comb signals, wherein the measuring device comprises at least one measuring path connected to at least one measuring port, and wherein the signal generator of the comb signal generator is adapted to generate measuring signals within the at least one measuring path.
A rotatable mixing member for pasteurizing machines and the like adapted to be accommodated in axially rotatable manner inside the working tank of a pasteurizing machine or the like, for mixing and homogenizing milk or other liquids contained in said working tank; the rotatable mixing member comprising: an oblong central hub adapted to be driven into rotation around the longitudinal axis thereof; a cup-shaped body, which is fitted with clearance on the oblong central hub and is provided, on the peripheral wall, with a series of small fat-breaking through-openings which are shaped and dimensioned so as to cause the breakdown of fat globules in suspension in the milk or other liquid; and an impeller which is fitted on the oblong central hub in angularly rigid manner and with the capability of moving axially along said oblong central hub between a first operating position in which the impeller is at a predetermined minimum distance from the bottom/ crown of the cup-shaped body, and a second operating position in which the impeller is at a predetermined maximum distance from the bottom/crown of the cup-shaped body; the rotatable mixing member being characterised in that said impeller is mechanically coupled to the oblong central hub so as to arrange itself in the first operating position when the oblong central hub rotates in a clockwise direction, and to arrange itself in the second operating position when the oblong central hub rotates in an anticlockwise direction, or vice versa. the rotatable mixing member comprising: an oblong central hub adapted to be driven into rotation around the longitudinal axis thereof; a cup-shaped body, which is fitted with clearance on the oblong central hub and is provided, on the peripheral wall, with a series of small fat-breaking through-openings which are shaped and dimensioned so as to cause the breakdown of fat globules in suspension in the milk or other liquid; and an impeller which is fitted on the oblong central hub in angularly rigid manner and with the capability of moving axially along said oblong central hub between a first operating position in which the impeller is at a predetermined minimum distance from the bottom/ crown of the cup-shaped body, and a second operating position in which the impeller is at a predetermined maximum distance from the bottom/crown of the cup-shaped body; the rotatable mixing member being characterised in that said impeller is mechanically coupled to the oblong central hub so as to arrange itself in the first operating position when the oblong central hub rotates in a clockwise direction, and to arrange itself in the second operating position when the oblong central hub rotates in an anticlockwise direction, or vice versa.
A method for heartbeat packet processing by using a proxy, wherein the method is applied to a host, and the method comprises: receiving, by the host, a first heartbeat packet sent by a first application in a client (11, 12), wherein the client (11, 12) is a terminal that accesses the host by using a short range communications technology; determining, by the host according to the first heartbeat packet and a first preset list, whether the first application is comprised in the first preset list, wherein the first preset list comprises at least one application that is preset and for which the host performs heartbeat packet processing by using a proxy; when the first application is comprised in the first preset list, determining, by the host, first heartbeat time information of the first application according to the first heartbeat packet; and performing, by the host, time synchronization between the first heartbeat time information and second heartbeat time information of a second application in the host, and sending a second heartbeat packet to a server on a network side in place of the client (11, 12) by using the time-synchronized second application as a proxy for the first application, so that the client (11, 12) does not need to initiate a heartbeat packet of the first application in the client (11, 12). receiving, by the host, a first heartbeat packet sent by a first application in a client (11, 12), wherein the client (11, 12) is a terminal that accesses the host by using a short range communications technology; determining, by the host according to the first heartbeat packet and a first preset list, whether the first application is comprised in the first preset list, wherein the first preset list comprises at least one application that is preset and for which the host performs heartbeat packet processing by using a proxy; when the first application is comprised in the first preset list, determining, by the host, first heartbeat time information of the first application according to the first heartbeat packet; and performing, by the host, time synchronization between the first heartbeat time information and second heartbeat time information of a second application in the host, and sending a second heartbeat packet to a server on a network side in place of the client (11, 12) by using the time-synchronized second application as a proxy for the first application, so that the client (11, 12) does not need to initiate a heartbeat packet of the first application in the client (11, 12).
Vehicle, in particular an industrial truck, having at least one pillar and a retention system for a driver of the vehicle, wherein the retention system has at least one protective bar which is supported on the at least one pillar of the vehicle, characterized in that the at least one protective bar is supported so as to be pivotable relative to the at least one pillar by means of at least one eccentric for alignment relative to the at least one pillar, wherein the pivotability is lockable by means of at least one holding means, wherein at least two eccentrics are provided for different pivoting directions.
An isolated nucleic acid with a sequence which encodes a polypeptide with Δ12-desaturase activity, having a) a nucleic acid with the sequence shown in SEQ ID NO: 109, b) a nucleic acid which, as the result of the degeneracy of the genetic code, can be derived from the amino acid sequence shown in SEQ ID NO: 110, or c) derivatives of the nucleic acid sequence shown in SEQ ID NO: 109 which encodes polypeptides with at least 70% identity at the amino acid level with SEQ ID NO: 110 and which has Δ12-desaturase activity. a) a nucleic acid with the sequence shown in SEQ ID NO: 109, b) a nucleic acid which, as the result of the degeneracy of the genetic code, can be derived from the amino acid sequence shown in SEQ ID NO: 110, or c) derivatives of the nucleic acid sequence shown in SEQ ID NO: 109 which encodes polypeptides with at least 70% identity at the amino acid level with SEQ ID NO: 110 and which has Δ12-desaturase activity.
A trace analyte collection swab comprising: a substrate comprising paper or an aramid polymer, the substrate comprising a surface having a trace analyte collection area; and a coating disposed on the surface of the substrate in the trace analyte collection area, the coating comprising polyisobutylene to collect particles of the trace analyte from a surface when the trace analyte collection area is placed against the surface; wherein the coating is applied over a limited portion of the trace analyte collection area so that collected particles of trace analyte are concentrated for delivery to a detector for desorption of the trace analyte. a substrate comprising paper or an aramid polymer, the substrate comprising a surface having a trace analyte collection area; and a coating disposed on the surface of the substrate in the trace analyte collection area, the coating comprising polyisobutylene to collect particles of the trace analyte from a surface when the trace analyte collection area is placed against the surface; wherein the coating is applied over a limited portion of the trace analyte collection area so that collected particles of trace analyte are concentrated for delivery to a detector for desorption of the trace analyte.
A tubular threaded joint comprising a pin and a box each having contact surface including threads and an unthreaded metal contact portion, characterized in that the contact surface of at least one of the pin and the box has a lubricating coating comprising particles of a copolymer of a resin selected from a silicone resin and a fluorocarbon resin with a thermoplastic resin, said particles being dispersed in a viscous matrix having a complex shear viscosity of at least 3000 Pa-sec at 25° C, measured in accordance with JIS K 7244-10, 2005, Part 10.