mhurhangee/ep-ind-claims huggingface dataset:
A data processing apparatus comprising: a first acquisition unit configured to acquire first measurement data that is a set of measurement values in a first period among time series data of measurement values of a sensor of interest; a second acquisition unit configured to acquire second measurement data that is a set of measurement values in a second period different from the first period among the time series data of the measurement values of the sensor of interest; a first differential unit configured to calculate, from the first measurement data, a first differential value set that is a set of first differential values in a time direction at a time included in the first period of the measurement values of the sensor of interest; a second differential unit configured to calculate, from the second measurement data, a second differential value set that is a set of second differential values in a time direction at a time included in the second period of the measurement values of the sensor of interest; a first distribution unit configured to generate a first differential value distribution using the first differential value set; a second distribution unit configured to generate a second differential value distribution using the second differential value set; a first output unit configured to output the first differential value distribution; and a second output unit configured to output the second differential value distribution, wherein the first and the second differential values represent time derivatives. a first acquisition unit configured to acquire first measurement data that is a set of measurement values in a first period among time series data of measurement values of a sensor of interest; a second acquisition unit configured to acquire second measurement data that is a set of measurement values in a second period different from the first period among the time series data of the measurement values of the sensor of interest; a first differential unit configured to calculate, from the first measurement data, a first differential value set that is a set of first differential values in a time direction at a time included in the first period of the measurement values of the sensor of interest; a second differential unit configured to calculate, from the second measurement data, a second differential value set that is a set of second differential values in a time direction at a time included in the second period of the measurement values of the sensor of interest; a first distribution unit configured to generate a first differential value distribution using the first differential value set; a second distribution unit configured to generate a second differential value distribution using the second differential value set; a first output unit configured to output the first differential value distribution; and a second output unit configured to output the second differential value distribution, wherein the first and the second differential values represent time derivatives.
A method for interleaving dissimilar memory devices (104a, 104b), the method comprising: determining an interleave bandwidth ratio comprising a ratio of bandwidths for two or more dissimilar memory devices (104a, 104b), the two or more dissimilar memory devices comprising at least a first memory device with a first bandwidth in communication with a first processing unit and a second memory device with a second bandwidth in communication with a second processing unit; interleaving the dissimilar memory devices (104a, 104b) according to the interleave bandwidth ratio with a memory channel optimization module in direct communication with the first and second memory devices (104a, 104b) and in direct communication with the first and second processing units (106, 108); directly receiving at the memory channel optimization module memory address requests from the first and second processing units (106, 108); and directly distributing the memory address requests from the memory channel optimization module to the dissimilar memory devices (104a, 104b) according to the interleave bandwidth ratio, such that the incoming traffic from the first and second processing units (106, 108) is matched to the available bandwidth on any of memory channels (114, 118) of the first and/or second memory devices (104a, 104b). determining an interleave bandwidth ratio comprising a ratio of bandwidths for two or more dissimilar memory devices (104a, 104b), the two or more dissimilar memory devices comprising at least a first memory device with a first bandwidth in communication with a first processing unit and a second memory device with a second bandwidth in communication with a second processing unit; interleaving the dissimilar memory devices (104a, 104b) according to the interleave bandwidth ratio with a memory channel optimization module in direct communication with the first and second memory devices (104a, 104b) and in direct communication with the first and second processing units (106, 108); directly receiving at the memory channel optimization module memory address requests from the first and second processing units (106, 108); and directly distributing the memory address requests from the memory channel optimization module to the dissimilar memory devices (104a, 104b) according to the interleave bandwidth ratio, such that the incoming traffic from the first and second processing units (106, 108) is matched to the available bandwidth on any of memory channels (114, 118) of the first and/or second memory devices (104a, 104b).
An electrically driven vehicle (1A- 1J) comprising: a vehicle body provided with a vehicle interior, a battery which is mounted to the vehicle body and is able to be used for running; a first air conditioning means which is operable to execute an air-conditioning operation which uses an electrical power of the battery when air-conditioning the vehicle interior; characterized by further comprising: a second air conditioning means which is at least partly removably mounted to the vehicle body, and is operable to execute an air-conditioning operation other than the air-conditioning operation which uses the electrical power of the battery when air-conditioning the vehicle interior; and an air conditioning change means (50A - 50F) which is operable to change at least one of use states of the first air conditioning means and the second air conditioning means, wherein the second air conditioning means is at least one of a power generation device driven by an engine which is operable to generate electric power by using fuel and execute an air-conditioning operation which uses waste heat in electric power generation and a power generation device driven by an engine which is operable to generate electric power by using fuel and execute an air-conditioning operation which uses heat released from a cooling medium; and the battery is operable to be charged by the electrical power generated by the second air conditioning means. a vehicle body provided with a vehicle interior, a battery which is mounted to the vehicle body and is able to be used for running; a first air conditioning means which is operable to execute an air-conditioning operation which uses an electrical power of the battery when air-conditioning the vehicle interior; a second air conditioning means which is at least partly removably mounted to the vehicle body, and is operable to execute an air-conditioning operation other than the air-conditioning operation which uses the electrical power of the battery when air-conditioning the vehicle interior; and an air conditioning change means (50A - 50F) which is operable to change at least one of use states of the first air conditioning means and the second air conditioning means, wherein the second air conditioning means is at least one of a power generation device driven by an engine which is operable to generate electric power by using fuel and execute an air-conditioning operation which uses waste heat in electric power generation and a power generation device driven by an engine which is operable to generate electric power by using fuel and execute an air-conditioning operation which uses heat released from a cooling medium; and the battery is operable to be charged by the electrical power generated by the second air conditioning means.
A photomask unit comprising a pellicle membrane, a pellicle fram having a frame-like shape onto one surface of which a region of the pellicle membrane in the vicinity of side portions thereof is fixed, a photomask, and a stage onto one surface of which the photomask and the pellicle frame are fixed, wherein the pellicle frame is fixed onto the stage at a region outside of a region of the stage onto which the photomask is fixed and the pellicle membrane through which exposure light transmits is provided to cover an entire region of one of the openings formed by the pellicle frame.
Feed mechanism to feed objects for insertion into tobacco industry products, comprising: a first rotary member (4, 31) for receiving objects, the first rotary member having a plurality of channels (9, 33a, 33b) arranged to rotate with the first rotary member, wherein the channels are adapted so that in use objects are urged centrifugally through said channels; and a second rotary member comprising object-receiving pockets for receiving objects dispensed from said channels, wherein one or more of said channels deviates from a radial path. a first rotary member (4, 31) for receiving objects, the first rotary member having a plurality of channels (9, 33a, 33b) arranged to rotate with the first rotary member, wherein the channels are adapted so that in use objects are urged centrifugally through said channels; and a second rotary member comprising object-receiving pockets for receiving objects dispensed from said channels, wherein one or more of said channels deviates from a radial path.
An internal combustion engine control apparatus, comprising: a memory configured to record a relationship between a reference crank angle sensor signal and an in-cylinder pressure signal of a predetermined cylinder; and a processor configured to obtain in-cylinder pressure of the predetermined cylinder by collating the detected signal of the crank angle sensor with the relationship between the reference crank angle sensor signal and the in-cylinder pressure signal of the predetermined cylinder, the relationship being stored in the memory, and to compare the obtained in-cylinder pressure of the predetermined cylinder with the in-cylinder pressure signal of the predetermined cylinder, wherein when a deviation of the in-cylinder pressure signal and the obtained in-cylinder pressure exceeds a predetermined value, the obtained in-cylinder pressure is used as in-cylinder pressure signal in the internal combustion engine control apparatus. a memory configured to record a relationship between a reference crank angle sensor signal and an in-cylinder pressure signal of a predetermined cylinder; and a processor configured to obtain in-cylinder pressure of the predetermined cylinder by collating the detected signal of the crank angle sensor with the relationship between the reference crank angle sensor signal and the in-cylinder pressure signal of the predetermined cylinder, the relationship being stored in the memory, and to compare the obtained in-cylinder pressure of the predetermined cylinder with the in-cylinder pressure signal of the predetermined cylinder, wherein when a deviation of the in-cylinder pressure signal and the obtained in-cylinder pressure exceeds a predetermined value, the obtained in-cylinder pressure is used as in-cylinder pressure signal in the internal combustion engine control apparatus.
Gas-lift digester operating in continuous mode for the anaerobic digestion of waste coming from the cycle of production and consumption of foods for the purpose of producing fertilisers and biogas, where part of the biogas produced is sent to at least one gas-lift pipe of the digester, characterised in that it likewise comprises of: - a vertical conduit placed preferably in the centre of the digester; - a cross of pipes placed on the base of the digester and connected with the central conduit for the conveying of the fluid from the periphery to the centre or vice versa; - at least one cylindrical compartmentalisation baffle of division in radial direction of the digester, open upwards with overflow onto the waterline or downwards onto the base, to control the orderly flow of fluid from the top downwards and vice versa and the movement on the surface and on the base of the digester. - a vertical conduit placed preferably in the centre of the digester; - a cross of pipes placed on the base of the digester and connected with the central conduit for the conveying of the fluid from the periphery to the centre or vice versa; - at least one cylindrical compartmentalisation baffle of division in radial direction of the digester, open upwards with overflow onto the waterline or downwards onto the base, to control the orderly flow of fluid from the top downwards and vice versa and the movement on the surface and on the base of the digester.
A charging station for providing electrical charge in a controlled-environment facility, the charging station comprising: a solar panel configured to receive light energy from a controlled-environment light source; an accumulator configured to receive power from the solar panel to store energy; a controller, configured to regulate discharging of energy from the accumulator based on a threshold of remaining energy stored in the accumulator; and a charging interface configured to discharge energy stored in the accumulator to an electronic device; characterized by a power interface configured to receive power from a telephone wall outlet, wherein the accumulator is further configured to store trickle charge with power from said telephone wall outlet. a solar panel configured to receive light energy from a controlled-environment light source; an accumulator configured to receive power from the solar panel to store energy; a controller, configured to regulate discharging of energy from the accumulator based on a threshold of remaining energy stored in the accumulator; and a charging interface configured to discharge energy stored in the accumulator to an electronic device; characterized by a power interface configured to receive power from a telephone wall outlet, wherein the accumulator is further configured to store trickle charge with power from said telephone wall outlet.
Illumination device, comprising a plurality of optoelectronic modules and a basic body, to which the modules are fixed, wherein at least one of plurality of modules comprises: - a connection carrier, - an optoelectronic component arranged on the connection carrier, - a cooling element, on which the connection carrier is arranged, - a covering extending over the connection carrier, and - an electrical, in particular electronic, control element for controlling the optoelectronic component; characterized in that the basic body is open in the region between two modules such that cooling gas can enter between two modules into the basic body. - a connection carrier, - an optoelectronic component arranged on the connection carrier, - a cooling element, on which the connection carrier is arranged, - a covering extending over the connection carrier, and - an electrical, in particular electronic, control element for controlling the optoelectronic component; characterized in that the basic body is open in the region between two modules such that cooling gas can enter between two modules into the basic body.
An air jet loom with a weft insertion control device, including a weft insertion nozzle, a plurality of sub-nozzles and a brake braking a weft yarn before weft insertion ends, wherein the weft insertion control device includes a sensor provided within a width of cloth to be woven by the air jet loom so as to detect the weft yarn and a correction unit correcting air injection start timing (D1, F1, H1) of the sub-nozzles, characterized in that the sensor is disposed between a leading end position of the weft yarn that is located at air injection end timing of the weft insertion nozzle and a leading end position of the weft yarn that is located at brake timing of the brake, wherein the correction unit estimates a weft traveling curve (A, B, C, E, G) based on weft detection timing of the sensor, wherein the weft traveling curve (A, B, C, E, G) is obtained using different air injection pressures of the sub-nozzles considering a weft insertion direction and a loom angular position and wherein the correction unit corrects the air injection start timing (D1, F1, H1 of the sub-nozzles in accordance with the estimated weft traveling curve (A, B, C, E, G). wherein the weft insertion control device includes a sensor provided within a width of cloth to be woven by the air jet loom so as to detect the weft yarn and a correction unit correcting air injection start timing (D1, F1, H1) of the sub-nozzles, characterized in that the sensor is disposed between a leading end position of the weft yarn that is located at air injection end timing of the weft insertion nozzle and a leading end position of the weft yarn that is located at brake timing of the brake, wherein the correction unit estimates a weft traveling curve (A, B, C, E, G) based on weft detection timing of the sensor, wherein the weft traveling curve (A, B, C, E, G) is obtained using different air injection pressures of the sub-nozzles considering a weft insertion direction and a loom angular position and wherein the correction unit corrects the air injection start timing (D1, F1, H1 of the sub-nozzles in accordance with the estimated weft traveling curve (A, B, C, E, G).
An apparatus comprising: at least one first stage amplifier configured to amplify received carrier signals to generate at least one first stage carrier group, each first stage carrier group includes a respective portion of the carrier signals; and second stage amplifiers configured to amplify the first stage carrier groups to generate second stage output signals, each second stage amplifier configured to amplify a respective first stage carrier group to generate a first set of two second stage output signals wherein the first set of two second stage output signals are output to different demodulation stages, wherein each demodulation stage is configured to demodulate a second set of two second stage output signals which are based on a single selected carrier. at least one first stage amplifier configured to amplify received carrier signals to generate at least one first stage carrier group, each first stage carrier group includes a respective portion of the carrier signals; and second stage amplifiers configured to amplify the first stage carrier groups to generate second stage output signals, each second stage amplifier configured to amplify a respective first stage carrier group to generate a first set of two second stage output signals wherein the first set of two second stage output signals are output to different demodulation stages, wherein each demodulation stage is configured to demodulate a second set of two second stage output signals which are based on a single selected carrier.
A method of sealing leaks in pipes or ducts, the method comprising: (a) forming particles (120, 130, 132) of a sealant, said particles (120, 130, 132) having an outer surface with a tack that diminishes over time; the tack of said particles (120, 130, 132) being temporally controlled; (b) creating a pressure differential between the interior and exterior of the pipes or ducts; (c) flowing said particles through the interior of leaky pipes or ducts; and (d) adhering sealant particles (120, 130, 132) to surfaces adjacent to a leak and to other particles to form a seal; (e) wherein said temporal control of the tack of the sealant particles being such that sealant particles (120, 130, 132) that do not form a seal will not adhere to interior surfaces of the pipe or duct or to other particles (120, 130, 132) after a period of time or after a certain distance from the particle injection point. (a) forming particles (120, 130, 132) of a sealant, said particles (120, 130, 132) having an outer surface with a tack that diminishes over time; the tack of said particles (120, 130, 132) being temporally controlled; (b) creating a pressure differential between the interior and exterior of the pipes or ducts; (c) flowing said particles through the interior of leaky pipes or ducts; and (d) adhering sealant particles (120, 130, 132) to surfaces adjacent to a leak and to other particles to form a seal; (e) wherein said temporal control of the tack of the sealant particles being such that sealant particles (120, 130, 132) that do not form a seal will not adhere to interior surfaces of the pipe or duct or to other particles (120, 130, 132) after a period of time or after a certain distance from the particle injection point.
A method of manufacturing ceramic and/or metal components in which a support structure surrounding at least one free space is formed by a polymer by an areal or selective application of the non-hardened viscous polymer or polymer mixture onto the surface of a carrier and in which at least one free space is filled in at least one predefinable portion with a plastically deformable or liquid mixture of at least a metal powder or ceramic powder and with at least one organic binder such that the mixture contacts the wall of the support structure at least in part; and subsequently, in a first thermal treatment, the mixture is transferred into a state having a sufficient strength for maintaining its geometrical shape and thereby a temperature is observed at which the polymer forming the support structure remains stable in shape; and subsequently, in a second thermal treatment, the temperature is increased and in so doing the polymer forming the support structure is completely decomposed and the metal powder and/or ceramic powder is/are sintered.
A slide rail mechanism adapted to mount an electric apparatus to a rack, the slide rail mechanism comprising: a first rail; a second rail movable relative to the first rail, wherein the electric apparatus is mounted on the second rail; and a bracket device arranged to the first rail, the bracket device being mounted to the rack; characterized by: wherein the electric apparatus is arranged on a first side of the slide rail mechanism, the bracket device comprises a structure feature, and the structure feature is a cable through hole for communicating the first side and a second side opposite to the first side of the slide rail mechanism; wherein the structure feature is configured to allow a cable of the electric apparatus to pass through. a first rail; a second rail movable relative to the first rail, wherein the electric apparatus is mounted on the second rail; and a bracket device arranged to the first rail, the bracket device being mounted to the rack; characterized by: wherein the electric apparatus is arranged on a first side of the slide rail mechanism, the bracket device comprises a structure feature, and the structure feature is a cable through hole for communicating the first side and a second side opposite to the first side of the slide rail mechanism; wherein the structure feature is configured to allow a cable of the electric apparatus to pass through. wherein the electric apparatus is arranged on a first side of the slide rail mechanism, the bracket device comprises a structure feature, and the structure feature is a cable through hole for communicating the first side and a second side opposite to the first side of the slide rail mechanism; wherein the structure feature is configured to allow a cable of the electric apparatus to pass through.