mhurhangee/ep-ind-claims huggingface dataset:
Reactor system for preparing biogas by anaerobic degradation of one or more organic substances, the system comprising a reactor, which reactor is provided with a biogas collection system and an outlet for biogas produced in the reactor, with effluent withdrawal means for withdrawing liquid effluent from the reactor, and with a methane gas-recovery unit (8/16) for recovering methane gas from the liquid effluent, the methane gas-recovery unit comprising an inlet (7/11) for the liquid effluent, which inlet(7/11) is in fluid communication with the effluent withdrawal means, the methane gas-recovery unit further comprising an outlet (10/19) for a gas phase comprising methane, and an outlet (9/18) for a liquid effluent, wherein the effluent withdrawal means comprise collection channels, the channels having openings (e, f) for introducing liquid effluent into the collection channels, and an outlet (d) for the liquid effluent, which outlet is in fluid communication with the methane recovery unit, the collection channels comprising an inlet for a gas phase, which inlet may be one or more openings for liquid effluent (e, f) or a separate inlet (c), wherein the reactor system has a conduit between the outlet for biogas produced in the reactor and the unit for producing energy from methane, which conduit comprises a gas flow meter, and wherein the reactor system comprises a conduit for transporting the gas phase from the methane gas-recovery unit to the unit for producing energy from methane, which conduit comprises a gas flow meter.
An image purple fringe eliminating method performed by a photographing device, comprising steps of: acquiring an image; traversing the acquired image and calculating hues of pixels, counting a ratio of pixels of purple and adjacent to purple in the image, and calculating a dynamic detection threshold value of purple fringe using the formula { minPH = 195 + t * ratio maxPH = 315 − t * ratio where minPH, maxPH represent the minimum hue threshold value and the maximum hue threshold value of purple fringe respectively, and parameter t is 20; creating a mask with the same size as the acquired image, and detecting pixels within purple fringe region; and correcting the detected pixels within the purple fringe region, and correcting both a red channel intensity value and a blue channel intensity value of the pixels within the purple fringe region using a green channel intensity value; and outputting a corrected image; wherein the step of counting a ratio of pixels of purple and adjacent to purple in the image, specifically comprises: using a preset hue threshold value range of purple and adjacent to purple, counting the total number N of pixels of purple and adjacent to purple of which the hues within the threshold value range, and calculating a ratio of the total number N of pixels of purple and adjacent to purple relative to the pixels of the whole image using the formula ratio = N Size where Size represents an image size. acquiring an image; traversing the acquired image and calculating hues of pixels, counting a ratio of pixels of purple and adjacent to purple in the image, and calculating a dynamic detection threshold value of purple fringe using the formula { minPH = 195 + t * ratio maxPH = 315 − t * ratio where minPH, maxPH represent the minimum hue threshold value and the maximum hue threshold value of purple fringe respectively, and parameter t is 20; creating a mask with the same size as the acquired image, and detecting pixels within purple fringe region; and correcting the detected pixels within the purple fringe region, and correcting both a red channel intensity value and a blue channel intensity value of the pixels within the purple fringe region using a green channel intensity value; and outputting a corrected image; wherein the step of counting a ratio of pixels of purple and adjacent to purple in the image, specifically comprises: using a preset hue threshold value range of purple and adjacent to purple, counting the total number N of pixels of purple and adjacent to purple of which the hues within the threshold value range, and calculating a ratio of the total number N of pixels of purple and adjacent to purple relative to the pixels of the whole image using the formula ratio = N Size where Size represents an image size.
A method for upgrading a current version of an operating system of a router, the method comprising: acquiring upgrade files; selecting one upgrading version proximate the current version as a reference version, and upgrading the current version to the reference version by using the upgrade file corresponding to the reference version; and on the basis of the reference version, selecting one upgrading version proximate the reference version as a next reference version, and upgrading the reference version to the next reference version till upgrading to a target version, characterized in that the upgrade files correspond to a plurality of upgrading versions higher than the current version, the target version being the highest version in the plurality of upgrading versions, and in that the step of selecting one upgrading version proximate the current version as the reference version comprises: acquiring a preset version upgrade list from the acquired upgrade files, the acquired upgrade files comprising the preset version upgrade list, and the preset version upgrade list comprising an upgrade sequence of the plurality of upgrading versions; and, determining the upgrading version next to the current version in the upgrade sequence from low to high as the reference version according to the preset version upgrade list. acquiring upgrade files; selecting one upgrading version proximate the current version as a reference version, and upgrading the current version to the reference version by using the upgrade file corresponding to the reference version; and on the basis of the reference version, selecting one upgrading version proximate the reference version as a next reference version, and upgrading the reference version to the next reference version till upgrading to a target version, characterized in that the upgrade files correspond to a plurality of upgrading versions higher than the current version, the target version being the highest version in the plurality of upgrading versions, and in that the step of selecting one upgrading version proximate the current version as the reference version comprises: acquiring a preset version upgrade list from the acquired upgrade files, the acquired upgrade files comprising the preset version upgrade list, and the preset version upgrade list comprising an upgrade sequence of the plurality of upgrading versions; and, determining the upgrading version next to the current version in the upgrade sequence from low to high as the reference version according to the preset version upgrade list. acquiring a preset version upgrade list from the acquired upgrade files, the acquired upgrade files comprising the preset version upgrade list, and the preset version upgrade list comprising an upgrade sequence of the plurality of upgrading versions; and, determining the upgrading version next to the current version in the upgrade sequence from low to high as the reference version according to the preset version upgrade list.
A computer-implemented method performed by a data processing apparatus, the method comprising: arming a sensor (210, 220, 230, 240, 250; 71, 72) of a security system; receiving a trip signal indicating a tripping of the sensor; determining (506, 508) if the trip signal can be automatically overridden based on matching an identity of the sensor and a state of the security system with at least one pattern in a model, wherein the at least one pattern represents a state of the security system in which automatically overriding the trip signal from the sensor is permitted; and if the current state of the security system matches the at least one pattern in the model for which automatic overrides are allowed then automatically overriding the trip signal from the sensor without input from a user; and if the model does not indicate that the trip signal can be automatically overridden, sending, by the security system, a request to the user of the security system to override the trip signal, and if the user chooses to override the trip signal, updating, by the security system, the model based on the user's choice to override and the current state of the security system. arming a sensor (210, 220, 230, 240, 250; 71, 72) of a security system; receiving a trip signal indicating a tripping of the sensor; determining (506, 508) if the trip signal can be automatically overridden based on matching an identity of the sensor and a state of the security system with at least one pattern in a model, wherein the at least one pattern represents a state of the security system in which automatically overriding the trip signal from the sensor is permitted; and if the current state of the security system matches the at least one pattern in the model for which automatic overrides are allowed then automatically overriding the trip signal from the sensor without input from a user; and if the model does not indicate that the trip signal can be automatically overridden, sending, by the security system, a request to the user of the security system to override the trip signal, and if the user chooses to override the trip signal, updating, by the security system, the model based on the user's choice to override and the current state of the security system. if the current state of the security system matches the at least one pattern in the model for which automatic overrides are allowed then automatically overriding the trip signal from the sensor without input from a user; and if the model does not indicate that the trip signal can be automatically overridden, sending, by the security system, a request to the user of the security system to override the trip signal, and if the user chooses to override the trip signal, updating, by the security system, the model based on the user's choice to override and the current state of the security system.
A method of preparing a vinyl chloride-based polymer according to claim 5 comprising: forming particle nuclei by adding a mercaptan-based chain transfer agent to a monomer composition including a vinyl chloride-based monomer and a preliminary polymerization initiator (preliminary polymerization), wherein the mercaptan-based chain transfer agent is added when a conversion rate of the preliminary polymerization is 3 to 8%; and preparing a polymer by mixing a vinyl chloride-based monomer and the particle nuclei and adding a main polymerization initiator (main polymerization), wherein the main polymerization is performed through a bulk polymerization method, wherein the mercaptan-based chain transfer agent is represented by Chemical Formula 1 below: wherein R 1 and R 2 are the same or different from each other, are each independently hydrogen or a C1 to C20 alkyl group, and any one of R 1 and R 2 is combined with -OH, -COOH, or -COOR (here, R is a C1 to C5 alkyl group) when R 1 and R 2 are not hydrogen, A is a C1 to C30 alkylene group, a C1 to C30 alkylene group combined with one or more hydroxy groups, or a C2 to C30 heteroalkylene group, wherein the heteroalkylene group includes one or more heteroatoms selected from N, O, and S, and X is -OH, -COOH, or -COOR (here, R is a C1 to C5 alkyl group). forming particle nuclei by adding a mercaptan-based chain transfer agent to a monomer composition including a vinyl chloride-based monomer and a preliminary polymerization initiator (preliminary polymerization), wherein the mercaptan-based chain transfer agent is added when a conversion rate of the preliminary polymerization is 3 to 8%; and preparing a polymer by mixing a vinyl chloride-based monomer and the particle nuclei and adding a main polymerization initiator (main polymerization), wherein the main polymerization is performed through a bulk polymerization method, wherein R 1 and R 2 are the same or different from each other, are each independently hydrogen or a C1 to C20 alkyl group, and any one of R 1 and R 2 is combined with -OH, -COOH, or -COOR (here, R is a C1 to C5 alkyl group) when R 1 and R 2 are not hydrogen, A is a C1 to C30 alkylene group, a C1 to C30 alkylene group combined with one or more hydroxy groups, or a C2 to C30 heteroalkylene group, wherein the heteroalkylene group includes one or more heteroatoms selected from N, O, and S, and X is -OH, -COOH, or -COOR (here, R is a C1 to C5 alkyl group).
A nozzle comprising a nozzle body having a conduit, wherein the conduit has an inlet end and an outlet end; and a plug connected to the nozzle body and obstructing the inlet end, wherein the plug is connected to the nozzle body in a detachable manner; wherein the plug and the conduit are configured such that, when the plug is detached from the nozzle body, the plug is adapted to travel along the conduit and characterised in that the plug is adapted to be retained within the conduit at the outlet end such that fluid can flow through the conduit from the inlet end towards the outlet end.
A method for processing seismic data, comprising: receiving seismic data acquired by a plurality of seismic sensors; applying a first operator to the received seismic data in a first domain to generate a first set of seismic data that corresponds to the received seismic data due to a first seismic source, wherein the first domain is a data domain measured with respect to the first seismic source; applying a second operator to the first set of seismic data in a second domain to generate a second set of seismic data that corresponds to residual seismic data due to a second seismic source, wherein the second domain is a data domain measured with respect to the second seismic source; applying the first operator to the received seismic data in the second domain to generate a third set of seismic data that corresponds to the received seismic data due to the second seismic source; applying the second operator to the third set of seismic data to generate a fourth set of seismic data that corresponds to residual seismic data due to the first seismic source; determining an estimate of the received seismic data due to the first source based on the first, second and fourth sets of seismic data; determining an estimate of the received seismic data due to the second source based on the second, third and fourth sets of seismic data; and processing the estimates of the received seismic data due to the first source and the second source to determine the presence of hydrocarbon deposits in a subterranean area of the earth. receiving seismic data acquired by a plurality of seismic sensors; applying a first operator to the received seismic data in a first domain to generate a first set of seismic data that corresponds to the received seismic data due to a first seismic source, wherein the first domain is a data domain measured with respect to the first seismic source; applying a second operator to the first set of seismic data in a second domain to generate a second set of seismic data that corresponds to residual seismic data due to a second seismic source, wherein the second domain is a data domain measured with respect to the second seismic source; applying the first operator to the received seismic data in the second domain to generate a third set of seismic data that corresponds to the received seismic data due to the second seismic source; applying the second operator to the third set of seismic data to generate a fourth set of seismic data that corresponds to residual seismic data due to the first seismic source; determining an estimate of the received seismic data due to the first source based on the first, second and fourth sets of seismic data; determining an estimate of the received seismic data due to the second source based on the second, third and fourth sets of seismic data; and processing the estimates of the received seismic data due to the first source and the second source to determine the presence of hydrocarbon deposits in a subterranean area of the earth.
A difference measurement circuit for readout of a sensor unit, the difference measurement circuit comprising a first port (P1, P1') and a second port (P2, P2') for connection to a first set of nodes (A, B) and a second set of nodes (C, D) of the sensor unit, the circuit further comprising switching units (61, 62) for switching excitation signals emanating from excitation nodes (C', D') from being applied to the first set of nodes (A, B) via the first port (P1, P1') to being applied to the second set of nodes (C, D) via the second port (P2, P2') and for switching differential measurement signals measured at sensing nodes (A', B') from being obtained from the second set of nodes (C, D) via the second port (P2, P2') to being obtained from the first set of nodes (A, B) via the first port (P1, P1'), and redundancy testing circuitry for evaluating the similarity or deviation between measurement signals obtained in different states of the switching units (61,62) wherein said redundancy testing circuitry is adapted for evaluating the similarity or deviation of any one of the following: - measurement signals obtained at said excitation nodes (C', D') resulting from a current and/or a voltage applied as an excitation to the sensor unit; - a measurement of a linear combination of voltages at the excitation nodes; or - a measurement of a linear combination of voltages at the sensing nodes and at the excitation nodes. - measurement signals obtained at said excitation nodes (C', D') resulting from a current and/or a voltage applied as an excitation to the sensor unit; - a measurement of a linear combination of voltages at the excitation nodes; or - a measurement of a linear combination of voltages at the sensing nodes and at the excitation nodes.
A method for frequency band weighted time domain feedforward signal cancellation, the method comprising: receiving an input signal that is to be transmitted over a channel; calculating an instantaneous frequency of the input signal; applying the instantaneous frequency as an adaptive parameter in an adaptation performed relative to the input signal by a signal canceller FIR filter; providing an output signal based on the adaptation; characterized in that the method further comprises: selecting a band from a set of pre-configured bands based on the calculated instantaneous frequency; and updating coefficients of the signal canceller FIR filter corresponding to the selected band. receiving an input signal that is to be transmitted over a channel; calculating an instantaneous frequency of the input signal; applying the instantaneous frequency as an adaptive parameter in an adaptation performed relative to the input signal by a signal canceller FIR filter; providing an output signal based on the adaptation; characterized in that the method further comprises: selecting a band from a set of pre-configured bands based on the calculated instantaneous frequency; and updating coefficients of the signal canceller FIR filter corresponding to the selected band. selecting a band from a set of pre-configured bands based on the calculated instantaneous frequency; and updating coefficients of the signal canceller FIR filter corresponding to the selected band.
A base paper for a nursery pot body, wherein a biodegradable resin composition containing a polylactic acid resin as a resin is laminated on a paper substrate, the biodegradable resin composition contains an aliphatic polyester resin other than the polylactic acid resin, the aliphatic polyester resin being defined as a resin, a mass ratio between the resin and the resin is 20:80 to 30:70, and a thickness of the biodegradable resin layer to be laminated on the paper substrate is 20 μm to 35 μm. a biodegradable resin composition containing a polylactic acid resin as a resin is laminated on a paper substrate, the biodegradable resin composition contains an aliphatic polyester resin other than the polylactic acid resin, the aliphatic polyester resin being defined as a resin, a mass ratio between the resin and the resin is 20:80 to 30:70, and a thickness of the biodegradable resin layer to be laminated on the paper substrate is 20 μm to 35 μm.
A method of manufacturing a midsole for an article of footwear comprising placing first and second preforms into a first recess in a first portion of a mold, a second portion of the mold having a second recess that cooperates with the first recess to define a midsole recess, the first portion and the second portion cooperating to define a first overflow chamber connected to the midsole recess; closing the mold by positioning the first and second portions in contact with one another; heating the mold for a predetermined period of time at a predetermined temperature such that the first and second preforms melt and bond together to form a midsole within the first recess, with a portion of each of the first and second preforms flowing into the first overflow chamber to form a first overflow portion; removing the midsole from the mold; allowing the midsole to expand; and cutting away the first overflow portion of the midsole.
A terminal comprising: a receiving section adapted to receive at least one configuration by higher layer signaling, the at least one configuration each including information on a periodicity of physical uplink shared channel, PUSCH, transmission and information on a time domain resource and a frequency domain resource of the PUSCH transmission, the at least one configuration each corresponding to a band in one cell; and a control section adapted to, when the receiving section receives multiple configurations in one cell, perform corresponding PUSCH transmission in accordance with only one of the multiple configurations at a certain time. a receiving section adapted to receive at least one configuration by higher layer signaling, the at least one configuration each including information on a periodicity of physical uplink shared channel, PUSCH, transmission and information on a time domain resource and a frequency domain resource of the PUSCH transmission, the at least one configuration each corresponding to a band in one cell; and a control section adapted to, when the receiving section receives multiple configurations in one cell, perform corresponding PUSCH transmission in accordance with only one of the multiple configurations at a certain time.