mhurhangee/ep-ind-claims huggingface dataset:
An information processing apparatus comprising: an image information acquisition unit configured to acquire image information of programs being broadcast by a plurality of broadcasting stations; a comment acquisition unit configured to acquire, from an external posting site, comments of viewers by using tags in form of character strings of each of the plurality of broadcasting stations as a search key, the comments being viewers' feedbacks on the content of a program being viewed and grouped according to the tags; and a display processing unit configured to generate data to be displayed on a screen, the data include video of a program being broadcast live by a first broadcasting station of the plurality of broadcasting stations and the comments acquired by the comment acquisition unit by using the tag of each of the plurality of broadcasting stations as a search key, which broadcast in parallel to the first broadcasting station. an image information acquisition unit configured to acquire image information of programs being broadcast by a plurality of broadcasting stations; a comment acquisition unit configured to acquire, from an external posting site, comments of viewers by using tags in form of character strings of each of the plurality of broadcasting stations as a search key, the comments being viewers' feedbacks on the content of a program being viewed and grouped according to the tags; and a display processing unit configured to generate data to be displayed on a screen, the data include video of a program being broadcast live by a first broadcasting station of the plurality of broadcasting stations and the comments acquired by the comment acquisition unit by using the tag of each of the plurality of broadcasting stations as a search key, which broadcast in parallel to the first broadcasting station.
A cordless telephone device which includes at least one or more slave devices and a master device thereof, and is arranged to transfer slave device transfer data including image data or music data, selected by a wireless IP terminal which is wirelessly connected to the master device through a wireless LAN, to the slave devices, wherein the master device includes a wireless IP terminal authentication unit that is arranged to determine whether or not the wireless IP terminal is connectable to the master device, based on an authentication ID and an authentication password, which are received from the wireless IP terminal; a slave device transfer data receiving unit that is arranged to receive slave device transfer data from the wireless IP terminal, and to store the received slave device transfer data in a storage unit; a destination slave device determining unit that is arranged to determine one or more destination slave devices of the slave device transfer data, based on the authentication ID from the wireless IP terminal; a slave device transfer data conversion unit that is arranged to convert the slave device transfer data into a data format which is available in the respective destination slave device, based on a data type of the slave device transfer data and conversion format information of the respective destination slave device; and a slave device transfer data transmitting unit that is arranged to transmit the slave device transfer data which is converted by the slave device transfer data conversion unit, to all of the destination slave devices which are determined by the destination slave device determining unit characterized in that the destination slave device determining unit is arranged to determine the one or more destination slave devices using transfer restriction information, in which presence or absence of a regulation in the transfer of the slave device transfer data to each slave device is associated with the authentication ID of the wireless IP terminal for which the transfer of the slave device transfer data is permitted if the transfer regulation is present.
An electronic device comprising: a gas sensor having different sensitivities in temperature for types of a plurality of gases; a heater configured to vary temperature of the gas sensor; a memory configured to store temperature control information corresponding to the types of a plurality of gases; and a processor configured to: control the heater to operate at a reference temperature, in response to a predetermined event related to a change of an output value of the gas sensor being occurred while the heater is operating at the reference temperature, control the heater based on first temperature control information corresponding to a first gas, and obtain a concentration of the first gas based on an output value of the gas sensor while the heater is being controlled based on the first temperature control information, and control the heater based on second temperature control information corresponding to a second gas different from the first gas, and obtain a concentration of the second gas based on an output value of the gas sensor while the heater is being controlled based on the second temperature control information. a gas sensor having different sensitivities in temperature for types of a plurality of gases; a heater configured to vary temperature of the gas sensor; a memory configured to store temperature control information corresponding to the types of a plurality of gases; and a processor configured to: control the heater to operate at a reference temperature, in response to a predetermined event related to a change of an output value of the gas sensor being occurred while the heater is operating at the reference temperature, control the heater based on first temperature control information corresponding to a first gas, and obtain a concentration of the first gas based on an output value of the gas sensor while the heater is being controlled based on the first temperature control information, and control the heater based on second temperature control information corresponding to a second gas different from the first gas, and obtain a concentration of the second gas based on an output value of the gas sensor while the heater is being controlled based on the second temperature control information. control the heater to operate at a reference temperature, in response to a predetermined event related to a change of an output value of the gas sensor being occurred while the heater is operating at the reference temperature, control the heater based on first temperature control information corresponding to a first gas, and obtain a concentration of the first gas based on an output value of the gas sensor while the heater is being controlled based on the first temperature control information, and control the heater based on second temperature control information corresponding to a second gas different from the first gas, and obtain a concentration of the second gas based on an output value of the gas sensor while the heater is being controlled based on the second temperature control information.
A process for conversion of heteroatom-containing compounds in a hydrocarbon feedstock to their oxidation products comprising: separating the hydrocarbon feedstock into an aromatic-lean fraction and an aromatic-rich fraction; hydrotreating the aromatic-lean fraction; contacting the aromatic-rich fraction with an effective amount of gaseous oxidant in an organic peroxide generation apparatus under conditions effective for organic peroxide generation and to produce a mixture containing organic peroxide and heteroatom-containing hydrocarbons; reacting the mixture containing produced organic peroxide and heteroatom-containing hydrocarbons in a separate oxidative reaction apparatus under conditions effective for, and for a residence time sufficient for, oxidative conversion of heteroatom-containing hydrocarbons in the mixture into oxidation products of heteroatom-containing hydrocarbons. separating the hydrocarbon feedstock into an aromatic-lean fraction and an aromatic-rich fraction; hydrotreating the aromatic-lean fraction; contacting the aromatic-rich fraction with an effective amount of gaseous oxidant in an organic peroxide generation apparatus under conditions effective for organic peroxide generation and to produce a mixture containing organic peroxide and heteroatom-containing hydrocarbons; reacting the mixture containing produced organic peroxide and heteroatom-containing hydrocarbons in a separate oxidative reaction apparatus under conditions effective for, and for a residence time sufficient for, oxidative conversion of heteroatom-containing hydrocarbons in the mixture into oxidation products of heteroatom-containing hydrocarbons.
Multi-antenna radio communication method, in which frequency sub-bands B s k, where k =1,..., P, have been allotted respectively to P user antennas s 1,..., s P belonging to a single user or to several users, within a total frequency band B T, and in which at least one of these user antennas communicates with a base station on its respective frequency sub-band B s k by means of a signal filtered by time reversal, characterized in that, for at least one pair of user antennas s i and s j, where i,j = 1,..., P and i ≠j, the respective frequency sub-bands B s i and B s j, overlap by δB s i,s j, said overlap δB s i,s j being a predetermined function of the correlation between the respective propagation channels of these two user antennas with said base station.
Method for determining a wall thickness by means of ultrasound upon use of a pig wherein by means of at least one first ultrasonic transducer which is attached to the pig ultrasound is transmitted in an object wherefrom the wall thickness has to be determined and wherein by means of at least one second ultrasonic transducer, a receiving signal is generated representing reflections of the ultrasound on the object received by the at least one second transducer and wherein the received signals are processed by means of a processor provided at the pig to obtain a compressed receiving signal comprising positive and negative peaks, wherein the compressed receiving signal comprising the positive and negative peaks is stored in a storing device provided at the pig, wherein, in use, the processor determines in the receiving signal maximal N peaks having the largest amplitudes and associated information on the moment on which these peaks occur within the receiving signal, wherein peaks having positive and negative amplitudes are taken into account for determining the maximal N peaks in the compressed receiving signal, and wherein information about the maximal N peaks and associated information on the moment on which these peaks occur is stored in the storing device, wherein more than one peak per wall interface is stored. wherein by means of at least one first ultrasonic transducer which is attached to the pig ultrasound is transmitted in an object wherefrom the wall thickness has to be determined and wherein by means of at least one second ultrasonic transducer, a receiving signal is generated representing reflections of the ultrasound on the object received by the at least one second transducer and wherein the received signals are processed by means of a processor provided at the pig to obtain a compressed receiving signal comprising positive and negative peaks, wherein the compressed receiving signal comprising the positive and negative peaks is stored in a storing device provided at the pig, wherein, in use, the processor determines in the receiving signal maximal N peaks having the largest amplitudes and associated information on the moment on which these peaks occur within the receiving signal, wherein peaks having positive and negative amplitudes are taken into account for determining the maximal N peaks in the compressed receiving signal, and wherein information about the maximal N peaks and associated information on the moment on which these peaks occur is stored in the storing device, wherein more than one peak per wall interface is stored.
Spout comprising at least two parts (11, 12), characterized in that said parts are relatively moveable with respect to each other such that at least one of the two parts (11, 12) of the spout comprise means presenting a measurable resistance to being connected to an engaging part of a beverage preparation device and/or to the relative movement of the two parts (11, 12) of the spout.
Medical imaging device consisting of an ionizing radiation source, incorporating a device for determining the dose deposited during a radiological imaging examination of a patient comprising: - a plurality of interchangeable measurement probes, each measurement probe comprising at least one optical probe defining two output ends, said optical probe comprising at least one active portion made of a scintillating material and intended to emit scintillation photons under the effect of incident ionizing radiation, and at least two transport portions arranged on either side of the active portion and configured to transport the scintillation photons emitted by the active portion toward the two output ends; - at least one detection system comprising at least two photodetectors, each photodetector being connected to a relevant output end of the optical probe so as to receive and count the scintillation photons received from said output end; and - at least one processing module, configured to determine the deposited dose from the measurements made by said photodetectors, said deposited dose being directly correlated to the quantity of photons emitted under the ionizing radiation received by the patient undergoing the radiological examination, characterized in that said medical imaging device further comprises a receiving box housing said at least one detection system, said receiving box and said multiple interchangeable measurement probes comprising complementary connectors (23, 25) configured for removably connecting each measurement probe to the receiving box, each measurement probe being provided with calibration information specific to said each measurement probe, each measurement probe being provided with an RFID chip containing said calibration information, said RFID chip being configured to communicate said calibration information to the processing unit when said each measurement probe is connected to the receiving box. - a plurality of interchangeable measurement probes, each measurement probe comprising at least one optical probe defining two output ends, said optical probe comprising at least one active portion made of a scintillating material and intended to emit scintillation photons under the effect of incident ionizing radiation, and at least two transport portions arranged on either side of the active portion and configured to transport the scintillation photons emitted by the active portion toward the two output ends; - at least one detection system comprising at least two photodetectors, each photodetector being connected to a relevant output end of the optical probe so as to receive and count the scintillation photons received from said output end; and - at least one processing module, configured to determine the deposited dose from the measurements made by said photodetectors, said deposited dose being directly correlated to the quantity of photons emitted under the ionizing radiation received by the patient undergoing the radiological examination,
An information processing method for calculating the position and orientation of an object, the information processing method comprising the steps of: inputting a plurality of captured images from an imaging device for capturing the image of the object from a bird's-eye view position; inputting a measured orientation value from an orientation sensor for measuring information concerning the orientation of the object; from each of the captured images, detecting feature values concerning the image coordinates of indices disposed on the object; finding a parameter, for each captured image, concerning the azimuth of the object and a parameter concerning the position of the object, by using the detected feature values concerning the image coordinates of the indices; finding an average parameter concerning the azimuth (S503, S505) by averaging over a predetermined number of captured images the parameter concerning the azimuth; and calculating the position and orientation of the object using the average parameter. inputting a plurality of captured images from an imaging device for capturing the image of the object from a bird's-eye view position; inputting a measured orientation value from an orientation sensor for measuring information concerning the orientation of the object; from each of the captured images, detecting feature values concerning the image coordinates of indices disposed on the object; finding a parameter, for each captured image, concerning the azimuth of the object and a parameter concerning the position of the object, by using the detected feature values concerning the image coordinates of the indices; finding an average parameter concerning the azimuth (S503, S505) by averaging over a predetermined number of captured images the parameter concerning the azimuth; and calculating the position and orientation of the object using the average parameter.
A system to detect and control noise in seismic surveys, comprising a data processing system comprising memory and one or more processors to receive, responsive to a seismic wave generated by a source, seismic data detected by a sensor component of a seismic data acquisition unit; generate, for a plurality of windows of the seismic data, Hough tensors for a plurality of seismic data transforms in a plurality of dimensions; detect, based on a comparison of an eigenvector and eigenvalue of a canonical matrix of the Hough tensors with a historical eigenvector and eigenvalue of a historical canonical matrix of historical Hough tensors of historical seismic data, a first presence of noise in the seismic data corresponding to a noisy spectra pattern in at least one of the plurality of seismic data transforms of the plurality of windows of the seismic data; and provide, responsive to detection of the first presence of noise in the seismic data, a notification to adjust a characteristic of the seismic survey to cause subsequently detected seismic data to have a second presence of noise that is less than the first presence of noise. receive, responsive to a seismic wave generated by a source, seismic data detected by a sensor component of a seismic data acquisition unit; generate, for a plurality of windows of the seismic data, Hough tensors for a plurality of seismic data transforms in a plurality of dimensions; detect, based on a comparison of an eigenvector and eigenvalue of a canonical matrix of the Hough tensors with a historical eigenvector and eigenvalue of a historical canonical matrix of historical Hough tensors of historical seismic data, a first presence of noise in the seismic data corresponding to a noisy spectra pattern in at least one of the plurality of seismic data transforms of the plurality of windows of the seismic data; and provide, responsive to detection of the first presence of noise in the seismic data, a notification to adjust a characteristic of the seismic survey to cause subsequently detected seismic data to have a second presence of noise that is less than the first presence of noise.
Method for coating scaled metallic extruded deformation product with a lubricant for deformation in a subsequent drawing process, characterized in that the scaled deformation product is encapsulated, prior to the subsequent drawing process, with a solid lubricant and is deformed with a degree of deformation ε of > 3%, and is then drawn through at least one residence chamber for the purpose of mixing the scale particles, produced from the scale layer as a consequence of the deformation, with the lubricant that is present on the deformation product after this deformation.
The compounds of Formula I wherein L 1 is OC n, or O n; wherein n is 2, or 3; L 2 is NHC, or absent; L 3 is wherein m is 0, 1, 2, or 3; provided that m may only be 0 if L 2 is absent. L 1 is OC n, or O n; wherein n is 2, or 3; L 2 is NHC, or absent; L 3 is wherein m is 0, 1, 2, or 3; provided that m may only be 0 if L 2 is absent.
A method to identify fractures in a hydrocarbon reservoir comprising: a) either (i) transmitting one or more seismic source signals into the earth; and receiving one or more seismic signals at two or more geophones; or (ii) transmitting two or more seismic source signals into the earth, and receiving two or more seismic signals at one or more geophones; b) recording source-receiver records to a computer processor comprising a user interface and a storage medium; c) pre-processing each pair of source-receiver records for each azimuth, including: (i) applying linear move-out, (ii) removing dipping signals, (iii) extracting refraction travel time, and (iv) removing linear move-out; d) deriving azimuthal anisotropic parameters from refraction travel time and fracture strike direction for geophone location; and e) correlating changes in anisotropic parameters and the fracture strike direction to one or more reservoir models to identify fractures. a) either (i) transmitting one or more seismic source signals into the earth; and receiving one or more seismic signals at two or more geophones; or (ii) transmitting two or more seismic source signals into the earth, and receiving two or more seismic signals at one or more geophones; b) recording source-receiver records to a computer processor comprising a user interface and a storage medium; c) pre-processing each pair of source-receiver records for each azimuth, including: (i) applying linear move-out, (ii) removing dipping signals, (iii) extracting refraction travel time, and (iv) removing linear move-out; (i) applying linear move-out, (ii) removing dipping signals, (iii) extracting refraction travel time, and (iv) removing linear move-out; d) deriving azimuthal anisotropic parameters from refraction travel time and fracture strike direction for geophone location; and e) correlating changes in anisotropic parameters and the fracture strike direction to one or more reservoir models to identify fractures.
A base station characterized by receiving a transmission signal from a mobile station to other base station, and starting transmission of a control signal with predetermined power depending on a reception condition of the transmission signal.
A surface covering comprising: a polymer, wherein the polymer is polyvinyl chloride; a bio-based plasticizer, wherein the bio-based plasticizer is chloro-methoxy fat diethylene glycol dinitrate, said bio-based plasticizer being 25-40 parts per 100 parts of the polymer; a stabilizer selected from the group consisting of organocalcium, organozinc, organobarium or a combination thereof, said stabilizer being 1-2 parts per 100 parts of the polymer; and a co-stabilizer which is an epoxidized polyglyceride, said co-stabilizer being 1.5-7 parts per 100 parts of the polymer. a polymer, wherein the polymer is polyvinyl chloride; a bio-based plasticizer, wherein the bio-based plasticizer is chloro-methoxy fat diethylene glycol dinitrate, said bio-based plasticizer being 25-40 parts per 100 parts of the polymer; a stabilizer selected from the group consisting of organocalcium, organozinc, organobarium or a combination thereof, said stabilizer being 1-2 parts per 100 parts of the polymer; and a co-stabilizer which is an epoxidized polyglyceride, said co-stabilizer being 1.5-7 parts per 100 parts of the polymer.