mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic resin composition comprising: 100 parts by weight of a polycarbonate resin; 1 part by weight to 10 parts by weight of a first rubber-modified vinyl graft copolymer obtained through graft polymerization of a monomer mixture comprising an aromatic vinyl monomer and a vinyl cyanide monomer to a rubber polymer; 1 part by weight to 10 parts by weight of a second rubber-modified vinyl graft copolymer obtained through graft polymerization of an alkyl (meth)acrylate monomer to a rubber polymer; 1 part by weight to 30 parts by weight of a phosphorus flame retardant; and 0.1 parts by weight to 5 parts by weight of a capsulated fluorine polymer, wherein the first rubber-modified vinyl graft copolymer and the second rubber-modified vinyl graft copolymer are present in a weight ratio of 1:1,5 to 1:2,5. 100 parts by weight of a polycarbonate resin; 1 part by weight to 10 parts by weight of a first rubber-modified vinyl graft copolymer obtained through graft polymerization of a monomer mixture comprising an aromatic vinyl monomer and a vinyl cyanide monomer to a rubber polymer; 1 part by weight to 10 parts by weight of a second rubber-modified vinyl graft copolymer obtained through graft polymerization of an alkyl (meth)acrylate monomer to a rubber polymer; 1 part by weight to 30 parts by weight of a phosphorus flame retardant; and 0.1 parts by weight to 5 parts by weight of a capsulated fluorine polymer, wherein the first rubber-modified vinyl graft copolymer and the second rubber-modified vinyl graft copolymer are present in a weight ratio of 1:1,5 to 1:2,5.
A wireless communication method, comprising: receiving , at a first communication node, information that includes one or more parameters indicating a time-domain characteristic of one or more interfered symbols due to a remote interference between the first communication node and a second communication node; performing , by the first communication node, subsequent communications based on the information, wherein the first communication node and the second communication agree to operate using a maximum downlink transmission boundary and a maximum uplink transmission boundary within a downlink-uplink switching period, said downlink-uplink switching period comprising downlink symbols, uplink symbols and a number of flexible symbols between the downlink and uplink symbols; and wherein the one or more parameters include a first parameter and a second parameter, the first parameter indicating a first time-domain distance between a last downlink symbol that is a remote interference management reference signal (RIM-RS) symbol configured by the second communication node and a first reference point, the first reference point being the maximum downlink transmission boundary, and the second parameter indicating a second time-domain distance between a first uplink symbol configured by the second communication node and a second reference point, the second reference point being the maximum uplink transmission boundary; and receiving, at the first communication node, a reference signal from the second communication node indicating the remote interference. receiving , at a first communication node, information that includes one or more parameters indicating a time-domain characteristic of one or more interfered symbols due to a remote interference between the first communication node and a second communication node; performing , by the first communication node, subsequent communications based on the information, wherein the first communication node and the second communication agree to operate using a maximum downlink transmission boundary and a maximum uplink transmission boundary within a downlink-uplink switching period, said downlink-uplink switching period comprising downlink symbols, uplink symbols and a number of flexible symbols between the downlink and uplink symbols; and wherein the one or more parameters include a first parameter and a second parameter, the first parameter indicating a first time-domain distance between a last downlink symbol that is a remote interference management reference signal (RIM-RS) symbol configured by the second communication node and a first reference point, the first reference point being the maximum downlink transmission boundary, and the second parameter indicating a second time-domain distance between a first uplink symbol configured by the second communication node and a second reference point, the second reference point being the maximum uplink transmission boundary; and receiving, at the first communication node, a reference signal from the second communication node indicating the remote interference.
An optical biometric imaging device configured to capture an image of an object in contact with an outer surface of the biometric imaging device, the biometric imaging device comprising: an image sensor comprising a photodetector pixel array and image sensor circuitry configured to capture an image of the object in contact with the outer surface of the imaging device; the image sensor comprising a first electrically conductive structure arranged adjacent to an active sensing area of the photodetector pixel array; a display panel arranged on top of and at a distance from the image sensor, the display panel comprising a second electrically conductive structure on a bottom side of the display panel and arranged to face the first electrically conductive structure of the image sensor; and capacitive readout circuitry arranged and configured to detect a capacitance between the first electrically conductive structure and the second electrically conductive structure, wherein the image sensor is configured to determine a demagnification factor of the biometric imaging device based on a known relation between the detected capacitance and the distance between the first and second electrically conductive structures. an image sensor comprising a photodetector pixel array and image sensor circuitry configured to capture an image of the object in contact with the outer surface of the imaging device; the image sensor comprising a first electrically conductive structure arranged adjacent to an active sensing area of the photodetector pixel array; a display panel arranged on top of and at a distance from the image sensor, the display panel comprising a second electrically conductive structure on a bottom side of the display panel and arranged to face the first electrically conductive structure of the image sensor; and capacitive readout circuitry arranged and configured to detect a capacitance between the first electrically conductive structure and the second electrically conductive structure, wherein the image sensor is configured to determine a demagnification factor of the biometric imaging device based on a known relation between the detected capacitance and the distance between the first and second electrically conductive structures.
A control method of a washing machine including a cabinet including an entrance which is formed in a front surface of the cabinet such that laundry is input into or output from the entrance , a tub mounted inside the cabinet , a drum received in the tub and rotatably provided, a motor to provide driving force to rotate the drum , a vibration sensor to sense vibration of the tub , and a controller to control an operating mode for washing the laundry, the control method comprising: performing a tumble motion for rotating the drum at a preset rotational speed to rinse the laundry; characterized by : determining a stabilization time defined as an initial driving time taken until the motor reaches a steady state in which the motor constantly maintains a rotational speed; acquiring, by the controller, vibration data sensed by the vibration sensor after the stabilization time is elapsed; measuring a weight of the laundry and calculating a cloth amount level defined as a value that matches a weight range of the measured weight of the laundry, and determining a volume of the laundry based on the calculated cloth amount level and the vibration data. performing a tumble motion for rotating the drum at a preset rotational speed to rinse the laundry; characterized by : determining a stabilization time defined as an initial driving time taken until the motor reaches a steady state in which the motor constantly maintains a rotational speed; acquiring, by the controller, vibration data sensed by the vibration sensor after the stabilization time is elapsed; measuring a weight of the laundry and calculating a cloth amount level defined as a value that matches a weight range of the measured weight of the laundry, and determining a volume of the laundry based on the calculated cloth amount level and the vibration data. determining a stabilization time defined as an initial driving time taken until the motor reaches a steady state in which the motor constantly maintains a rotational speed; acquiring, by the controller, vibration data sensed by the vibration sensor after the stabilization time is elapsed; measuring a weight of the laundry and calculating a cloth amount level defined as a value that matches a weight range of the measured weight of the laundry, and determining a volume of the laundry based on the calculated cloth amount level and the vibration data.
A system for a system management mode, SMM, privilege architecture, comprising: a computing device comprising: a first portion of SMM instructions to set up a number of resources and implement a privilege architecture for the SMM of a computing device; and a second portion of SMM instructions to execute a number of functions during the SMM of the computing device, wherein the first portion of SMM instructions and the second portion of SMM instructions are stored on an SMRAM of the computing device; and wherein the privilege architecture assigns the first portion of SMM instructions to a first privilege level and assigns the second portion of SMM instructions to a second privilege level, wherein the privilege architecture defines the first privilege level as a less restricted privilege level than the second privilege level, and wherein the first portion of SMM instructions monitor security policy violations via an exception handler and identify a source of the security policy violations. a computing device comprising: a first portion of SMM instructions to set up a number of resources and implement a privilege architecture for the SMM of a computing device; and a second portion of SMM instructions to execute a number of functions during the SMM of the computing device, a first portion of SMM instructions to set up a number of resources and implement a privilege architecture for the SMM of a computing device; and a second portion of SMM instructions to execute a number of functions during the SMM of the computing device, wherein the first portion of SMM instructions and the second portion of SMM instructions are stored on an SMRAM of the computing device; and wherein the privilege architecture assigns the first portion of SMM instructions to a first privilege level and assigns the second portion of SMM instructions to a second privilege level, wherein the privilege architecture defines the first privilege level as a less restricted privilege level than the second privilege level, and wherein the first portion of SMM instructions monitor security policy violations via an exception handler and identify a source of the security policy violations.
A process comprising: a. converting natural gas in a first reaction zone under first reaction conditions to produce a first gas stream comprising hydrogen and methane and a first solid carbon product; b. separating at least a portion of the first solid carbon product from the first gas stream; and c. converting at least a portion of the first gas stream in a second reaction zone under second reaction conditions to produce a second gas stream and a second solid carbon product, wherein the second reaction zone comprises a molten metal and/or molten salt. a. converting natural gas in a first reaction zone under first reaction conditions to produce a first gas stream comprising hydrogen and methane and a first solid carbon product; b. separating at least a portion of the first solid carbon product from the first gas stream; and c. converting at least a portion of the first gas stream in a second reaction zone under second reaction conditions to produce a second gas stream and a second solid carbon product, wherein the second reaction zone comprises a molten metal and/or molten salt.
A probabilistic method for determining an operability interval for fasteners retaining components in a nuclear power plant assembly comprising: (a) providing a geometric distribution of a given initial condition of fasteners in the nuclear power plant assembly at an initial time T0; (b) generating a plurality of random future fastener failure patterns by applying a future fastener failure probability model to the geometric distribution at a given time T1 > T0; (c) inputting the plurality of random future fastener failure patterns at time T1 into a machine learning model and outputting stresses of the fasteners and displacements of the components; (d) iterating, by a processor of a computer, the applying and inputting steps for a given range of time values T2, T3, ..., Tx >T0 and determining a maximum future time Tmax at which a predetermined acceptable probability of the fastener failure patterns has acceptable values of the stresses of the fasteners and displacements of the components, thereby justifying the acceptability of the fasteners for continued operation of the nuclear power plant assembly; and (e) determining the operability interval as being the maximum future time Tmax minus the initial time T0. (a) providing a geometric distribution of a given initial condition of fasteners in the nuclear power plant assembly at an initial time T0; (b) generating a plurality of random future fastener failure patterns by applying a future fastener failure probability model to the geometric distribution at a given time T1 > T0; (c) inputting the plurality of random future fastener failure patterns at time T1 into a machine learning model and outputting stresses of the fasteners and displacements of the components; (d) iterating, by a processor of a computer, the applying and inputting steps for a given range of time values T2, T3, ..., Tx >T0 and determining a maximum future time Tmax at which a predetermined acceptable probability of the fastener failure patterns has acceptable values of the stresses of the fasteners and displacements of the components, thereby justifying the acceptability of the fasteners for continued operation of the nuclear power plant assembly; and (e) determining the operability interval as being the maximum future time Tmax minus the initial time T0.
A fiducial marker for use with an implantable lead , comprising: a structure extending along and about a longitudinal axis , the structure having an asymmetrical shape about the longitudinal axis when viewed in any radial direction from the longitudinal axis so as to provide a unique radioscopic silhouette in any radial direction, wherein the fiducial marker includes a proximal portion , a distal portion , and a central portion extending there between, characterized in that the proximal portion comprises a band-shaped element extending in a circular fashion about longitudinal axis , the distal portion comprises a tab extending parallel to longitudinal axis , and the central portion comprises a helically-shaped element extending at least semi-helically about longitudinal axis . a structure extending along and about a longitudinal axis , the structure having an asymmetrical shape about the longitudinal axis when viewed in any radial direction from the longitudinal axis so as to provide a unique radioscopic silhouette in any radial direction, wherein the fiducial marker includes a proximal portion , a distal portion , and a central portion extending there between, characterized in that the proximal portion comprises a band-shaped element extending in a circular fashion about longitudinal axis , the distal portion comprises a tab extending parallel to longitudinal axis , and the central portion comprises a helically-shaped element extending at least semi-helically about longitudinal axis .
Method of optimizing the chemical precipitations process in water treatment plants and waste water treatment plants using an aluminum based coagulant, wherein the optimization, which comprises the degree of contamination of the clear water phase after precipitation and sludge separation, cost of operation and sludge production, is obtained by in situ regulation, of precipitation pH, amount of coagulant that is used in the precipitation process and the basicity of the coagulant, based at least on online measurement of degree of contamination, pH, flow and temperature of incoming untreated water and/or in the clear water phase after precipitation and sludge separation, wherein a control system is used for regulation of precipitation pH, the amount of coagulant used in the precipitation process and the basicity of the coagulant, wherein the control system uses degree of contamination, pH, flow and temperature of the incoming untreated water and/or in the clear water phase after precipitation and sludge separation, characterized in that the basicity of the coagulant is regulated by adding in situ, to a stock solution of polymerized aluminum based coagulant (A), a solution of an aluminum based coagulant (B) having a lower basicity than the polymerized aluminum based coagulant (A) in the stock solution, so as to in that way in situ obtain the aluminum based coagulant that is used in the precipitation process. wherein a control system is used for regulation of precipitation pH, the amount of coagulant used in the precipitation process and the basicity of the coagulant, wherein the control system uses degree of contamination, pH, flow and temperature of the incoming untreated water and/or in the clear water phase after precipitation and sludge separation, characterized in that the basicity of the coagulant is regulated by adding in situ, to a stock solution of polymerized aluminum based coagulant (A), a solution of an aluminum based coagulant (B) having a lower basicity than the polymerized aluminum based coagulant (A) in the stock solution, so as to in that way in situ obtain the aluminum based coagulant that is used in the precipitation process.
Elevator control method for an elevator system comprising: - elevator cars (11.1, 11.2, 11.3) movable in an elevator shaft of a building the building being dividable into serving sectors (A, B) each serving sector comprising several floors to be served, - recording means for recording car usage data the recording means dedicated to the cars (11.1, 11.2, 11.3), wherein the recording means forward the car usage data to - an elevator controller receiving the car usage data for creating car-logbook-data, - wherein a division into serving sectors is decided by defining limit floors of each sector on evaluation-analysis of the car-logbook-data by continuously monitoring interfloor traffic and gathering and storing the car usage data over a period of time into a memory of the elevator controller and allocating a serving sector (A, B) in dependency of the evaluation-analysis of the car usage data, respectively, characterised in that - when a new serving call is registered, the system checks if there is already an older serving call registered and allocated to a floor belonging to a same serving sector (A, B), and, if so, the new serving call is allocated to a same car (11.1, 11.2, 11.3) that is allocated to the older serving call such that people belonging to a same service sector (A, B) are served with the same car (11.1, 11.2, 11.3) or same cars (11.1, 11.2, 11.3). - elevator cars (11.1, 11.2, 11.3) movable in an elevator shaft of a building the building being dividable into serving sectors (A, B) each serving sector comprising several floors to be served, - recording means for recording car usage data the recording means dedicated to the cars (11.1, 11.2, 11.3), wherein the recording means forward the car usage data to - an elevator controller receiving the car usage data for creating car-logbook-data, - wherein a division into serving sectors is decided by defining limit floors of each sector on evaluation-analysis of the car-logbook-data by continuously monitoring interfloor traffic and gathering and storing the car usage data over a period of time into a memory of the elevator controller and allocating a serving sector (A, B) in dependency of the evaluation-analysis of the car usage data, respectively, characterised in that - when a new serving call is registered, the system checks if there is already an older serving call registered and allocated to a floor belonging to a same serving sector (A, B), and, if so, the new serving call is allocated to a same car (11.1, 11.2, 11.3) that is allocated to the older serving call such that people belonging to a same service sector (A, B) are served with the same car (11.1, 11.2, 11.3) or same cars (11.1, 11.2, 11.3).
A method for optimizing utilization of a plurality of pieces of manufacturing apparatus of a manufacturing facility by means of a manufacturing facility electronic management system having a processor executing computer readable instructions, the method comprising: - receiving, by the processor, first electronic messages indicating time periods when ones of the plurality of pieces of the manufacturing apparatus are in use; - receiving, by the processor, second electronic messages indicating time periods of operator activity within ones of a plurality of work cells including the plurality of pieces of manufacturing apparatus ; - accumulating, by the processor, one or more of each of the respective time periods of the first and second electronic messages; characterized by - determining, by the processor, a number of operators in the manufacturing facility during a work period by determining numbers of active pieces of the manufacturing apparatus , based on the second electronic messages; - determining, by the processor, utilization rate of the plurality of pieces of manufacturing apparatus based on the number of operators and based on the time periods of operator activity , time periods of apparatus use and the work period; and - causing, by the processor, an electronic display of the utilization rate of the plurality of pieces of manufacturing apparatus or a user, wherein the number of operators determined to be present in a work shift is the number of work cells each with operator activity in more than a pre-determined percentage of work periods in the work shift. - receiving, by the processor, first electronic messages indicating time periods when ones of the plurality of pieces of the manufacturing apparatus are in use; - receiving, by the processor, second electronic messages indicating time periods of operator activity within ones of a plurality of work cells including the plurality of pieces of manufacturing apparatus ; - accumulating, by the processor, one or more of each of the respective time periods of the first and second electronic messages; characterized by - determining, by the processor, a number of operators in the manufacturing facility during a work period by determining numbers of active pieces of the manufacturing apparatus , based on the second electronic messages; - determining, by the processor, utilization rate of the plurality of pieces of manufacturing apparatus based on the number of operators and based on the time periods of operator activity , time periods of apparatus use and the work period; and - causing, by the processor, an electronic display of the utilization rate of the plurality of pieces of manufacturing apparatus or a user,