mhurhangee/patent-ind-claim-en huggingface dataset:
A polytetrafluoroethylene aqueous dispersion characterized by comprising from 15 to 70 mass% of polytetrafluoroethylene particles having an average primary particle size of from 0.1 to 0.5 μm, from 0.1 to 20,000 ppm, to the mass of the above polytetrafluoroethylene particles, of a fluorinated emulsifier selected from the group consisting of C 4-7 fluorinated carboxylic acids which may have an etheric oxygen atom, and salts thereof, from 1 to 20 parts by mass, per 100 parts by mass of the above polytetrafluoroethylene particles, of a nonionic surfactant represented by the following formula , from 0.01 to 3.0 parts by mass, per 100 parts by mass of the above polytetrafluoroethylene particles, of a compound represented by the following formula , and water, R 1 -O-A-H wherein R 1 is a C 8-18 alkyl group, and A is a polyoxyalkylene chain composed of an average repeating number of from 5 to 20 oxyethylene groups and an average repeating number of from 0 to 2 oxypropylene groups, wherein R is a C 2-4 alkyl group, n is 1 or 2, and m 1 and m 2 are each independently an average repeating number of oxyethylene groups, provided that the total of m 1 and m 2 is from 1 to 6.
A photovoltaic (PV) module, comprising: a PV laminate having a plurality of solar cells encapsulated between a front side and a back side , wherein the back side includes a plurality of edges joined at a corner ; and an electronic component coupled to the back side of the PV laminate, characterized in that the electronic component is to condition power generated by the plurality of solar cells, and wherein the electronic component includes a DC connector port electrically coupled to the plurality of solar cells, and a conditioned power connector port having a port face facing the corner. a PV laminate having a plurality of solar cells encapsulated between a front side and a back side , wherein the back side includes a plurality of edges joined at a corner ; and an electronic component coupled to the back side of the PV laminate, characterized in that the electronic component is to condition power generated by the plurality of solar cells, and wherein the electronic component includes a DC connector port electrically coupled to the plurality of solar cells, and a conditioned power connector port having a port face facing the corner.
A method for controlling a transmit power of a wireless communications terminal , wherein the wireless communications terminal comprises a first controller , a second controller , a first antenna , and a second antenna , and the method comprises: determining, by the first controller , that the first antenna is in a working state; and obtaining, by the first controller , a transmit power of the first antenna according to a preset correspondence, and sending the transmit power of the first antenna to the second controller , wherein the transmit power of the first antenna obtained by the first controller is used to control, after the second controller receives the transmit power of the first antenna , the first antenna to perform transmission according to the transmit power, and wherein the determining, by the first controller , that the first antenna is in a working state comprises: determining, by the first controller , that the wireless communications terminal performs voice communication by using the first antenna ; and determining, by the first controller , a voice communication type of the first antenna ; and the obtaining, by the first controller , a transmit power of the first antenna according to a preset correspondence comprises: obtaining, based on the voice communication type of the first antenna by the first controller , the transmit power of the first antenna according to a preset correspondence between the voice communication type of the first antenna and the transmit power of the first antenna . determining, by the first controller , that the first antenna is in a working state; and obtaining, by the first controller , a transmit power of the first antenna according to a preset correspondence, and sending the transmit power of the first antenna to the second controller , wherein the transmit power of the first antenna obtained by the first controller is used to control, after the second controller receives the transmit power of the first antenna , the first antenna to perform transmission according to the transmit power, and wherein the determining, by the first controller , that the first antenna is in a working state comprises: determining, by the first controller , that the wireless communications terminal performs voice communication by using the first antenna ; and determining, by the first controller , a voice communication type of the first antenna ; and determining, by the first controller , that the wireless communications terminal performs voice communication by using the first antenna ; and determining, by the first controller , a voice communication type of the first antenna ; and the obtaining, by the first controller , a transmit power of the first antenna according to a preset correspondence comprises: obtaining, based on the voice communication type of the first antenna by the first controller , the transmit power of the first antenna according to a preset correspondence between the voice communication type of the first antenna and the transmit power of the first antenna .
Arrangement comprising a plurality of wind energy installations , a monitoring centre , a computation module , a logic module and a calculator , wherein the wind energy installations have a sensor for recording state data of the wind energy installations and wherein the logic module is designed to determine discrepancies between the state data and an associated comparison value, characterized in that the calculator is designed to determine an availability value related to the wind energy installations from the ratio of the actually produced amount of electrical energy to the potentially producible total amount, in that the computation module is designed to determine a failure probability of the wind energy installations when the logic module finds a discrepancy, in that the computation module is designed to combine the availability value and the failure probability to form a repair priority, and in that the monitoring centre is designed to associate the repair priority with the wind energy installations .
A method of configuring a plurality of installed lighting units , characterized in that the method comprising: determining (S410) that a first installed lighting unit should remain a member of a first logical group, and that a second installed lighting unit should switch to a second logical group; interrupting (S415) a supply of electric power to the first installed lighting unit whereby it is incapable of receiving a command from a controller of at least the first and second installed lighting units; broadcasting (S420) from the controller , to at least the first and the second installed lighting units , a second command arranged to cause any suitable lighting unit which receives it to join the second logical group, thereby causing the second installed lighting unit to switch to the second logical group; and resuming (S425) the supply of electric power to the first installed lighting unit whereby it becomes operable to receive and react to commands from the controller . determining (S410) that a first installed lighting unit should remain a member of a first logical group, and that a second installed lighting unit should switch to a second logical group; interrupting (S415) a supply of electric power to the first installed lighting unit whereby it is incapable of receiving a command from a controller of at least the first and second installed lighting units; broadcasting (S420) from the controller , to at least the first and the second installed lighting units , a second command arranged to cause any suitable lighting unit which receives it to join the second logical group, thereby causing the second installed lighting unit to switch to the second logical group; and resuming (S425) the supply of electric power to the first installed lighting unit whereby it becomes operable to receive and react to commands from the controller .
A light module for a lighting device of an automobile, comprising semiconductor light sources connected in series and adapted to be bridged by a respective switching unit , a linear controller being connected in series with the semiconductor light sources , wherein a closing process comprising closing of multiple switching units at the same time and a number of the switching units to be closed can be determined, characterized in that the linear controller is configured such that, when detecting a drop of an output voltage of a controller connected to the light module or of a voltage across the semiconductor light sources , it replaces semiconductor light sources bridged during the closing process by a resistor in such a way that a voltage applied to the series connection of semiconductor light sources and linear controller is linearly lowered with a time frame.
An assistance system for adjusting the force required to be provided by a user to open and/or close a vertically-hinged door of a vehicle , the system comprising: at least one sensor configured to measure at least one vehicle parameter; and an actuator configured to adjust the force required to open and/or close the door , wherein the system comprises a control means configured to control the actuator to adjust the force required to open and/or close the door in dependence on said vehicle parameter, characterised in that : the at least one sensor comprises a mass sensor and the at least one vehicle parameter comprises the current mass of at least a portion of the door . at least one sensor configured to measure at least one vehicle parameter; and an actuator configured to adjust the force required to open and/or close the door , wherein the system comprises a control means configured to control the actuator to adjust the force required to open and/or close the door in dependence on said vehicle parameter,
A sensor , in particular a position sensor, preferably an angular sensor or a linear sensor, comprising: a detection unit which is configured to detect a measurement variable and to generate a measurement signal which represents the detected measurement variable, and an adjustment unit which is configured to determine at least one indicator for at least one environmental condition of the sensor and to set a manipulated variable, which influences the measurement variable, based on the at least one indicator for the at least one environmental condition of the sensor such that a ratio of the measurement signal generated by the detection unit and a noise of the measurement signal is in a predetermined range and is in this respect constant irrespective of the at least one environmental condition. a detection unit which is configured to detect a measurement variable and to generate a measurement signal which represents the detected measurement variable, and an adjustment unit which is configured to determine at least one indicator for at least one environmental condition of the sensor and to set a manipulated variable, which influences the measurement variable, based on the at least one indicator for the at least one environmental condition of the sensor such that a ratio of the measurement signal generated by the detection unit and a noise of the measurement signal is in a predetermined range and is in this respect constant irrespective of the at least one environmental condition. to determine at least one indicator for at least one environmental condition of the sensor and to set a manipulated variable, which influences the measurement variable, based on the at least one indicator for the at least one environmental condition of the sensor such that a ratio of the measurement signal generated by the detection unit and a noise of the measurement signal is in a predetermined range and is in this respect constant irrespective of the at least one environmental condition.
A method of recognizing spam e-mail messages, by an e-mail processing device, wherein said method comprises the steps of: - receiving an e-mail message; characterized by - processing a visual representation of a source code of said received e-mail message thereby resulting in a processed visual representation of said source code of said e-mail message in which visual characteristics of said visual representation are highlighted; - computing from said processed visual representation of said source code of said e-mail message, a content identification code, wherein said content identification code is a measure for how a human would visually perceive said visual representation of said source code of said received e-mail message; - determining that said received e-mail message is similar to another e-mail message by finding a match between said computed content identification code and a plurality of content identification codes in a database, and - classifying said received e-mail as a spam e-mail triggered by said step of determining that said received e-mail message is similar to another e-mail message. - receiving an e-mail message; characterized by - processing a visual representation of a source code of said received e-mail message thereby resulting in a processed visual representation of said source code of said e-mail message in which visual characteristics of said visual representation are highlighted; - computing from said processed visual representation of said source code of said e-mail message, a content identification code, wherein said content identification code is a measure for how a human would visually perceive said visual representation of said source code of said received e-mail message; - determining that said received e-mail message is similar to another e-mail message by finding a match between said computed content identification code and a plurality of content identification codes in a database, and - classifying said received e-mail as a spam e-mail triggered by said step of determining that said received e-mail message is similar to another e-mail message.
A method for producing feeds, which involves grinding a plant raw material and subjecting the same to biofermentation treatment using an active culture of Trichoderma lignorum, wherein the main plant raw material used is rice hulls and rice flour, which is ground to 0.2-0.5 mm and then hydrothermally treated at a temperature of 110-120°C to a moisture content of 50-60% at a pressure of 1-2 atm for 1.5-2 hours, whereupon a biofermentation mass of Trichoderma lignorum 19 is added to the plant matter in an amount of 5-15% of the mass of the raw material undergoing processing, the mixture is directed to a sealed bin for implementation of a microbiological process of impregnation and build-up of protein mass for 24-48 hours, then the resulting biomass is dried at a temperature of 50-60°C to 13-14.5% moisture content to produce a finished product.
An inkjet recording device , comprising a print head that includes a head base including: a nozzle from which ink is ejected; charging electrodes that charge the ink ejected from the nozzle ; deflection electrodes that deflect the ink charged by the charging electrodes ; and a gutter that collects ink not used in printing, and a head cover included in the head base , said head cover being attached to the print head for the purpose of protecting the nozzles , the charging electrodes , the deflection electrodes and the gutter mounted on the head base , characterized in that the head base has a first horizontal uneven side portion extending in a horizontal direction, an oblique uneven side portion , and a second horizontal uneven side portion , wherein the head cover is configured to be moved in the horizontal direction for the attachment and removal of parts during maintenance of the print head , wherein the first horizontal uneven side portion , the oblique uneven side portion , and the second horizontal uneven side portion are configured such that installed parts are prevented from colliding with each other when the head cover is attached to or removed from the print head . a nozzle from which ink is ejected; charging electrodes that charge the ink ejected from the nozzle ; deflection electrodes that deflect the ink charged by the charging electrodes ; and a gutter that collects ink not used in printing, and a head cover included in the head base , said head cover being attached to the print head for the purpose of protecting the nozzles , the charging electrodes , the deflection electrodes and the gutter mounted on the head base , characterized in that the head base has a first horizontal uneven side portion extending in a horizontal direction, an oblique uneven side portion , and a second horizontal uneven side portion , wherein the head cover is configured to be moved in the horizontal direction for the attachment and removal of parts during maintenance of the print head , wherein the first horizontal uneven side portion , the oblique uneven side portion , and the second horizontal uneven side portion are configured such that installed parts are prevented from colliding with each other when the head cover is attached to or removed from the print head .
A method for wireless communication at a user equipment, UE, comprising: identifying that the UE is operating in dual connectivity with a master cell group and a secondary cell group; receiving , from the master cell group, an indication of reserved transmission time intervals, TTIs, that are reserved for priority uplink, UL, communication with the master cell group; identifying additional TTIs that are available for UL communication with either the master cell group or the secondary cell group; transmitting one or more UL messages to the master cell group using the reserved TTIs; and transmitting one or more UL messages to either the master cell group or the secondary cell group using the additional TTIs. identifying that the UE is operating in dual connectivity with a master cell group and a secondary cell group; receiving , from the master cell group, an indication of reserved transmission time intervals, TTIs, that are reserved for priority uplink, UL, communication with the master cell group; identifying additional TTIs that are available for UL communication with either the master cell group or the secondary cell group; transmitting one or more UL messages to the master cell group using the reserved TTIs; and transmitting one or more UL messages to either the master cell group or the secondary cell group using the additional TTIs.
A measurement device that measures a size of an outer shape of an object , the object including a platform present on a floor surface and a load placed on the platform, the measurement device comprising: an acquisition unit that acquires depth information indicating distances from a reference position to the floor surface and the object; a storage that stores standard dimension information indicating a standard size of the platform; a controller that measures width, depth, and height dimensions of the object by identifying the platform based on the depth information and the standard dimension information, and generates measurement information indicating the measured width, depth, and height dimensions; and an output unit that outputs the measurement information. an acquisition unit that acquires depth information indicating distances from a reference position to the floor surface and the object; a storage that stores standard dimension information indicating a standard size of the platform; a controller that measures width, depth, and height dimensions of the object by identifying the platform based on the depth information and the standard dimension information, and generates measurement information indicating the measured width, depth, and height dimensions; and an output unit that outputs the measurement information.
A method of calculating a wind speed associated with a return period at a proposed wind turbine site, the method comprising: providing wind speed measurements measured at a proposed wind turbine site during a measurement period; selecting a first set of storms from the wind speed measurements; determining a characteristic wind speed for each storm of the first set of storms; the method being characterized by providing a first set of modelled wind speeds, wherein the first set of modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during the measurement period from a mesoscale data set; selecting a second set of storms from the first set of modelled wind speeds; determining a characteristic wind speed for each storm of the second set of storms; comparing the characteristic wind speeds of the first set of storms to the characteristic wind speeds of the second set of storms to determine a correction factor; providing an extended set of modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period from an extended mesoscale data set, and the extended period has a greater duration than the measurement period; selecting a third set of storms from the extended set of modelled wind speeds; determining a characteristic wind speed for each storm of the third set of storms; applying the correction factor to the characteristic wind speeds of the third set of storms to provide corrected characteristic wind speeds; and calculating the wind speed associated with the return period from the corrected characteristic wind speeds. providing wind speed measurements measured at a proposed wind turbine site during a measurement period; selecting a first set of storms from the wind speed measurements; determining a characteristic wind speed for each storm of the first set of storms; the method being characterized by providing a first set of modelled wind speeds, wherein the first set of modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during the measurement period from a mesoscale data set; selecting a second set of storms from the first set of modelled wind speeds; determining a characteristic wind speed for each storm of the second set of storms; comparing the characteristic wind speeds of the first set of storms to the characteristic wind speeds of the second set of storms to determine a correction factor; providing an extended set of modelled wind speeds, wherein the modelled wind speeds are estimates of wind speeds at the proposed wind turbine site during an extended period from an extended mesoscale data set, and the extended period has a greater duration than the measurement period; selecting a third set of storms from the extended set of modelled wind speeds; determining a characteristic wind speed for each storm of the third set of storms; applying the correction factor to the characteristic wind speeds of the third set of storms to provide corrected characteristic wind speeds; and calculating the wind speed associated with the return period from the corrected characteristic wind speeds.