mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless device for identifying a serving country using at least one first system specific parameter, comprising: extracting the at least one first system specific parameter from a forward link signal; determining whether the at least one first system specific parameter maps to a unique country; if the at least one first system specific parameter alone cannot uniquely map to a country, using a second system specific parameter, either separately or in combination with the first system specific parameter to map to a unique country, presenting one or more candidate countries if the at least one first system specific parameter and/or the second system specific parameter do not map to a unique country, wherein the one or more candidate countries is likely to be the serving country; identifying the serving country for a call. extracting the at least one first system specific parameter from a forward link signal; determining whether the at least one first system specific parameter maps to a unique country; if the at least one first system specific parameter alone cannot uniquely map to a country, using a second system specific parameter, either separately or in combination with the first system specific parameter to map to a unique country, presenting one or more candidate countries if the at least one first system specific parameter and/or the second system specific parameter do not map to a unique country, wherein the one or more candidate countries is likely to be the serving country; identifying the serving country for a call.
A sensor device comprising: a plurality of sensor ICs (50, 60) each of which has a plurality of detecting units (51, 52), and a control device, characterized in that all of the detecting units (51, 52) are configured to detect a same state quantity for a same detection object and respectively output detection signals (S11 to S14) based on detection results, and the control device, to which the detection signals (S11 to S14) are input, is configured to determine which detection signal is abnormal among the plurality of detection signals (S11 to S14) from the sensor ICs (50, 60), on the basis of a comparison among the plurality of detection results. a plurality of sensor ICs (50, 60) each of which has a plurality of detecting units (51, 52), and a control device, characterized in that all of the detecting units (51, 52) are configured to detect a same state quantity for a same detection object and respectively output detection signals (S11 to S14) based on detection results, and the control device, to which the detection signals (S11 to S14) are input, is configured to determine which detection signal is abnormal among the plurality of detection signals (S11 to S14) from the sensor ICs (50, 60), on the basis of a comparison among the plurality of detection results.
A method of encoding input data in an encoder to generate corresponding encoded data, wherein the method includes: (a) analyzing symbols present in the input data and splitting and/or transforming the input data into one or more data chunks; (b) generating as a function of occurrence of the symbols at least one of: one or more code tables, one or more frequency tables, one or more length of code word tables, one or more probability tables for the symbols present in the one or more data chunks; (c) computing one or more sets of indices relating the symbols in each data chunk to entries in at least one of: the one or more code tables, the one or more frequency tables, the one or more length of code word tables, the one or more probability tables; characterized in that the method further comprises: (d) compressing the symbols within the one or more tables; and (e) assembling the corresponding symbols within the one or more tables and information of the one or more sets of indices relating the symbols in each data chunk, together with at least one of: the one or more frequency tables, the one or more code tables, the one or more length of code word tables, the one or more probability tables, information indicative of the one or more tables, to the encoded data. (a) analyzing symbols present in the input data and splitting and/or transforming the input data into one or more data chunks; (b) generating as a function of occurrence of the symbols at least one of: one or more code tables, one or more frequency tables, one or more length of code word tables, one or more probability tables for the symbols present in the one or more data chunks; (c) computing one or more sets of indices relating the symbols in each data chunk to entries in at least one of: the one or more code tables, the one or more frequency tables, the one or more length of code word tables, the one or more probability tables; (d) compressing the symbols within the one or more tables; and (e) assembling the corresponding symbols within the one or more tables and information of the one or more sets of indices relating the symbols in each data chunk, together with at least one of: the one or more frequency tables, the one or more code tables, the one or more length of code word tables, the one or more probability tables, information indicative of the one or more tables, to the encoded data.
A method of controlling content delivery to plural clients (6; 46-51; 6, 126) of a mobile communication network, the content being delivered to the plural clients (6; 46-51; 6, 126) over a radio access network of the mobile communication network, the method comprising: collecting, by a network entity (5; 125) associated with the mobile communication network, geo information of the plural clients (6; 46-51; 6, 126); evaluating, by the network entity (5; 125), the collected geo information of the plural clients (6; 46-51; 6, 126) based on a rule to determine whether the content delivery is to be adapted and to identify a region for which the content delivery is to be adapted, wherein the evaluating comprises predicting a region affected by a congestion situation in the radio access network based on the collected geo information of the plural clients (6; 46-51; 6, 126),; selectively outputting, by the network entity (5; 125), a message (9; 29; 91; 101; 111; 129) to a controlling entity if it is determined that the content delivery is to be adapted; controlling, by the controlling entity, the content delivery in response to receiving the message (9; 29; 91; 101; 111; 129), to adapt the content delivery for clients (46-49, 51) located in the identified region. collecting, by a network entity (5; 125) associated with the mobile communication network, geo information of the plural clients (6; 46-51; 6, 126); evaluating, by the network entity (5; 125), the collected geo information of the plural clients (6; 46-51; 6, 126) based on a rule to determine whether the content delivery is to be adapted and to identify a region for which the content delivery is to be adapted, wherein the evaluating comprises predicting a region affected by a congestion situation in the radio access network based on the collected geo information of the plural clients (6; 46-51; 6, 126),; selectively outputting, by the network entity (5; 125), a message (9; 29; 91; 101; 111; 129) to a controlling entity if it is determined that the content delivery is to be adapted; controlling, by the controlling entity, the content delivery in response to receiving the message (9; 29; 91; 101; 111; 129), to adapt the content delivery for clients (46-49, 51) located in the identified region.
A voltage measuring circuit that measures voltage across two terminals of a battery that is the object of measurement, comprising: a detection resistor and a voltage-dividing resistor that are connected in parallel to said two terminals; current detection means configured to measure current value that flows in said detection resistor; integration means configured to subject said current value that was measured by said current detection means to time integration; average value calculation means configured to divide the current value that has undergone integration by the integration time to find the average current value that is the average value of said current value; arithmetic means configured to calculate the value of voltage across said two terminals from said average current value and the resistance value of said detection resistor; the voltage measuring circuit being characterized by comprising: A/D conversion means configured to convert said average current value to a digital signal; wherein said arithmetic means is configured to calculate the value of voltage across said two terminals from said average current value that was converted to a digital signal in said A/D conversion means and said resistance value, wherein said current detection means, said integration means, said average value calculation means, and said A/D conversion means are realized by a coulomb counter.. a detection resistor and a voltage-dividing resistor that are connected in parallel to said two terminals; current detection means configured to measure current value that flows in said detection resistor; integration means configured to subject said current value that was measured by said current detection means to time integration; average value calculation means configured to divide the current value that has undergone integration by the integration time to find the average current value that is the average value of said current value; arithmetic means configured to calculate the value of voltage across said two terminals from said average current value and the resistance value of said detection resistor; the voltage measuring circuit being characterized by comprising: A/D conversion means configured to convert said average current value to a digital signal; wherein said arithmetic means is configured to calculate the value of voltage across said two terminals from said average current value that was converted to a digital signal in said A/D conversion means and said resistance value, wherein said current detection means, said integration means, said average value calculation means, and said A/D conversion means are realized by a coulomb counter.. A/D conversion means configured to convert said average current value to a digital signal; wherein said arithmetic means is configured to calculate the value of voltage across said two terminals from said average current value that was converted to a digital signal in said A/D conversion means and said resistance value, wherein said current detection means, said integration means, said average value calculation means, and said A/D conversion means are realized by a coulomb counter..
A communications system for communication along a drillstring comprising a drillpipe, the system comprising: a communications medium, where at least a portion of the communications medium is disposed within the drillpipe; a processor coupled to the communications medium; at least two sensor modules coupled to the communications medium, where at least one of the sensor modules is on or within one or more portions of the drillpipe; and at least one communications coupler (315; 330; 335) to couple at least one sensor module to the communications medium, wherein the drillstring is provided with at least one sensor module receptacle (305; 510) defined by a recess in the exterior of a drillpipe joint's elongated upset section, below the rotary shoulder connection threads, the at least one sensor module receptacle arranged to engage and retain at least a portion of a respective one of the sensor modules; and wherein the at least one communications coupler comprises a sensor module coupler provided in the at least one sensor module and a drillpipe coupler provided in the drillpipe. a communications medium, where at least a portion of the communications medium is disposed within the drillpipe; a processor coupled to the communications medium; at least two sensor modules coupled to the communications medium, where at least one of the sensor modules is on or within one or more portions of the drillpipe; and at least one communications coupler (315; 330; 335) to couple at least one sensor module to the communications medium, wherein the drillstring is provided with at least one sensor module receptacle (305; 510) defined by a recess in the exterior of a drillpipe joint's elongated upset section, below the rotary shoulder connection threads, the at least one sensor module receptacle arranged to engage and retain at least a portion of a respective one of the sensor modules; and wherein the at least one communications coupler comprises a sensor module coupler provided in the at least one sensor module and a drillpipe coupler provided in the drillpipe.
An operation method for a wind turbine generator comprising a blade, the method comprising: obtaining a present wind speed acting on the wind turbine generator; measuring a future wind speed acting on the blade at a first time point after a prescribed period of time from a present point of time by measuring a wind speed at a measuring position anterior to the wind turbine generator; the method characterized by: predicting a wind speed at a second time point in the future between the present point of time and the first time point, based on at least the present wind speed and the future wind speed at the first time point; and controlling the wind turbine generator based on the predicted wind speed. obtaining a present wind speed acting on the wind turbine generator; measuring a future wind speed acting on the blade at a first time point after a prescribed period of time from a present point of time by measuring a wind speed at a measuring position anterior to the wind turbine generator; predicting a wind speed at a second time point in the future between the present point of time and the first time point, based on at least the present wind speed and the future wind speed at the first time point; and controlling the wind turbine generator based on the predicted wind speed.
A frame assembly for an electronic device, comprising: a first frame defining a receiving space for accommodating electronic elements of the electronic device, the first frame comprising an exterior surface departing from the receiving space; and a second frame coupled to the exterior surface of the first frame; wherein the first frame defines a mounting groove in the exterior surface; the mounting groove extends along a periphery direction of the first frame; the second frame is engaged into the mounting groove and surrounds the first frame; the first frame is made of a glass material, and the second frame is made of a material different from the glass material of the first frame; the second frame comprises an exposed surface departing from the receiving space; the exposed surface is smoothly connected with the exterior surface of the first frame; an outer surface of the frame assembly is formed by the exposed surface and the exterior surface, and the outer surface is departing from the receiving space. a first frame defining a receiving space for accommodating electronic elements of the electronic device, the first frame comprising an exterior surface departing from the receiving space; and a second frame coupled to the exterior surface of the first frame; wherein the first frame defines a mounting groove in the exterior surface; the mounting groove extends along a periphery direction of the first frame; the second frame is engaged into the mounting groove and surrounds the first frame; the first frame is made of a glass material, and the second frame is made of a material different from the glass material of the first frame; the second frame comprises an exposed surface departing from the receiving space; the exposed surface is smoothly connected with the exterior surface of the first frame; an outer surface of the frame assembly is formed by the exposed surface and the exterior surface, and the outer surface is departing from the receiving space.
A multi-processor system comprising: a sending processor adapted to send a data message (150, 350); a receiving processor adapted to receive the data message; and a memory unit associated with the receiving processor; the multi-processor system characterized by: a size-index table associated with the sending processor; the sending processor being adapted to map a size of a payload portion of the data message to an index (352, 340) of the size-index table, and to send the data message containing the size, the index and the payload portion to the receiving processor; mapping circuitry associated with the receiving processor, the mapping circuitry being adapted to map the index (352, 340, 440) contained in the data message received from the sending processor to a pointer, wherein the pointer is associated with a buffer (460, 470, 480) of the memory unit; and the receiving processor being adapted to write the payload portion of the received data message to the buffer as indicated by the pointer. a sending processor adapted to send a data message (150, 350); a receiving processor adapted to receive the data message; and a memory unit associated with the receiving processor; a size-index table associated with the sending processor; the sending processor being adapted to map a size of a payload portion of the data message to an index (352, 340) of the size-index table, and to send the data message containing the size, the index and the payload portion to the receiving processor; mapping circuitry associated with the receiving processor, the mapping circuitry being adapted to map the index (352, 340, 440) contained in the data message received from the sending processor to a pointer, wherein the pointer is associated with a buffer (460, 470, 480) of the memory unit; and the receiving processor being adapted to write the payload portion of the received data message to the buffer as indicated by the pointer.
Method for improving an iron-nickel-chromium-manganese alloy for timepiece applications, characterised in that a base alloy is chosen and produced, comprising by mass: - from 4.0% to 13.0% of nickel, - from 4.0% to 12.0% of chromium, - from 21.0% to 25.0% of manganese, - from 0 to 5.0% of molybdenum and/or from 0 to 5.0% of copper, - the complement in iron, and in that hardening of said alloy is effected whilst maintaining its antiferromagnetic properties, by introduction of carbon and of nitrogen interstitially, with, by proportion of mass of said base alloy: - from 0.10% to 1.20% of carbon, and/or - from 0.10% to 1.20% of nitrogen. - from 4.0% to 13.0% of nickel, - from 4.0% to 12.0% of chromium, - from 21.0% to 25.0% of manganese, - from 0 to 5.0% of molybdenum and/or from 0 to 5.0% of copper, - the complement in iron, - from 0.10% to 1.20% of carbon, and/or - from 0.10% to 1.20% of nitrogen.
A method for producing an artificial polypeptide fiber containing a polypeptide as a main component, wherein the polypeptide is derived from spigot dragline proteins and contains five or more units of an amino acid sequence represented by the formula 1: REP1-REP2, where the REP1 is an amino acid sequence composed of 4 to 12 amino acid residues arranged in series that are selected from at least one of alanine and glycine; and the REP2 is an amino acid sequence composed of 10 to 150 amino acid residues; and the total number of glycine, serine, glutamine and alanine residues contained in the amino acid sequence is 60% or more with respect to the total number of amino acid residues contained therein, and the artificial polypeptide fiber has a strength of 350 MPa or more and a toughness of 138 MJ/m 3 or more, wherein said method comprises spinning a spinning solution containing said polypeptide derived from spigot dragline proteins and performing drawing of at least two stages, wherein the drawing of at least two stages includes a first-stage drawing in wet heat and a second-stage drawing in dry heat, and drawing conditions for the first-stage drawing include a temperature of hot water of 70-90°C and a draw ratio of 2 to 8 times.
A high frequency charger, comprising: a charging circuit including a first high frequency transformer; a first switch switching the first high frequency transformer at a first frequency for producing a charging current for charging a battery; characterized in that the high frequency charger further comprises: a boost circuit including a second high frequency transformer, separate from the first high frequency transformer; a second switch switching the second high frequency transformer at a second frequency for producing a relatively high boost current compared to the charging current for jump-starting a vehicle; and a selector switch for selectively activating at least one of the charging circuit and the boost circuit. a charging circuit including a first high frequency transformer; a first switch switching the first high frequency transformer at a first frequency for producing a charging current for charging a battery; characterized in that the high frequency charger further comprises: a boost circuit including a second high frequency transformer, separate from the first high frequency transformer; a second switch switching the second high frequency transformer at a second frequency for producing a relatively high boost current compared to the charging current for jump-starting a vehicle; and a selector switch for selectively activating at least one of the charging circuit and the boost circuit. a boost circuit including a second high frequency transformer, separate from the first high frequency transformer; a second switch switching the second high frequency transformer at a second frequency for producing a relatively high boost current compared to the charging current for jump-starting a vehicle; and a selector switch for selectively activating at least one of the charging circuit and the boost circuit.
A processing unit configured to execute instructions, comprising: circuitry that, in response to an instruction, receives an input vector, applies an activation function to the input vector by performing a hardware approximation of the activation function, and then generates an output vector based on the activation function; and a lookup table that is referenced during the hardware approximation of the activation function, wherein the lookup table identifies particular circuits of the circuitry to use when processing a particular activation function. circuitry that, in response to an instruction, receives an input vector, applies an activation function to the input vector by performing a hardware approximation of the activation function, and then generates an output vector based on the activation function; and a lookup table that is referenced during the hardware approximation of the activation function, wherein the lookup table identifies particular circuits of the circuitry to use when processing a particular activation function.
A plug-in antenna device (100, 200, 300, 400, 500) configured to be received in a waveguide section (130a, 130b, 130c, 130d), the plug-in antenna device (100, 200, 300, 400, 500) comprising one or more dielectric elements (110, 110") and a top-most dielectric element configured to be an antenna element, where the dielectric elements (110", 110, 110') are arranged in series and spaced apart by respective connecting members (120, 120'), wherein, when the plug-in antenna device (100 200, 300, 400, 500) is received in the waveguide section (130a, 130b, 130c, 130d), the dielectric elements (110, 110') are electromagnetically coupled, whereby a radio frequency signal comprised in a radio frequency band passing to or from the antenna element via the other dielectric elements (110", 100) is electromagnetically filtered, characterized in that the plug-in antenna device comprises a conductive exterior surface configured with a first opening in the conductive exterior surface at the top-most dielectric element and a second opening in a bottom-most dielectric element (110") of the dielectric elements arranged in series.