mhurhangee/patent-ind-claim-en huggingface dataset:
A method for obtaining a communication service for a mobile terminal residing in a service area of a first communication network and a second communication network , the method, performed by the mobile terminal , comprises: receiving, from a network node configured to collect information on a state of the first communication network , a message comprising information indicative at least on a state of at least one service provided by a first communication network into which the mobile terminal is registered to with a first subscriber identity, whereby the information in the message from the network node is received with one of: short message service, through a data channel. generating, in response to a detection that the state of the at least one service does not fulfill at least one predetermined condition, a control signal to cause the mobile terminal to switch the first subscriber identity to a second subscriber identity, wherein the control signal causes the mobile terminal to perform the switching so that the second communication network available for the second subscriber identity is selected so that the mobile terminal is caused to register to the second communication network as a roaming subscriber with the second subscriber identity. receiving, from a network node configured to collect information on a state of the first communication network , a message comprising information indicative at least on a state of at least one service provided by a first communication network into which the mobile terminal is registered to with a first subscriber identity, whereby the information in the message from the network node is received with one of: short message service, through a data channel. generating, in response to a detection that the state of the at least one service does not fulfill at least one predetermined condition, a control signal to cause the mobile terminal to switch the first subscriber identity to a second subscriber identity, wherein the control signal causes the mobile terminal to perform the switching so that the second communication network available for the second subscriber identity is selected so that the mobile terminal is caused to register to the second communication network as a roaming subscriber with the second subscriber identity.
A method for calculating the capacity of an electricity supply module , said module being an electric cell or battery, said electricity supply module being integrated into electronic equipment , said electronic equipment comprising or being adapted to receive temperature measurements from a temperature sensor , the method being characterized in that it comprises the steps, implemented by a calculation processor , of: obtaining a plurality of temperature measurements over a predetermined monitoring period of time, and calculating an impact coefficient of electricity capacity for each temperature measurement based on a prerecorded model , and storing said calculated impact coefficient of electricity capacity; calculating an overall impact coefficient of electricity capacity over the monitoring time period from said stored impact coefficients of electricity capacity; and calculating a residual capacity of the electricity supply module from a consumed, measured or estimated electricity capacity over said monitoring time period, the calculation taking into account said calculated overall coefficient. obtaining a plurality of temperature measurements over a predetermined monitoring period of time, and calculating an impact coefficient of electricity capacity for each temperature measurement based on a prerecorded model , and storing said calculated impact coefficient of electricity capacity; calculating an overall impact coefficient of electricity capacity over the monitoring time period from said stored impact coefficients of electricity capacity; and calculating a residual capacity of the electricity supply module from a consumed, measured or estimated electricity capacity over said monitoring time period, the calculation taking into account said calculated overall coefficient.
A method for transmitting data by a transmitting device , the method comprising: applying a redundancy version, RV, for the data; scrambling the data; generating demodulation reference signals for demodulation of the data; transmitting the data multiple times in N consecutive subframes, N being a positive integer number; and transmitting the demodulation reference signals multiple times in the N consecutive subframes, wherein: the data is transmitted on a same resource block in the N consecutive subframes, and the demodulation reference signals are generated based on a same cell identity in the N consecutive subframes and precoded by the same precoding matrix, characterized in that : the data is scrambled with a scrambling sequence which is the same for R consecutive subframes, where R is a predefined positive integer larger than 1, the RV for the data is the same over the R consecutive subframes for which the scrambling sequence is the same, and the RV for the data is changed every R consecutive subframes in the N consecutive subframes, where N is larger than R. applying a redundancy version, RV, for the data; scrambling the data; generating demodulation reference signals for demodulation of the data; transmitting the data multiple times in N consecutive subframes, N being a positive integer number; and transmitting the demodulation reference signals multiple times in the N consecutive subframes, wherein: the data is transmitted on a same resource block in the N consecutive subframes, and the demodulation reference signals are generated based on a same cell identity in the N consecutive subframes and precoded by the same precoding matrix, the data is transmitted on a same resource block in the N consecutive subframes, and the demodulation reference signals are generated based on a same cell identity in the N consecutive subframes and precoded by the same precoding matrix, characterized in that : the data is scrambled with a scrambling sequence which is the same for R consecutive subframes, where R is a predefined positive integer larger than 1, the RV for the data is the same over the R consecutive subframes for which the scrambling sequence is the same, and the RV for the data is changed every R consecutive subframes in the N consecutive subframes, where N is larger than R. the data is scrambled with a scrambling sequence which is the same for R consecutive subframes, where R is a predefined positive integer larger than 1, the RV for the data is the same over the R consecutive subframes for which the scrambling sequence is the same, and the RV for the data is changed every R consecutive subframes in the N consecutive subframes, where N is larger than R.
A propylene 1-hexene copolymer containing from 5.5 to 9.0% by weight, of 1-hexene derived units having: a) two peaks in the DSC plot having a difference in height ranging from 0 to 5 mW; b) the higher melting temperature, measured by DSC, ranging from 142.0°C to 149.0°C; c) Melt Flow Rate (MFR), measured according to ASTM D 1238, 230°C/2.16 kg, from 3.5 to 8.0 g/10 min; d) a solubility in xylene at 25° C equal to or lower than 25 % by weight, being higher than 12 wt%; wherein the DSC and the solubility in xylene measurements are performed according to the examples part of the description. a) two peaks in the DSC plot having a difference in height ranging from 0 to 5 mW; b) the higher melting temperature, measured by DSC, ranging from 142.0°C to 149.0°C; c) Melt Flow Rate (MFR), measured according to ASTM D 1238, 230°C/2.16 kg, from 3.5 to 8.0 g/10 min; d) a solubility in xylene at 25° C equal to or lower than 25 % by weight, being higher than 12 wt%; wherein the DSC and the solubility in xylene measurements are performed according to the examples part of the description.
An injection molding apparatus , comprising: a mold ; an injection device adapted to inject a material into the mold ; and a specific volume sensing module , wherein at least parts of the specific volume sensing module are disposed at the mold , and the specific volume sensing module is adapted to sense an actual specific volume of the material in the mold , wherein the specific volume sensing module comprises at least one pressure sensing component and at least one temperature sensing component , the at least one pressure sensing component is disposed at the mold and is adapted to sense a pressure of the material in the mold , and the at least one temperature sensing component is disposed at the mold and is adapted to sense a temperature of the material in the mold , characterized in that the at least one temperature sensing component and the at least one pressure sensing component are disposed at a position (P), wherein there is a change in the shape of a mold cavity of the mold at the position (P). a mold ; an injection device adapted to inject a material into the mold ; and a specific volume sensing module , wherein at least parts of the specific volume sensing module are disposed at the mold , and the specific volume sensing module is adapted to sense an actual specific volume of the material in the mold , wherein the specific volume sensing module comprises at least one pressure sensing component and at least one temperature sensing component , the at least one pressure sensing component is disposed at the mold and is adapted to sense a pressure of the material in the mold , and the at least one temperature sensing component is disposed at the mold and is adapted to sense a temperature of the material in the mold , characterized in that the at least one temperature sensing component and the at least one pressure sensing component are disposed at a position (P), wherein there is a change in the shape of a mold cavity of the mold at the position (P).
A method of manufacturing a detection sensor , comprising: forming a biometric information sensing layer comprising a transistor (420-T) on a base layer ; forming an initial optical pattern layer (430-A) on the biometric information sensing layer ; patterning the initial optical pattern layer (430-A) to form a plurality of transmissive portions spaced apart from each other and having a first zeta potential; coating a light blocking material to form an initial light blocking portion (432-A) that covers a side surface and an upper surface of the transmissive portions and has a second zeta potential different from the first zeta potential; spraying an abrasive having the first zeta potential on the initial light blocking portion (432-A); and polishing the initial light blocking portion (432-A) such that the upper surface of the transmissive portions is exposed to form a light blocking portion , wherein the initial light blocking portion (432-A) is polished by the abrasive using a pad. forming a biometric information sensing layer comprising a transistor (420-T) on a base layer ; forming an initial optical pattern layer (430-A) on the biometric information sensing layer ; patterning the initial optical pattern layer (430-A) to form a plurality of transmissive portions spaced apart from each other and having a first zeta potential; coating a light blocking material to form an initial light blocking portion (432-A) that covers a side surface and an upper surface of the transmissive portions and has a second zeta potential different from the first zeta potential; spraying an abrasive having the first zeta potential on the initial light blocking portion (432-A); and polishing the initial light blocking portion (432-A) such that the upper surface of the transmissive portions is exposed to form a light blocking portion , wherein the initial light blocking portion (432-A) is polished by the abrasive using a pad.
A glass-ceramic item, comprising at least a substrate, such as a sheet, of glass-ceramic, said substrate having, in at least one zone of one face, a surface texturing in the form of pyramidal motifs such that the root mean square slope (Rdq) of said motifs is at least 0.25 degrees and less than 3 degrees, said pyramidal motifs are likely to be formed by rolling the substrate.
A device for cultivating cells, comprising a carrier plate unit which has a central axis of rotation and has at least one access opening arranged proximally to the axis of rotation , at least one cultivation chamber arranged distally to the axis of rotation , and at least one channel connecting the at least one access opening to the at least one cultivation chamber , wherein the carrier plate unit comprises at least one first carrier plate and a second carrier plate arranged above or below it and wherein the first carrier plate has the at least one access opening , the at least one cultivation chamber , and the at least one channel connecting the at least one access opening and the at least one cultivation chamber , and wherein the second carrier plate has at least one media opening , at least one media chamber , and at least one media channel connecting the at least one media opening to the at least one media chamber .
A modified conjugated diene-based polymer having: a unimodal shape of gel permeation chromatography (GPC) molecular weight distribution curve, a molecular weight distribution (PDI; MWD) of 1.0 or more and less than 1.7, and a Si content of 100 ppm or more based on weight. a unimodal shape of gel permeation chromatography (GPC) molecular weight distribution curve, a molecular weight distribution (PDI; MWD) of 1.0 or more and less than 1.7, and a Si content of 100 ppm or more based on weight.
Method for assembling a first and a second wafer of material , at least one of the two wafers being made of a semiconductor material or of a piezoelectric material, said method comprising: - an assembling stage of the first wafer and of the second wafer; - then, a trimming stage of at least the periphery of the first wafer, thereby creating at least a flattened zone on the periphery of the first wafer, in a plane perpendicular to a main surface of the first wafer. - an assembling stage of the first wafer and of the second wafer; - then, a trimming stage of at least the periphery of the first wafer, thereby creating at least a flattened zone on the periphery of the first wafer, in a plane perpendicular to a main surface of the first wafer.
A terminal roaming steering method, performed by a control node, wherein the method comprises: determining a steering protocol supported by a terminal, wherein the terminal is connected to a first access point, AP, and the steering protocol is used to steer the terminal to perform roaming; determining a second AP from at least one neighboring AP of the first AP; and steering , based on the steering protocol, the terminal to roam from the first AP to the second AP, wherein the determining a second AP from at least one neighboring AP of the first AP comprises: for any neighboring AP in the at least one neighboring AP, when a network status of the first AP and a network status of the neighboring AP meet a network status indicated by network selection reference information of the terminal, determining the neighboring AP as the second AP, wherein the network selection reference information is used to indicate network statuses that the first AP and the second AP need to meet when the terminal performs roaming. determining a steering protocol supported by a terminal, wherein the terminal is connected to a first access point, AP, and the steering protocol is used to steer the terminal to perform roaming; determining a second AP from at least one neighboring AP of the first AP; and steering , based on the steering protocol, the terminal to roam from the first AP to the second AP, wherein the determining a second AP from at least one neighboring AP of the first AP comprises: for any neighboring AP in the at least one neighboring AP, when a network status of the first AP and a network status of the neighboring AP meet a network status indicated by network selection reference information of the terminal, determining the neighboring AP as the second AP, wherein the network selection reference information is used to indicate network statuses that the first AP and the second AP need to meet when the terminal performs roaming. for any neighboring AP in the at least one neighboring AP, when a network status of the first AP and a network status of the neighboring AP meet a network status indicated by network selection reference information of the terminal, determining the neighboring AP as the second AP, wherein the network selection reference information is used to indicate network statuses that the first AP and the second AP need to meet when the terminal performs roaming.
A turbine engine airfoil apparatus, comprising an airfoil defined by a plurality of airfoil sections arrayed along a stacking axis that extends between a root and a tip , wherein at least two of the airfoil sections spaced apart from each other have differing airfoil section thermal expansion properties; wherein a first airfoil section includes opposed pressure and suction side walls extending from a leading edge to a trailing edge , and first, second, and third regions disposed so as to cause the first airfoil section to change shape in response to a temperature change; wherein the first region adjoins the suction side wall , extends the entire chord from the leading edge to the trailing edge , has a central portion extending through a full thickness of the airfoil 136, and has a first coefficient of thermal expansion, the second region adjoins the pressure side wall and has a second coefficient of thermal expansion which is different from the first coefficient of thermal expansion; and the third region adjoins the pressure side wall and has a third coefficient of thermal expansion which is different from the first coefficient of thermal expansion; the turbine engine airfoil apparatus being characterised in that the second region extends over a portion of the chord from the leading edge to the central portion ; and the third region extends over a portion of the chord from the central portion to the trailing edge . a first airfoil section includes opposed pressure and suction side walls extending from a leading edge to a trailing edge , and first, second, and third regions disposed so as to cause the first airfoil section to change shape in response to a temperature change; wherein the first region adjoins the suction side wall , extends the entire chord from the leading edge to the trailing edge , has a central portion extending through a full thickness of the airfoil 136, and has a first coefficient of thermal expansion, the second region adjoins the pressure side wall and has a second coefficient of thermal expansion which is different from the first coefficient of thermal expansion; and the third region adjoins the pressure side wall and has a third coefficient of thermal expansion which is different from the first coefficient of thermal expansion; the turbine engine airfoil apparatus being characterised in that the second region extends over a portion of the chord from the leading edge to the central portion ; and the third region extends over a portion of the chord from the central portion to the trailing edge .
A brake assembly comprising: a carriage ; a lever having a ramp , a shaft , and a pivot , wherein the lever is mounted to the pivot, wherein the shaft is coupled to the lever, and characterized in that the carriage is configured to ride along the ramp and constrained to move in a plane substantially perpendicular to the shaft, and wherein the ramp comprises a slot . a carriage ; a lever having a ramp , a shaft , and a pivot , wherein the lever is mounted to the pivot, wherein the shaft is coupled to the lever, and characterized in that the carriage is configured to ride along the ramp and constrained to move in a plane substantially perpendicular to the shaft, and wherein the ramp comprises a slot .
A method of manufacturing nano-structures on a substrate , the method comprising: depositing a material layer on the substrate , wherein the material layer has a thickness below 1 μm; cutting out portions of the material layer ; and removing the cut-out portions from the substrate ; characterized in that cutting out portions of the material layer includes applying a cutting die (14, 14a-14e) to the material layer , wherein the cutting die (14, 14a-14e) has protruding portions with sharp circumferential edges , the edges cutting through the material layer when the cutting die (14, 14a-14e) is applied to the material layer ; and the cut-out portions of the material layer are removed from the substrate by withdrawing the cutting die (14, 14a-14e), thereby pulling the cut-out portions off the substrate . depositing a material layer on the substrate , wherein the material layer has a thickness below 1 μm; cutting out portions of the material layer ; and removing the cut-out portions from the substrate ; characterized in that cutting out portions of the material layer includes applying a cutting die (14, 14a-14e) to the material layer , wherein the cutting die (14, 14a-14e) has protruding portions with sharp circumferential edges , the edges cutting through the material layer when the cutting die (14, 14a-14e) is applied to the material layer ; and the cut-out portions of the material layer are removed from the substrate by withdrawing the cutting die (14, 14a-14e), thereby pulling the cut-out portions off the substrate .
A method comprising providing a feedstock slurry comprising a fermentable carbon source, undissolved solids, and oil; separating the feedstock slurry whereby (i) a first aqueous solution comprising a fermentable carbon source, (ii) a first wet cake comprising solids, and (iii) a stream comprising oil, solids, and an aqueous stream comprising a fermentable carbon source are formed; adding the first aqueous solution to a fermentation broth comprising microorganisms whereby a fermentation product is produced; separating the stream (iii) whereby an oil stream, a second wet cake comprising solids, and a second aqueous solution comprising a fermentable carbon source are formed; and adding the second aqueous solution to liquefaction and/or feedstock preparation. (i) a first aqueous solution comprising a fermentable carbon source, (ii) a first wet cake comprising solids, and (iii) a stream comprising oil, solids, and an aqueous stream comprising a fermentable carbon source are formed;
A method of controlling link adaptation of a terminal in a mobile communication system, the method comprising: measuring channel states of a control channel region and a data channel region of downlink, respectively, the control channel region and the data channel region being divided in a time domain; determining whether a channel discrepancy report related to a difference between a first channel state of the control channel region and a second channel state of the data channel region is triggered based on the measured channel states; generating the channel discrepancy report, when the channel discrepancy report is triggered; transmitting, when the channel discrepancy report is triggered, channel state information and the channel discrepancy report to a base station using preset uplink channels. measuring channel states of a control channel region and a data channel region of downlink, respectively, the control channel region and the data channel region being divided in a time domain; determining whether a channel discrepancy report related to a difference between a first channel state of the control channel region and a second channel state of the data channel region is triggered based on the measured channel states; generating the channel discrepancy report, when the channel discrepancy report is triggered; transmitting, when the channel discrepancy report is triggered, channel state information and the channel discrepancy report to a base station using preset uplink channels.