mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication at a user equipment, UE, comprising: transmitting , to a base station, a UE capability signal indicating that the UE supports using a spatial reference signal for a channel performance measurement procedure; receiving a downlink control information, DCI, from the base station activating the spatial reference signal; receiving the spatial reference signal transmitted by the base station, wherein the spatial reference signal corresponds to a physical uplink control channel, PUCCH, spatial relation; performing , based at least in part on the DCI, the channel performance measurement procedure using the spatial reference signal transmitted by the base station, wherein the channel performance measurement procedure comprises pathloss estimation of a physical uplink shared channel, PUSCH; selecting , based at least in part on a result of the channel performance measurement procedure, a transmission power for the PUSCH transmission to the base station; and performing the PUSCH transmission to the base station based at least in part on the transmission power. transmitting , to a base station, a UE capability signal indicating that the UE supports using a spatial reference signal for a channel performance measurement procedure; receiving a downlink control information, DCI, from the base station activating the spatial reference signal; receiving the spatial reference signal transmitted by the base station, wherein the spatial reference signal corresponds to a physical uplink control channel, PUCCH, spatial relation; performing , based at least in part on the DCI, the channel performance measurement procedure using the spatial reference signal transmitted by the base station, wherein the channel performance measurement procedure comprises pathloss estimation of a physical uplink shared channel, PUSCH; selecting , based at least in part on a result of the channel performance measurement procedure, a transmission power for the PUSCH transmission to the base station; and performing the PUSCH transmission to the base station based at least in part on the transmission power.
A method for assessing a state of a living cell using surface enhanced Raman spectroscopy "SERS", the method comprising a) modifying one or more living cells with an alkyne-containing compound to form one or more modified living cells, b) mixing the one or more modified living cells with a SERS-active material to form a mixture, c) injecting the mixture into a conduit defined by an inner wall of a hollow core photonic crystal fiber, and d) detecting a surface enhanced Raman signal from the mixture in the conduit, wherein the conduit is dimensioned (i) to accommodate only one modified living cell at each location along its length spaced apart from another modified living cell and (ii) for each modified living cell to be surrounded volumetrically with the SERS-active material. a) modifying one or more living cells with an alkyne-containing compound to form one or more modified living cells, b) mixing the one or more modified living cells with a SERS-active material to form a mixture, c) injecting the mixture into a conduit defined by an inner wall of a hollow core photonic crystal fiber, and d) detecting a surface enhanced Raman signal from the mixture in the conduit, wherein the conduit is dimensioned (i) to accommodate only one modified living cell at each location along its length spaced apart from another modified living cell and (ii) for each modified living cell to be surrounded volumetrically with the SERS-active material.
A method of interconnecting nanowires comprising: providing a plurality of nanowires; providing a plurality of nanoparticles; fusing the plurality of nanoparticles to the plurality of nanowires to interconnect the plurality of nanowires to each other via the plurality of nanoparticles; further comprising mixing the plurality of nanowires and the plurality of nanoparticles into a mixture, prior to fusing the plurality of nanoparticles to the plurality of nanowires, wherein the nanowires are treated with a surfactant or wherein a surfactant is added into the mixture of nanoparticles and nanowires. providing a plurality of nanowires; providing a plurality of nanoparticles; fusing the plurality of nanoparticles to the plurality of nanowires to interconnect the plurality of nanowires to each other via the plurality of nanoparticles; further comprising mixing the plurality of nanowires and the plurality of nanoparticles into a mixture, prior to fusing the plurality of nanoparticles to the plurality of nanowires, wherein the nanowires are treated with a surfactant or wherein a surfactant is added into the mixture of nanoparticles and nanowires.
A method comprising: receiving , at data processing hardware of a query processing backend , an automated speech recognition (ASR) request from a user device , the ASR request comprising: a speech input captured by the user device that includes a voice query; and content metadata associated with the speech input, the content metadata generated by the user device ; determining , by the data processing hardware , a priority score for the ASR request based on the content metadata associated with the speech input ; caching , by the data processing hardware , the ASR request in a pre-processing backlog of pending ASR requests each having a corresponding priority score, the pending ASR requests in the pre-processing backlog ranked in order of the priority scores; and providing , by the data processing hardware from the pre-processing backlog , one or more of the pending ASR requests to a backend-side ASR module based on processing availability of the backend-side ASR module , wherein pending ASR requests associated with higher priority scores are processed by the backend-side ASR module before pending ASR requests associated with lower priority scores. receiving , at data processing hardware of a query processing backend , an automated speech recognition (ASR) request from a user device , the ASR request comprising: a speech input captured by the user device that includes a voice query; and content metadata associated with the speech input, the content metadata generated by the user device ; a speech input captured by the user device that includes a voice query; and content metadata associated with the speech input, the content metadata generated by the user device ; determining , by the data processing hardware , a priority score for the ASR request based on the content metadata associated with the speech input ; caching , by the data processing hardware , the ASR request in a pre-processing backlog of pending ASR requests each having a corresponding priority score, the pending ASR requests in the pre-processing backlog ranked in order of the priority scores; and providing , by the data processing hardware from the pre-processing backlog , one or more of the pending ASR requests to a backend-side ASR module based on processing availability of the backend-side ASR module , wherein pending ASR requests associated with higher priority scores are processed by the backend-side ASR module before pending ASR requests associated with lower priority scores.
A Method for reducing an amount of records in a database, said method being implemented by an electronic apparatus comprising hardware resources for reducing amount of records in databases, said method being characterized in that said database is represented in the form of an oriented multigraph (G) in which a valuated edge from a source vertex to a destination vertex represent a record of said database, said method being further characterized in that it comprises : - at least one step for obtaining , in said graph (G), at least one set of vertices and edges that form a group (L) of a given balance (b) for each vertex of said set, called nilcatenation set (G̃); - at least one step for removing said nilcatenation set (G̃) from said oriented multigraph (G). - at least one step for obtaining , in said graph (G), at least one set of vertices and edges that form a group (L) of a given balance (b) for each vertex of said set, called nilcatenation set (G̃); - at least one step for removing said nilcatenation set (G̃) from said oriented multigraph (G).
A soil imaging system, comprising: at least one work layer sensor disposed on an agricultural implement traveling in a forward direction of travel while performing a soil working operation, the at least one work layer sensor comprising a work layer sensor disposed at or behind the agricultural implement to generate an electromagnetic field through a soil layer of interest as or after the soil layer has been worked by the soil working operation, and to generate a work layer image of the soil layer of interest based on the generated electromagnetic field through the soil layer of interest as the soil is or after the soil has been worked by the soil working operation; a monitor in communication with the at least one work layer sensor and adapted to display the work layer image , characterized in that the at least one work layer sensor is further adapted to generate a reference image based on an electromagnetic field generated through the undisturbed soil, and in that the monitor is adapted to compare at least one characteristic of the reference image with at least one characteristic of the work layer image , and to generate a characterized image of the soil layer of interest. at least one work layer sensor disposed on an agricultural implement traveling in a forward direction of travel while performing a soil working operation, the at least one work layer sensor comprising a work layer sensor disposed at or behind the agricultural implement to generate an electromagnetic field through a soil layer of interest as or after the soil layer has been worked by the soil working operation, and to generate a work layer image of the soil layer of interest based on the generated electromagnetic field through the soil layer of interest as the soil is or after the soil has been worked by the soil working operation; a monitor in communication with the at least one work layer sensor and adapted to display the work layer image , characterized in that the at least one work layer sensor is further adapted to generate a reference image based on an electromagnetic field generated through the undisturbed soil, and in that the monitor is adapted to compare at least one characteristic of the reference image with at least one characteristic of the work layer image , and to generate a characterized image of the soil layer of interest.
A polymerization process, the process comprising: contacting a dual catalyst system with an olefin monomer and an olefin comonomer in a polymerization reactor system under polymerization conditions to produce an olefin polymer, wherein the olefin polymer comprises a higher molecular weight component and a lower molecular weight component, wherein the dual catalyst system comprises a first metallocene catalyst component which produces the lower molecular weight component and a second metallocene catalyst component which produces the higher molecular weight component, and wherein the polymerization conditions comprise: a catalyst weight ratio of the first:second catalyst component, and a reactant molar ratio of the comonomer: monomer; and controlling a die swell of the olefin polymer by adjusting the catalyst weight ratio and/or the reactant molar ratio, wherein the die swell decreases as the catalyst weight ratio increases, and wherein the die swell decreases as the reactant molar ratio increases. contacting a dual catalyst system with an olefin monomer and an olefin comonomer in a polymerization reactor system under polymerization conditions to produce an olefin polymer, wherein the olefin polymer comprises a higher molecular weight component and a lower molecular weight component, wherein the dual catalyst system comprises a first metallocene catalyst component which produces the lower molecular weight component and a second metallocene catalyst component which produces the higher molecular weight component, and wherein the polymerization conditions comprise: a catalyst weight ratio of the first:second catalyst component, and a reactant molar ratio of the comonomer: monomer; and wherein the olefin polymer comprises a higher molecular weight component and a lower molecular weight component, wherein the dual catalyst system comprises a first metallocene catalyst component which produces the lower molecular weight component and a second metallocene catalyst component which produces the higher molecular weight component, and wherein the polymerization conditions comprise: a catalyst weight ratio of the first:second catalyst component, and a reactant molar ratio of the comonomer: monomer; and a catalyst weight ratio of the first:second catalyst component, and a reactant molar ratio of the comonomer: monomer; and controlling a die swell of the olefin polymer by adjusting the catalyst weight ratio and/or the reactant molar ratio, wherein the die swell decreases as the catalyst weight ratio increases, and wherein the die swell decreases as the reactant molar ratio increases. wherein the die swell decreases as the catalyst weight ratio increases, and wherein the die swell decreases as the reactant molar ratio increases.
An electronic apparatus comprising: a charger (52; 60) configured to determine a type of power source (20,30;22) to couple to the charger, and to adjust a power from the power source (20,30;22) based on the determined type of the power source; wherein the charger (52; 60) is configured to select a specific mode of the charger based on a battery charging status; wherein the power source is an alternative power source comprising one of a solar power source, a mechanical power source, a photovoltaic power source, a thermal power source, a radio frequency power source, a vibration power source, a biomechanical power source, a fuel cell; wherein the specific mode is a maximum power point tracking, MPPT, mode and the MPPT mode is selected if a maximum power of the power source is required for battery charging as indicated by the battery charging status. a charger (52; 60) configured to determine a type of power source (20,30;22) to couple to the charger, and to adjust a power from the power source (20,30;22) based on the determined type of the power source; wherein the charger (52; 60) is configured to select a specific mode of the charger based on a battery charging status; wherein the power source is an alternative power source comprising one of a solar power source, a mechanical power source, a photovoltaic power source, a thermal power source, a radio frequency power source, a vibration power source, a biomechanical power source, a fuel cell; wherein the specific mode is a maximum power point tracking, MPPT, mode and the MPPT mode is selected if a maximum power of the power source is required for battery charging as indicated by the battery charging status.
A method of operating a plurality of can internal spray machines each of which uses a servo motor and a motor speed controller coupled to the servo motor , the motor speed controller incorporating a regenerative braking system , the method comprising synchronising the servo motors in order to achieve overlap of the acceleration phases of some can internal spray machines with the deceleration phases of other can internal spray machines and providing electrical power from the regenerative braking systems of can internal spray machines in a deceleration phase to can internal spray machines in an acceleration phase.
An electric vehicle control method, - for braking of an electric vehicle - by applying a front braking torque (Tmf) by a front drive motor that drives a front wheel and - by applying a rear braking torque (Tmr) by to a rear drive motor that drives a rear wheel , - the electric vehicle control method comprising: during the braking, - executing a distribution torque changing process (A) that increases the front braking torque (Tmf) while maintaining a sum of the front braking torque (Tmf) and the rear braking torque (Tmr) when a slip (S) of the rear wheel is detected; and - executing a torque limiting process (B, C) that reduces the front braking torque (Tmf) and the rear braking torque (Tmr) when the slip (S) of the rear wheel is eliminated by the distribution torque changing process (A) and a slip (S) of the front wheel is detected. - for braking of an electric vehicle - by applying a front braking torque (Tmf) by a front drive motor that drives a front wheel and - by applying a rear braking torque (Tmr) by to a rear drive motor that drives a rear wheel , - by applying a front braking torque (Tmf) by a front drive motor that drives a front wheel and - by applying a rear braking torque (Tmr) by to a rear drive motor that drives a rear wheel , - the electric vehicle control method comprising: during the braking, - executing a distribution torque changing process (A) that increases the front braking torque (Tmf) while maintaining a sum of the front braking torque (Tmf) and the rear braking torque (Tmr) when a slip (S) of the rear wheel is detected; and - executing a torque limiting process (B, C) that reduces the front braking torque (Tmf) and the rear braking torque (Tmr) when the slip (S) of the rear wheel is eliminated by the distribution torque changing process (A) and a slip (S) of the front wheel is detected. - executing a distribution torque changing process (A) that increases the front braking torque (Tmf) while maintaining a sum of the front braking torque (Tmf) and the rear braking torque (Tmr) when a slip (S) of the rear wheel is detected; and - executing a torque limiting process (B, C) that reduces the front braking torque (Tmf) and the rear braking torque (Tmr) when the slip (S) of the rear wheel is eliminated by the distribution torque changing process (A) and a slip (S) of the front wheel is detected.
An indoor light source that emits light having an emission spectrum including a first peak in a wavelength region of 440 to 460 nm, a second peak in a wavelength region of 540 to 560 nm, and a third peak in a wavelength region of 610 to 630 nm, wherein when the highest one of intensities at the first peak, the second peak, and the third peak is 1 in terms of relative intensity, the emission spectrum includes a lowest light intensity of 0.7 or higher in terms of relative intensity in a wavelength region of λ1 to λ2 in nm, and a lowest light intensity of 0.8 or higher in terms of relative intensity in a wavelength region of λ2 to λ3 in nm, and where λ1 is a peak wavelength at the first peak in nm, λ2 is a peak wavelength at the second peak in nm, and λ3 is a peak wavelength at the third peak in nm, the indoor light source comprising a light-emitting device configured to emit ultraviolet light , a wavelength conversion member comprising an inorganic material containing a phosphor dispersed therein, the phosphor being to be excited by light emitted from the light-emitting device to show a fluorescence, the phosphor including a red phosphor that shows a red fluorescence, a green phosphor that shows a green fluorescence, a first blue phosphor that shows a blue fluorescence with a first fluorescence spectrum, and a second blue phosphor that shows a blue fluorescence with a second fluorescence spectrum, characterized in that the emission spectrum includes two light intensities of 0.99 or higher in terms of relative intensity at the first to third peaks excluding a peak having the highest light intensity among the first to third peaks, and includes the light intensity of 0.6 or higher in terms of relative intensity at 405 nm, a difference between a peak wavelength λB1 in nm of the first fluorescence spectrum and a peak wavelength λB2 in nm of the second fluorescence spectrum is 5 nm or less, and a difference between a half width HWB1 in nm of the first fluorescence spectrum and a half width HWB2 in nm of the second fluorescence spectrum is 10 nm or more.
Pen cartridge for a pen with a substantially airtight pen housing , wherein the pen cartridge has a front part , which exhibits a writing member and is provided on a main body and is formed to be arranged in a passage of the pen housing , the pen cartridge being provided with an aeration groove , which runs at least along a partial area of the front part , the front part connecting to the main body via a transition, the transition being formed on the lateral surface (11.1) of the front part and forming a connecting transition from the lateral surface (11.1) of the front part to the outer surface (12.1) of the main body , in particular as a stop surface (12.2) of the main body to determine the exact position of the front part in the passage of the pen housing , in particular, the external dimensions of the main body being larger in respect of a longitudinal axis of the pen cartridge than those of the front part , the front part and the main body being formed with the stop surface (12.2) as a one-part pen cartridge housing , in which the aeration groove is formed with a constant cross-sectional profile, the aeration groove furthermore extending along the stop surface (12.2) of the main body and at least partially along the outer surface (12.1) of the main body , the pen cartridge being provided with a pressure equalization aperture at its rear end, wherein, when the pen cartridge is arranged in the pen housing , the aeration groove forms an aeration passage with the pen housing . the pen cartridge being provided with an aeration groove , which runs at least along a partial area of the front part , the front part connecting to the main body via a transition, the transition being formed on the lateral surface (11.1) of the front part and forming a connecting transition from the lateral surface (11.1) of the front part to the outer surface (12.1) of the main body , in particular as a stop surface (12.2) of the main body to determine the exact position of the front part in the passage of the pen housing , in particular, the external dimensions of the main body being larger in respect of a longitudinal axis of the pen cartridge than those of the front part , the front part and the main body being formed with the stop surface (12.2) as a one-part pen cartridge housing , in which the aeration groove is formed with a constant cross-sectional profile, the aeration groove furthermore extending along the stop surface (12.2) of the main body and at least partially along the outer surface (12.1) of the main body , the pen cartridge being provided with a pressure equalization aperture at its rear end, wherein, when the pen cartridge is arranged in the pen housing , the aeration groove forms an aeration passage with the pen housing .