mhurhangee/patent-ind-claim-en huggingface dataset:
A production method for a zirconium nitride powder comprising zirconium, nitrogen and oxygen as main components, a zirconium concentration of 73 to 82% by mass, a nitrogen concentration of 7 to 12% by mass and an oxygen concentration of 15% by mass or less, wherein in the transmission spectrum of a dispersion having a powder concentration of 50 ppm, a light transmittance X at 370 nm is at least 12% and a light transmittance Y at 550 nm is 12% or less, and a ratio (X/Y) of the light transmittance X at 370 nm to the light transmittance Y at 550 nm is 1.4 or more, and an average particle diameter of the powder regarded as spherical and calculated from a BET specific surface area value by the following equation is 10 to 50 nm, L = 6 / ρ × S in the equation , L is the average particle diameter (pm), ρ is a density of the powder (g/cm 3 ) and S is the BET specific surface area value (m 2 /g) of the powder, the method comprising mixing zirconium dioxide powder, metallic magnesium powder and magnesium oxide powder so that the metallic magnesium becomes a ratio of 2.0 to 6.0-fold mol to the zirconium oxide powder, firing the mixture under an atmosphere of a mixed gas of a nitrogen gas and an inert gas or under a nitrogen gas atmosphere at a temperature of 650 to 900°C, or firing under an inert gas atmosphere followed by an atmosphere of a nitrogen gas alone each at a temperature of 650 to 900°C to reduce the zirconium dioxide powder to produce zirconium nitride powder. wherein in the transmission spectrum of a dispersion having a powder concentration of 50 ppm, a light transmittance X at 370 nm is at least 12% and a light transmittance Y at 550 nm is 12% or less, and a ratio (X/Y) of the light transmittance X at 370 nm to the light transmittance Y at 550 nm is 1.4 or more, and an average particle diameter of the powder regarded as spherical and calculated from a BET specific surface area value by the following equation is 10 to 50 nm, L = 6 / ρ × S in the equation , L is the average particle diameter (pm), ρ is a density of the powder (g/cm 3 ) and S is the BET specific surface area value (m 2 /g) of the powder, the method comprising mixing zirconium dioxide powder, metallic magnesium powder and magnesium oxide powder so that the metallic magnesium becomes a ratio of 2.0 to 6.0-fold mol to the zirconium oxide powder, firing the mixture under an atmosphere of a mixed gas of a nitrogen gas and an inert gas or under a nitrogen gas atmosphere at a temperature of 650 to 900°C, or firing under an inert gas atmosphere followed by an atmosphere of a nitrogen gas alone each at a temperature of 650 to 900°C to reduce the zirconium dioxide powder to produce zirconium nitride powder.
A platform for a gas turbine engine comprising: a platform body defining one or more slots between a plurality of flanges , the one or more slots dimensioned to receive a respective flange of a hub , and the platform body including a plurality of composite layers (L) that join together to define an internal cavity ; and a filler extending in the internal cavity between the plurality of composite layers (L) and including a stacked composite structure (76-1, 76-2, 76-3) having a multitude of composite layers, characterized in that : the multitude of composite layers in the stacked composite structure (76-3) are arranged in parallel planes; and the multitude of composite layers in the stacked composite structure (76-3) are surrounded by an overwrap ply , the overwrap ply including a single layer defining a butt joint with a discontinuity in the overwrap ply to form an opening to the stacked composite structure (76-3). a platform body defining one or more slots between a plurality of flanges , the one or more slots dimensioned to receive a respective flange of a hub , and the platform body including a plurality of composite layers (L) that join together to define an internal cavity ; and a filler extending in the internal cavity between the plurality of composite layers (L) and including a stacked composite structure (76-1, 76-2, 76-3) having a multitude of composite layers, characterized in that : the multitude of composite layers in the stacked composite structure (76-3) are arranged in parallel planes; and the multitude of composite layers in the stacked composite structure (76-3) are surrounded by an overwrap ply , the overwrap ply including a single layer defining a butt joint with a discontinuity in the overwrap ply to form an opening to the stacked composite structure (76-3). the multitude of composite layers in the stacked composite structure (76-3) are arranged in parallel planes; and the multitude of composite layers in the stacked composite structure (76-3) are surrounded by an overwrap ply , the overwrap ply including a single layer defining a butt joint with a discontinuity in the overwrap ply to form an opening to the stacked composite structure (76-3).
A method for shrink wrapping two or more articles, the method comprising: providing a heat shrinkable woven raffia fabric formed from warp and weft tapes, wherein each warp and weft tape comprises 80 to 100 wt.%, based on the total wt.% of polymers present in the warp and weft tapes, of an ethylene/alpha-olefin copolymer having a density of 0.945 g/cc or greater and a melt index , as determined according to ASTM D1238 (190°C, 2.16 kg), of from 0.01 to 2.0 g/10 min; wrapping the heat shrinkable woven raffia fabric around two or more articles to form a wrapped bundle; and heating the wrapped bundle to form a shrink wrapped bundle. providing a heat shrinkable woven raffia fabric formed from warp and weft tapes, wherein each warp and weft tape comprises 80 to 100 wt.%, based on the total wt.% of polymers present in the warp and weft tapes, of an ethylene/alpha-olefin copolymer having a density of 0.945 g/cc or greater and a melt index , as determined according to ASTM D1238 (190°C, 2.16 kg), of from 0.01 to 2.0 g/10 min; wrapping the heat shrinkable woven raffia fabric around two or more articles to form a wrapped bundle; and heating the wrapped bundle to form a shrink wrapped bundle.
A method for compensating for spatial and slowness or angle blurring of plane-wave reflection coefficients in imaging, comprising: determining one or more source wave fields at a reference depth proximate to a reflector for one or more shot records; determining one or more receiver-side blurring functions at the reference depth, wherein a receiver-side blurring function is defined by B r x , z , x " , z R , t = W − † x z x r z r t a x r W − x r , z r , x " , z R , t where B r is a function of two depths, two lateral variables and time, W -(†) ( x,z,x r ,z r ,t ) is the upgoing-wave propagator from the reflector to the receiver level and † denotes a time-reversed field, a ( x r ) is a receiver aperture function of position x r at that level, and W - ( x r ,z r ,x",z R ,t ) is the back propagator from the receiver level to the reference depth and wherein the receiver-side blurring function is numerically estimated using a modelling engine for a given migration velocity model and acquisition geometry parameters by injecting a small source around or near the reflector, so that x" may be taken to characterize the location of the injected source; constructing an aggregate blurring function based at least partially on the one or more source wave fields and the one or more receiver-side blurring functions; and determining , using a processor, one or more plane-wave reflection coefficients based at least partially on the aggregate blurring function. determining one or more source wave fields at a reference depth proximate to a reflector for one or more shot records; determining one or more receiver-side blurring functions at the reference depth, wherein a receiver-side blurring function is defined by B r x , z , x " , z R , t = W − † x z x r z r t a x r W − x r , z r , x " , z R , t where B r is a function of two depths, two lateral variables and time, W -(†) ( x,z,x r ,z r ,t ) is the upgoing-wave propagator from the reflector to the receiver level and † denotes a time-reversed field, a ( x r ) is a receiver aperture function of position x r at that level, and W - ( x r ,z r ,x",z R ,t ) is the back propagator from the receiver level to the reference depth and wherein the receiver-side blurring function is numerically estimated using a modelling engine for a given migration velocity model and acquisition geometry parameters by injecting a small source around or near the reflector, so that x" may be taken to characterize the location of the injected source; constructing an aggregate blurring function based at least partially on the one or more source wave fields and the one or more receiver-side blurring functions; and determining , using a processor, one or more plane-wave reflection coefficients based at least partially on the aggregate blurring function.
Method for ink-jet printing onto containers , where a print advance with respect to at least one print module is created at least by transporting said containers along at least one curved trajectory (B4, B5) either alone or jointly by rotation of said containers about themselves, where surface velocities (V1 - V5) of lateral portions (A1 - A5) of said containers are measured during said rotation/ said transport, and where an angular velocity of said rotation is adapted in dependence of said measured surface velocities (V1 - V5) and/or where defined time intervals (I1 - I3) between printing times of individual nozzles or rows of nozzles of said print module ) being associated with different lateral portions (A1 - A3) and/or intermediately disposed portions (A6) are set respectively greater, the lower said associated surface velocities are (V1 - V3).
A computer-implemented method for predicting subfield soil properties for an agricultural field, the method comprising: receiving satellite remote sensing data that includes a plurality of images capturing imagery of an agricultural field in a plurality of optical domains; receiving a plurality of environmental characteristics for the agricultural field; generating a plurality of preprocessed images based on the plurality of images and the plurality of environmental characteristics; identifying a plurality of features of the agricultural field based on the plurality preprocessed images; generating a subfield soil property prediction for the agricultural field by executing one or more machine learning models on the plurality of features; transmitting the subfield soil property prediction to an agricultural computer system. receiving satellite remote sensing data that includes a plurality of images capturing imagery of an agricultural field in a plurality of optical domains; receiving a plurality of environmental characteristics for the agricultural field; generating a plurality of preprocessed images based on the plurality of images and the plurality of environmental characteristics; identifying a plurality of features of the agricultural field based on the plurality preprocessed images; generating a subfield soil property prediction for the agricultural field by executing one or more machine learning models on the plurality of features; transmitting the subfield soil property prediction to an agricultural computer system.
A shaving unit comprising: - a housing ; - a guard stationary relative to the housing ; - a cutting edge arranged at a distance from the guard and stationary relative to the housing ; - a hair-entry opening bound by the guard and the cutting edge ; - a drum arranged within the housing , the drum being configured to be driven rotatingly about a longitudinal axis thereof; - at least one counter cutting edge arranged on the drum for cooperating with the cutting edge during rotation of the drum about the longitudinal axis for shearing or cutting hairs entering the hair-entry opening ; and - a lubricating arrangement comprising: a liquid reservoir configured for receiving a lubricant, and a feed mechanism including a lubricating element arranged adjacent to the drum in a position such as to engage the at least one counter cutting edge during rotation of the drum about the longitudinal axis for providing a lubricating film to the at least one counter cutting edge . - a housing ; - a guard stationary relative to the housing ; - a cutting edge arranged at a distance from the guard and stationary relative to the housing ; - a hair-entry opening bound by the guard and the cutting edge ; - a drum arranged within the housing , the drum being configured to be driven rotatingly about a longitudinal axis thereof; - at least one counter cutting edge arranged on the drum for cooperating with the cutting edge during rotation of the drum about the longitudinal axis for shearing or cutting hairs entering the hair-entry opening ; and - a lubricating arrangement comprising: a liquid reservoir configured for receiving a lubricant, and a feed mechanism including a lubricating element arranged adjacent to the drum in a position such as to engage the at least one counter cutting edge during rotation of the drum about the longitudinal axis for providing a lubricating film to the at least one counter cutting edge . a liquid reservoir configured for receiving a lubricant, and a feed mechanism including a lubricating element arranged adjacent to the drum in a position such as to engage the at least one counter cutting edge during rotation of the drum about the longitudinal axis for providing a lubricating film to the at least one counter cutting edge .
A kiteboard comprising a. a base comprising i. a top face and a bottom face and ii. an outer edge face extending in a circumferential direction along an outer contour of the top face and the bottom face and comprising a first mechanical interface; b. a front extension and/or a back extension comprising a top face and a bottom face and an inner edge face extending between the top face and the bottom face along an inner contour , wherein c. the inner edge face corresponds at least partially to the outer contour of the base and comprises a second mechanical interface, wherein d. in an assembled position the first and the second mechanical interfaces are engaged with each other to position the front extension and/or the back extension with respect to the base , wherein e. the outer edge face of the base is a riding edge such that the base is a fully functioning kiteboard in itself, and wherein the riding edge comprises a reinforcing element, which in placed on and thus reinforces the outer edge face; f. at least one first locking element , wherein the at least one first locking element is located on the top face of the base and/or top face of the front extension and/or the back extension . a. a base comprising i. a top face and a bottom face and ii. an outer edge face extending in a circumferential direction along an outer contour of the top face and the bottom face and comprising a first mechanical interface; i. a top face and a bottom face and ii. an outer edge face extending in a circumferential direction along an outer contour of the top face and the bottom face and comprising a first mechanical interface; b. a front extension and/or a back extension comprising a top face and a bottom face and an inner edge face extending between the top face and the bottom face along an inner contour , wherein c. the inner edge face corresponds at least partially to the outer contour of the base and comprises a second mechanical interface, wherein d. in an assembled position the first and the second mechanical interfaces are engaged with each other to position the front extension and/or the back extension with respect to the base , wherein e. the outer edge face of the base is a riding edge such that the base is a fully functioning kiteboard in itself, and wherein the riding edge comprises a reinforcing element, which in placed on and thus reinforces the outer edge face; f. at least one first locking element , wherein the at least one first locking element is located on the top face of the base and/or top face of the front extension and/or the back extension .
A method performed by a computer system, comprising: receiving, over a network by a cloud gaming server computer, a request from a client device to initiate gameplay of a cloud video game; assigning the client device to a first data center from which to stream the cloud video game, wherein assigning the client device includes identifying user save data for the cloud video game as being stored at the first data center, and selecting the first data center based on the identification of the user save data; loading a cloud gaming machine at the first data center with the cloud video game using the identified user save data; substantially simultaneous with the loading of the cloud gaming machine, performing a stream test between the first data center and the client device to determine a quality of service of the streaming of the cloud video game; after completion of the loading of the cloud gaming machine and the performance of the stream test, initiating interactive gameplay of the cloud video game by streaming video data, generated from execution of the cloud video game by the cloud gaming machine, to the client device, and receiving input data from the client device to drive the execution of the cloud video game; using results of the stream test to determine whether to migrate the execution of the cloud video game to a second data center, and if so, then transferring a copy of the user save data to the second data center during the interactive gameplay and migrating the execution to the second data center. receiving, over a network by a cloud gaming server computer, a request from a client device to initiate gameplay of a cloud video game; assigning the client device to a first data center from which to stream the cloud video game, wherein assigning the client device includes identifying user save data for the cloud video game as being stored at the first data center, and selecting the first data center based on the identification of the user save data; loading a cloud gaming machine at the first data center with the cloud video game using the identified user save data; substantially simultaneous with the loading of the cloud gaming machine, performing a stream test between the first data center and the client device to determine a quality of service of the streaming of the cloud video game; after completion of the loading of the cloud gaming machine and the performance of the stream test, initiating interactive gameplay of the cloud video game by streaming video data, generated from execution of the cloud video game by the cloud gaming machine, to the client device, and receiving input data from the client device to drive the execution of the cloud video game; using results of the stream test to determine whether to migrate the execution of the cloud video game to a second data center, and if so, then transferring a copy of the user save data to the second data center during the interactive gameplay and migrating the execution to the second data center.
A driving assistance device for a vehicle , comprising: an acquisition module configured to acquire information comprising at least one of vehicle state information and environment information surrounding the vehicle ; a decision module configured to determine a driving behavior for the vehicle in an autonomous driving mode based on the acquired information; a pre-processing module configured to process the acquired information to identify a respective information category among a plurality of pre-defined information categories the acquired information belongs to; and a determining module configured to retrieve one or more traffic rules related to the information category the acquired information belongs to from a traffic rule database pre-stored in the driving assistance device ; determine whether the driving behavior violates any of the retrieved traffic rules; and determine risks of said driving behavior if it is determined the driving behavior violates at least one of the retrieved traffic rules, said risks comprising one or more of the legal penalty, property damages and personal injury caused by the driving behavior. an acquisition module configured to acquire information comprising at least one of vehicle state information and environment information surrounding the vehicle ; a decision module configured to determine a driving behavior for the vehicle in an autonomous driving mode based on the acquired information; a pre-processing module configured to process the acquired information to identify a respective information category among a plurality of pre-defined information categories the acquired information belongs to; and a determining module configured to retrieve one or more traffic rules related to the information category the acquired information belongs to from a traffic rule database pre-stored in the driving assistance device ; determine whether the driving behavior violates any of the retrieved traffic rules; and determine risks of said driving behavior if it is determined the driving behavior violates at least one of the retrieved traffic rules, said risks comprising one or more of the legal penalty, property damages and personal injury caused by the driving behavior.
A method for operating at least one optoelectronic probe or control element , arranged behind an optically transparent control panel of a field device from the field of automation technology , in order to detect an actuation of the optoelectronic probe or control element by an operator of the field device , characterized in that the method exhibits the following process steps: a.) Detection of whether the field device from the field of automation technology is located indoors or outdoors; b.) Specification of an evaluation condition that is applied in order to detect the actuation of the optical probe or control element , wherein if the system detects that the field device is located indoors, a first evaluation condition is applied, and if the system detects that the field device is located outdoors, a second evaluation condition that differs from the first evaluation condition is applied; c.) Detection or evaluation of whether an actuation of the optoelectronic probe or control element has occurred based on the specified evaluation condition, wherein with the first evaluation condition a value is set based on the chronological course of an output signal originating from the optoelectronic probe or control element relative to a current value of the output signal for detection of the optoelectronic probe or control element, and wherein with the second evaluation condition a value is set that is not based, in particular during measuring operations of the field device, on the chronological course of the output signal relative to a current value of the output signal for detection of the actuation of the optoelectronic probe or control element . a.) Detection of whether the field device from the field of automation technology is located indoors or outdoors; b.) Specification of an evaluation condition that is applied in order to detect the actuation of the optical probe or control element , wherein if the system detects that the field device is located indoors, a first evaluation condition is applied, and if the system detects that the field device is located outdoors, a second evaluation condition that differs from the first evaluation condition is applied; c.) Detection or evaluation of whether an actuation of the optoelectronic probe or control element has occurred based on the specified evaluation condition, wherein with the first evaluation condition a value is set based on the chronological course of an output signal originating from the optoelectronic probe or control element relative to a current value of the output signal for detection of the optoelectronic probe or control element, and wherein with the second evaluation condition a value is set that is not based, in particular during measuring operations of the field device, on the chronological course of the output signal relative to a current value of the output signal for detection of the actuation of the optoelectronic probe or control element .