mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining the functioning of a piezoelectric sensor , wherein the piezoelectric sensor is part of a device for determining the flow rate of a fluid in a hollow body; wherein the device comprises at least one baffle arranged in the hollow body; and the piezoelectric sensor arranged at a certain distance downstream of the baffle viewed in the direction of flow for the determination of disturbances that have been induced into the flow by the baffle; and wherein the piezoelectric sensor is set to vibrate in a pulsed manner by an exciter, the signal sequence of the vibration during the decay time is determined and is compared with a reference curve that corresponds to the signal sequence during the decay time of a functioning piezoelectric sensor. wherein the piezoelectric sensor is part of a device for determining the flow rate of a fluid in a hollow body; wherein the device comprises at least one baffle arranged in the hollow body; and the piezoelectric sensor arranged at a certain distance downstream of the baffle viewed in the direction of flow for the determination of disturbances that have been induced into the flow by the baffle; and wherein the piezoelectric sensor is set to vibrate in a pulsed manner by an exciter, the signal sequence of the vibration during the decay time is determined and is compared with a reference curve that corresponds to the signal sequence during the decay time of a functioning piezoelectric sensor.
A method performed by a transmitting node for processing a multi-destination frame in a network, the method comprising the steps of: generating a multi-destination frame that comprises a control block type, a data payload and a receiver list associated with the control block type; wherein the control block type indicates that the receiver list is an include list, and the receiver list is a list of receivers that process the multi-destination frame without discarding the multi-destination frame; sending the multi-destination frame to a receiving node using a wireless radio link. generating a multi-destination frame that comprises a control block type, a data payload and a receiver list associated with the control block type; wherein the control block type indicates that the receiver list is an include list, and the receiver list is a list of receivers that process the multi-destination frame without discarding the multi-destination frame; sending the multi-destination frame to a receiving node using a wireless radio link.
A transfer foi I for transferri ng motif-shaped security elements from transfer regions of the transfer foil to a target substrate, comprisi ng - a security-element layer structure with a plurality of layers which, after transfer from the transfer regions, form the desired security elements on the target substrate, - a temporary carrier foil for the production of the security-element layer structure , which is detachably connected to the security-element layer structure , - wherein a stabilizing layer present at least in certain regions is firmly connected to the security-element layer structure , wherein the stabilizing layer in the form of a viscous lacquer layer forms a stable lacquer grid with the security-element layer structure , the stable lacquer grid , after a separation step for forming motif-shaped transfer regions and non-transfer regions , is detachable from the temporary carrier foil in the non-transfer regions , and the stabilizing layer is present only in certain regions and substantially only in the non-transfer regions . - a security-element layer structure with a plurality of layers which, after transfer from the transfer regions, form the desired security elements on the target substrate, - a temporary carrier foil for the production of the security-element layer structure , which is detachably connected to the security-element layer structure , - wherein a stabilizing layer present at least in certain regions is firmly connected to the security-element layer structure ,
A method of reducing the incidence of deposits on the pistons of a 4-stroke marine diesel engine during operation of the engine when it is fuelled with a marine residual fuel meeting the ISO 8217 2017 fuel standard for marine residual fuels and having a sulphur content of more than 0.1% and less than 0.5% by mass, based on the mass of the fuel, the method comprising lubricating the engine using a lubricating oil composition comprising: (a) at least 50% by mass, based on the mass of the composition, of an oil of lubricating viscosity; (b) 5 to 25% by mass, based on the mass of the composition, of an oil-soluble or oil-dispersible alkali metal or alkaline earth metal salicylate detergent, or a mixture of two or more oil-soluble or oil-dispersible alkali metal or alkaline earth metal salicylate detergents, the or each oil-soluble or oil-dispersible alkali metal or alkaline earth metal salicylate detergent having a total base number of (TBN) as measured by ASTM D2896 of from 50 to 500 mg KOH/g; (c) 0.1 to 10 % by mass, based on the mass of the composition of one or more oil-soluble or oil-dispersible ashless dispersants; and optionally, (d) 0.1 to 10 % by mass, based on the mass of the composition of a polyalkylene-substituted succinic anhydride. (a) at least 50% by mass, based on the mass of the composition, of an oil of lubricating viscosity; (b) 5 to 25% by mass, based on the mass of the composition, of an oil-soluble or oil-dispersible alkali metal or alkaline earth metal salicylate detergent, or a mixture of two or more oil-soluble or oil-dispersible alkali metal or alkaline earth metal salicylate detergents, the or each oil-soluble or oil-dispersible alkali metal or alkaline earth metal salicylate detergent having a total base number of (TBN) as measured by ASTM D2896 of from 50 to 500 mg KOH/g; (c) 0.1 to 10 % by mass, based on the mass of the composition of one or more oil-soluble or oil-dispersible ashless dispersants; and optionally, (d) 0.1 to 10 % by mass, based on the mass of the composition of a polyalkylene-substituted succinic anhydride.
A methyl methacrylate purification unit able to separate methyl methacrylate (MMA) from light and heavy impurities, said unit being characterized in that it comprises two distillation columns in series, fed with mixture to be distilled in their median part, in order to separate each column in two upper and lower parts, the first distillation column being fed with crude prewashed methyl methacrylate (MMA), and the second distillation column being fed with distilled liquid stream containing methyl methacrylate (MMA), separated from light impurities, issued from bottom of first distillation column , and the upper part of first distillation column is connected to a lateral extraction system comprising an extraction liquid outlet , located in the upper part but not at the top of the first distillation column , able to minimize methyl methacrylate (MMA) content in a gas phase of light impurities flowing upward said first column , characterized in that the lateral extraction system comprises a feeding pipe for adding water to the light impurities containing a MMA-water azeotropic mixture extracted from an extraction liquid outlet located in the upper part of first distillation column , a cooling device for cooling the obtained mixture, at a temperature between 20°C and 34°C, and a settler for recovering the liquid phase and for obtaining a phase separation between an aqueous phase containing water and methanol, and an organic phase containing methyl methacrylate (MMA), said settler being connected to an inlet of the first distillation column located below said extraction liquid outlet , in order to re-inject organic phase containing methyl methacrylate (MMA) inside upper part of said first distillation column .
A flowability improver for polycarbonate and polyarylate comprising polyester obtained by polycondensing monomers including: a biphenol component (A) represented by the following general formula (where X 1 to X 4 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons); a bisphenol component (B) represented by the following general formula (where X 5 to X 8 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons; and Y represents a methylene group, an isopropylidene group, a cyclic alkylidene group, an aryl-substituted alkylidene group, an arylenedialkylidene group, -S-, -O-, a carbonyl group or -SO 2 -); and a dicarboxylic acid component (C) represented by the following general formula HOOC-R 1 -COOH • • • (where R 1 represents a divalent straight-chain substituent that has 2 to 18 main-chain atoms and may include a branch), wherein a molar ratio of the component (A) and the component (B) to the component (C) is {(A) + (B)}:(C) = 45:55 - 55:45, and a content rate of a portion derived from the component (A), the component (B) and the component (C) in the polyester is 50 mol% or more. a biphenol component (A) represented by the following general formula (where X 1 to X 4 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons); a bisphenol component (B) represented by the following general formula (where X 5 to X 8 may be the same or different and each represent a hydrogen atom, a halogen atom, or an alkyl group with 1 to 4 carbons; and Y represents a methylene group, an isopropylidene group, a cyclic alkylidene group, an aryl-substituted alkylidene group, an arylenedialkylidene group, -S-, -O-, a carbonyl group or -SO 2 -); and a dicarboxylic acid component (C) represented by the following general formula HOOC-R 1 -COOH • • • (where R 1 represents a divalent straight-chain substituent that has 2 to 18 main-chain atoms and may include a branch), wherein a molar ratio of the component (A) and the component (B) to the component (C) is {(A) + (B)}:(C) = 45:55 - 55:45, and a content rate of a portion derived from the component (A), the component (B) and the component (C) in the polyester is 50 mol% or more.
Motor vehicle closing device comprising at least one closing element , for example a catch and/or a pawl as components of a motor vehicle latch, and comprising at least one sensor unit , which detects movements of the closing element , characterized in that the sensor unit is designed for three-dimensional detection of the movements of the closing element .
An electrosurgical device comprising: a. forceps including: i. a first working jaw and ii. a second working jaw ; and b. a blade electrode located between the first working jaw and the second working jaw , the blade electrode including: i. a notched section having a proximal edge , a distal edge and a receiving region therebetween, wherein the first working jaw , the second working jaw , or both are connected to a first therapy current so that during an application of the first therapy current, tissue located within the receiving region and gripped between the first working jaw and the second working jaw is coagulated, wherein the blade electrode is moveable so that the tissue located within the receiving region of the notched section is cut with either the proximal edge or the distal edge without repositioning the forceps , characterized in that the blade electrode is connected to a second therapy current so that during an application of the second therapy current, the blade electrode functions as an electrosurgical blade when at least a portion of the blade electrode extends beyond a distal end of the forceps . a. forceps including: i. a first working jaw and ii. a second working jaw ; and i. a first working jaw and ii. a second working jaw ; and b. a blade electrode located between the first working jaw and the second working jaw , the blade electrode including: i. a notched section having a proximal edge , a distal edge and a receiving region therebetween, i. a notched section having a proximal edge , a distal edge and a receiving region therebetween,
A gas turbine engine and engine mount structure comprising: a core engine including a compressor section , a combustor section and a turbine section mounted within a core engine housing; a fan , said fan , said compressor section and said turbine section rotating about an axis of rotation (X); and an outer nacelle (106; 106a; 106b) surrounding said fan , and being spaced from said core engine housing to define a bypass duct, said fan delivering air into said bypass duct and into said core engine housing, said nacelle (106; 106a; 106b) being formed with camber such that a center point of the nacelle (106; 106a; 106b) extends along a curve in a first plane (P) away from said axis of rotation (X) in a first lateral direction, such that the line of camber is configured to extend away from a fuselage of an aircraft, the first plane (P) being parallel to the horizontal and extending through the axis of rotation (X), the engine mount structure extending from said nacelle (106; 106a; 106b) at an angle (A) that is non-parallel and non-perpendicular to said first plane (P), and the engine mount structure extending in a direction, the direction having a component in a lateral direction that is opposed to said first lateral direction. a core engine including a compressor section , a combustor section and a turbine section mounted within a core engine housing; a fan , said fan , said compressor section and said turbine section rotating about an axis of rotation (X); and an outer nacelle (106; 106a; 106b) surrounding said fan , and being spaced from said core engine housing to define a bypass duct, said fan delivering air into said bypass duct and into said core engine housing, said nacelle (106; 106a; 106b) being formed with camber such that a center point of the nacelle (106; 106a; 106b) extends along a curve in a first plane (P) away from said axis of rotation (X) in a first lateral direction, such that the line of camber is configured to extend away from a fuselage of an aircraft,
A method of managing a wind farm with a plurality of wind turbines , each wind turbine having a turbine profile, wherein the turbine profile is one of a master profile and a slave profile, wherein the wind turbine with the master profile is enabled to control and shut down the wind turbines with the slave profile of the wind farm , comprising: monitoring meteorological parameters and performance parameters associated with the wind farm in real-time to generate real-time operational data; analyzing operating parameters associated with the wind farm , wherein the operating parameters comprise historical operational data and the real-time operational data associated with the wind farm ; determining at least one wind turbine in the slave profile whose turbine profile needs to be changed from a slave profile to a master profile based on the analyzed operating parameters; and dynamically changing the turbine profile of the at least one wind turbine from the slave profile to the master profile. monitoring meteorological parameters and performance parameters associated with the wind farm in real-time to generate real-time operational data; analyzing operating parameters associated with the wind farm , wherein the operating parameters comprise historical operational data and the real-time operational data associated with the wind farm ; determining at least one wind turbine in the slave profile whose turbine profile needs to be changed from a slave profile to a master profile based on the analyzed operating parameters; and dynamically changing the turbine profile of the at least one wind turbine from the slave profile to the master profile.
A computer-implemented method of characterizing a specimen , wherein the specimen is whole blood, comprising a settled blood portion and a serum or plasma portion, the method comprising: capturing one or more images of the specimen , the one or more images including a serum or plasma portion of the specimen , the capturing generating pixel data; wherein the method further comprises: processing pixel data of the one or more images of the specimen using a first neural network executing on a computer (124/172) to predict a classification of the serum or plasma portion , wherein the first neural network outputs a classification hypothesis for said serum or plasma portion of the specimen, whereby the first neural network hypothesizes to which one of a plurality of classes said portion belongs, wherein the classes of the classification comprise hemolysis, icterus, and lipemia; and verifying the predicted classification using one or more verification neural networks , wherein the verification neural network identifies if the prediction of the first neural network is correct, and wherein the verifying uses a verification neural network selected in response and corresponding to the respective class obtained by said first neural network. capturing one or more images of the specimen , the one or more images including a serum or plasma portion of the specimen , the capturing generating pixel data; wherein the method further comprises: processing pixel data of the one or more images of the specimen using a first neural network executing on a computer (124/172) to predict a classification of the serum or plasma portion , wherein the first neural network outputs a classification hypothesis for said serum or plasma portion of the specimen, whereby the first neural network hypothesizes to which one of a plurality of classes said portion belongs, wherein the classes of the classification comprise hemolysis, icterus, and lipemia; and verifying the predicted classification using one or more verification neural networks , wherein the verification neural network identifies if the prediction of the first neural network is correct, and wherein the verifying uses a verification neural network selected in response and corresponding to the respective class obtained by said first neural network. processing pixel data of the one or more images of the specimen using a first neural network executing on a computer (124/172) to predict a classification of the serum or plasma portion , wherein the first neural network outputs a classification hypothesis for said serum or plasma portion of the specimen, whereby the first neural network hypothesizes to which one of a plurality of classes said portion belongs, wherein the classes of the classification comprise hemolysis, icterus, and lipemia; and verifying the predicted classification using one or more verification neural networks , wherein the verification neural network identifies if the prediction of the first neural network is correct, and wherein the verifying uses a verification neural network selected in response and corresponding to the respective class obtained by said first neural network.
A method for processing a three-dimensional image, the method comprising: acquiring a frame by combining a line of a color image with a corresponding line of a depth image; splitting a single line of the color image into a plurality of lines according to depth levels; performing a primary Fourier transform on the plurality of lines; generating a single added line by adding transformed lines obtained as a result of the performing the primary Fourier transform; and performing a secondary Fourier transform on the single added line. acquiring a frame by combining a line of a color image with a corresponding line of a depth image; splitting a single line of the color image into a plurality of lines according to depth levels; performing a primary Fourier transform on the plurality of lines; generating a single added line by adding transformed lines obtained as a result of the performing the primary Fourier transform; and performing a secondary Fourier transform on the single added line.
An apparatus comprising: a database comprising actions for workflows along with triggers for workflows, wherein a workflow comprises a trigger and an action , wherein triggers represent detected events originating from various sensors/cameras within a security ecosystem , wherein actions represent possible responses to the detected events, and wherein once the trigger is detected, the action is executed, and wherein the database also comprises triggers that cannot currently be detected by the security ecosystem and actions that cannot currently be executed by the security ecosystem , and wherein the database also comprises equipment necessary to detect the triggers that cannot currently be detected by the security ecosystem and equipment necessary to execute actions that cannot currently be executed by the security ecosystem ; logic circuitry configured to: detect a user-created workflow comprising a trigger that cannot be detected by the security ecosystem or an action that cannot be executed by the security ecosystem ; access the database to determine equipment necessary to execute the user-created workflow; and a graphical-user interface, GUI , configured to provide the user the equipment necessary to execute the user-created workflow. a database comprising actions for workflows along with triggers for workflows, wherein a workflow comprises a trigger and an action , wherein triggers represent detected events originating from various sensors/cameras within a security ecosystem , wherein actions represent possible responses to the detected events, and wherein once the trigger is detected, the action is executed, and wherein the database also comprises triggers that cannot currently be detected by the security ecosystem and actions that cannot currently be executed by the security ecosystem , and wherein the database also comprises equipment necessary to detect the triggers that cannot currently be detected by the security ecosystem and equipment necessary to execute actions that cannot currently be executed by the security ecosystem ; logic circuitry configured to: detect a user-created workflow comprising a trigger that cannot be detected by the security ecosystem or an action that cannot be executed by the security ecosystem ; access the database to determine equipment necessary to execute the user-created workflow; and detect a user-created workflow comprising a trigger that cannot be detected by the security ecosystem or an action that cannot be executed by the security ecosystem ; access the database to determine equipment necessary to execute the user-created workflow; and a graphical-user interface, GUI , configured to provide the user the equipment necessary to execute the user-created workflow.
A compound represented by a formula: wherein L is CH 2 , CF 2 , C 2 H 4 , C 3 H 6 , -CH 2 O, -C 2 H 4 O, or -C 3 H 6 O; wherein R 1 is C 1-12 optionally substituted alkyl, C 1-12 optionally substituted -O-alkyl, optionally substituted C 6-10 aryl, optionally substituted C 6-10 -O-aryl, or optionally substituted C 2-9 heterocyclyl; wherein R 2 is -R a -Cy, wherein R a is a bond or C 1-12 optionally substituted alkyl, and Cy is H, substituted C 6-10 aryl, or optionally substituted C 2-9 heterocyclyl, wherein all substituents of R 2 are independently C 1-6 alkyl, C 1-6 -O-alkyl, OH, F, Cl, Br, I, C 1-6 aminoacyl, C 1-6 acylamino, C 1-6 alkythio, or C 1-6 alkylsulfonyl; wherein R 3 , R 4 , and R 5 are independently H, F, Cl, Br, I, CN, C 1-12 optionally substituted alkyl, C 1-12 optionally substituted -O-alkyl, optionally substituted C 2-9 heterocyclyl, optionally substituted C 6-10 aryl, optionally substituted C 2-9 -O-heterocyclyl, optionally substituted C 6-10 O-aryl, NH 2 , or optionally substituted C 1-12 aminoalkyl; and wherein alkyl is linear alkyl, branched alkyl, cycloalkyl, or a combination thereof.