mhurhangee/patent-ind-claim-en huggingface dataset:
A system for monitoring a turbine component , the system comprising: a turbine component ; a strain sensor configured on the turbine component ; an electrical field scanner for measuring an electrical field of the strain sensor , the measured electric field including conductivity variations across said strain sensor ; and a processor in operable communication with the electrical field scanner , the processor operable for: analyzing the electrical field value across the strain sensor along a X-axis and a Y-axis to obtain a data point set, the X-axis and the Y-axis being directed mutually orthogonal to each other; and assembling a field profile of the strain sensor based on the data point set, the electrical field scanner being configured to be selectively placed over the strain sensor when measuring the strain sensor , characterised in that the electrical field scanner includes a conductivity probe configured to measure conductivity across the strain sensor , wherein the turbine component is formed from a material having a first conductivity value, and wherein the strain sensor comprises a detection material having a second conductivity value different from the first conductivity value. a turbine component ; a strain sensor configured on the turbine component ; an electrical field scanner for measuring an electrical field of the strain sensor , the measured electric field including conductivity variations across said strain sensor ; and a processor in operable communication with the electrical field scanner , the processor operable for: analyzing the electrical field value across the strain sensor along a X-axis and a Y-axis to obtain a data point set, the X-axis and the Y-axis being directed mutually orthogonal to each other; and assembling a field profile of the strain sensor based on the data point set, the electrical field scanner being configured to be selectively placed over the strain sensor when measuring the strain sensor , characterised in that the electrical field scanner includes a conductivity probe configured to measure conductivity across the strain sensor , wherein the turbine component is formed from a material having a first conductivity value, and wherein the strain sensor comprises a detection material having a second conductivity value different from the first conductivity value. analyzing the electrical field value across the strain sensor along a X-axis and a Y-axis to obtain a data point set, the X-axis and the Y-axis being directed mutually orthogonal to each other; and assembling a field profile of the strain sensor based on the data point set, the electrical field scanner being configured to be selectively placed over the strain sensor when measuring the strain sensor , characterised in that the electrical field scanner includes a conductivity probe configured to measure conductivity across the strain sensor , wherein the turbine component is formed from a material having a first conductivity value, and wherein the strain sensor comprises a detection material having a second conductivity value different from the first conductivity value.
A cooling system of an air-cooled internal combustion engine , wherein a cooling fan is controlled by a shaft put in rotation by the crankshaft or by the crankshaft itself , and it directs an air flow to touch an engine block through a duct , wherein a partition is provided which can be moved between a first starting configuration, wherein it obstructs the duct, and a second regime configuration, wherein the duct is free, said partition being activated by activation means sensible to the temperature of a fluid inside the engine; and the cooling system being characterized in that the partition is placed within the duct , downstream with respect to the fan .
A liquid laundry detergent composition comprising C16 and C18 alkyl ether sulphate surfactant wherein the C18 alkyl ether sulphate surfactant comprises monounsaturated C18 and wherein the proportion of monounsaturated C18 constitutes at least 50% wt. of the total C16 and C18 alkyl ether sulphate surfactant and wherein the C16 alkyl ether sulphate surfactant comprises at least 4% of the total C16 and C18 alkyl ether sulphate surfactant.
An anti-bacterial fiber comprising: an ultra-high molecular weight polyethylene structure ; and an anti-bacterial low-density polyethylene, LDPE, , wherein the anti-bacterial LDPE comprises polyhexamethylene guanidine, PHMG, grafted to a LDPE structure, wherein the ultra-high molecular weight polyethylene structure and the anti-bacterial LDPE are combined together to form the anti-bacterial fiber . an ultra-high molecular weight polyethylene structure ; and an anti-bacterial low-density polyethylene, LDPE, , wherein the anti-bacterial LDPE comprises polyhexamethylene guanidine, PHMG, grafted to a LDPE structure, wherein the ultra-high molecular weight polyethylene structure and the anti-bacterial LDPE are combined together to form the anti-bacterial fiber .
A method for controlling real world objects (2, 2a-f) in an industrial installation , the method being performed in a server node and comprising the steps of: receiving , in a connection server module , a connection establishment request comprising a user identity; authenticating , in the connection server module , the user identity; establishing , in the connection server module , a connection and associating the connection with the user identity, only when the authentication is successful; receiving , in the connection server module , a service request on the established connection, wherein the service request comprises a reference to an aspect object and a reference to an aspect of the aspect object, wherein the aspect object is a software object representing one of the real world objects (2, 2a-f), and the aspect defines an operation associated with the real world object; forwarding , in the connection server module , the service request and the user identity to a service dispatcher module ; determining , in the service dispatcher module , a target service provider from the reference to the aspect; and sending , in the service dispatcher module , the service request and the user identity to the target service provider. receiving , in a connection server module , a connection establishment request comprising a user identity; authenticating , in the connection server module , the user identity; establishing , in the connection server module , a connection and associating the connection with the user identity, only when the authentication is successful; receiving , in the connection server module , a service request on the established connection, wherein the service request comprises a reference to an aspect object and a reference to an aspect of the aspect object, wherein the aspect object is a software object representing one of the real world objects (2, 2a-f), and the aspect defines an operation associated with the real world object; forwarding , in the connection server module , the service request and the user identity to a service dispatcher module ; determining , in the service dispatcher module , a target service provider from the reference to the aspect; and sending , in the service dispatcher module , the service request and the user identity to the target service provider.
A method performed by a base station for operating a data throughput counter in a wireless communications network , the method comprising: - determining a number of data throughput values over a determined period of time, wherein each determined data throughput value represents the data throughput associated with data transferred during a Radio Resource Connection, RRC, connection or part thereof; - incrementing the data throughput counter based on those determined throughput values for which the amount of data transferred is above a first threshold value, and/or for which the transport time of said amount of data is above a second threshold value; and - determining a characteristic total throughput value based on the output of the data throughput counter, wherein the characteristic total throughput value comprises any one of an average value, a median value or a percentile value. - determining a number of data throughput values over a determined period of time, wherein each determined data throughput value represents the data throughput associated with data transferred during a Radio Resource Connection, RRC, connection or part thereof; - incrementing the data throughput counter based on those determined throughput values for which the amount of data transferred is above a first threshold value, and/or for which the transport time of said amount of data is above a second threshold value; and - determining a characteristic total throughput value based on the output of the data throughput counter, wherein the characteristic total throughput value comprises any one of an average value, a median value or a percentile value.
A method comprising: identifying a first language and a second language; receiving an initial message in the first language from a first person at a first chat client system who communicates in the first language; querying a data store for a first corresponding message in the second language, the first corresponding message being based on the initial message in the first language, wherein it is determined if a corresponding message is found in the data store ; if the data store includes the first corresponding message, then assisting in sending the first corresponding message to a second person at a second chat client system who communicates in the second language; if the data store does not include the first corresponding message, then: utilizing a transformation engine to attempt to transform at least a portion of the initial message to a transformed message in the first language, and querying the data store for a second corresponding message in the second language, the second corresponding message being based on the transformed message in the first language. identifying a first language and a second language; receiving an initial message in the first language from a first person at a first chat client system who communicates in the first language; querying a data store for a first corresponding message in the second language, the first corresponding message being based on the initial message in the first language, wherein it is determined if a corresponding message is found in the data store ; if the data store includes the first corresponding message, then assisting in sending the first corresponding message to a second person at a second chat client system who communicates in the second language; if the data store does not include the first corresponding message, then: utilizing a transformation engine to attempt to transform at least a portion of the initial message to a transformed message in the first language, and querying the data store for a second corresponding message in the second language, the second corresponding message being based on the transformed message in the first language. utilizing a transformation engine to attempt to transform at least a portion of the initial message to a transformed message in the first language, and querying the data store for a second corresponding message in the second language, the second corresponding message being based on the transformed message in the first language.
An ultrasonic surgical instrument , comprising: - -an end effector configured to actuate from a first configuration to a second configuration, including: -an ultrasonic blade configured to apply ultrasonic energy to tissue, and -an RF electrode configured to apply RF energy to tissue; - -a shaft assembly projecting proximally from the end effector; - -a body projecting proximally from the shaft assembly, wherein the body includes an energy input operatively connected to the ultrasonic blade; and - a controller operatively connected to the energy input and operatively connected to the ultrasonic blade and the RF electrode, wherein the controller is configured to direct application of ultrasonic and RF energies to tissue via the ultrasonic blade and the RF electrode, respectively, according to an initial phase, a power phase, and a termination phase, wherein the controller in the initial phase is configured to power the ultrasonic blade and the RF electrode to process the tissue to have a desired burst pressure , wherein the controller in the power phase is configured to power the ultrasonic blade and the RF electrode to seal the tissue , and wherein the controller in the termination phase is configured to power the ultrasonic blade and the RF electrode to verify that the tissue is sealed while inhibiting transection of the tissue . - -an end effector configured to actuate from a first configuration to a second configuration, including: -an ultrasonic blade configured to apply ultrasonic energy to tissue, and -an RF electrode configured to apply RF energy to tissue; -an ultrasonic blade configured to apply ultrasonic energy to tissue, and -an RF electrode configured to apply RF energy to tissue; - -a shaft assembly projecting proximally from the end effector; - -a body projecting proximally from the shaft assembly, wherein the body includes an energy input operatively connected to the ultrasonic blade; and - a controller operatively connected to the energy input and operatively connected to the ultrasonic blade and the RF electrode, wherein the controller is configured to direct application of ultrasonic and RF energies to tissue via the ultrasonic blade and the RF electrode, respectively, according to an initial phase, a power phase, and a termination phase, wherein the controller in the initial phase is configured to power the ultrasonic blade and the RF electrode to process the tissue to have a desired burst pressure , wherein the controller in the power phase is configured to power the ultrasonic blade and the RF electrode to seal the tissue , and wherein the controller in the termination phase is configured to power the ultrasonic blade and the RF electrode to verify that the tissue is sealed while inhibiting transection of the tissue .
A polymerizable composition comprising a polymerizable component, and a redox initiation system comprising: a) a transition metal complex that participates in a redox cycle; b) an oxidizing agent c) a photolabile reducing agent of the formula: where each of R 1 and R 2 are H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo is a photolabile group selected from o-nitrobenzyl groups and cumarin-4-yl methyl groups; each of R 3 and R 4 are independently H, an alkyl, an aryl comprising an ester, an ether, a urethane or a carbonate functional group; wherein upon exposure to actinic radiation, the photolabile group of the photolabile reducing agent is cleaved, thereby releasing the reducing agent and initiating a redox-initiated polymerization wherein the transition metal complex is of the formula: [ML p ] n+ A - , wherein M is a transition metal that participates in a redox cycle selected from Cu(II), Fe(II), Ru(II) and Co(II) L is a ligand, A- is an anion, n is the formal charge on the transition metal having a whole number value of 1 to 7, preferably 1 to 3, and p is the number of ligands on the transition metal having an number value of 1 to 9, preferably 1 to 2 and wherein the polymerizable component is an ethylenically unsaturated polymerizable monomer or oligomer. a) a transition metal complex that participates in a redox cycle; b) an oxidizing agent c) a photolabile reducing agent of the formula: where each of R 1 and R 2 are H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo is a photolabile group selected from o-nitrobenzyl groups and cumarin-4-yl methyl groups; each of R 3 and R 4 are independently H, an alkyl, an aryl comprising an ester, an ether, a urethane or a carbonate functional group; each of R 1 and R 2 are H, an alkyl, an aryl, or R Photo , with the proviso that at least one of R 1 and R 2 is R Photo ; R Photo is a photolabile group selected from o-nitrobenzyl groups and cumarin-4-yl methyl groups; each of R 3 and R 4 are independently H, an alkyl, an aryl comprising an ester, an ether, a urethane or a carbonate functional group; [ML p ] n+ A - , wherein M is a transition metal that participates in a redox cycle selected from Cu(II), Fe(II), Ru(II) and Co(II) L is a ligand, A- is an anion, n is the formal charge on the transition metal having a whole number value of 1 to 7, preferably 1 to 3, and p is the number of ligands on the transition metal having an number value of 1 to 9, preferably 1 to 2 and
Water-conducting household appliance , in particular a dishwasher, having a washing chamber formed by a washing container and a pivotably mounted door for washing items to be washed, a detector for detecting a presence of a living being in a defined area in front of the household appliance , the defined area comprising a movement radius of the pivotably mounted door , a door opening module for automatically opening the door , and a control device which is configured to actuate the door opening module in the event of an absence of a door opening request actuated by a user, wherein the door opening request by the user may be actuated by touching a predetermined sensor on a control panel of the household appliance , and in the event of a presence of a living being detected by the detector in the defined area in such a way that the automatic opening of the door is inhibited.
A gas turbine engine comprising: a catalytic reactor configured (i) to receive hydrogen fuel, (ii) to receive air containing oxygen, (iii) to catalytically react at least a portion of the oxygen in the air with at least a portion of the hydrogen in the hydrogen fuel to produce water, and (iv) to output diluent comprising the catalytically produced water; an air control valve fluidly coupled to the catalytic reactor to control the amount of air received by the catalytic reactor ; a controller configured to operate the air control valve , wherein the controller is configured to adjust the amount of air received by the catalytic reactor based on an operating condition of the gas turbine engine ; and a combustor including (a) a combustion chamber and (b) at least one nozzle that is fluidly coupled to the catalytic reactor to receive the diluent output by the catalytic reactor and configured to inject diluent into the combustion chamber . a catalytic reactor configured (i) to receive hydrogen fuel, (ii) to receive air containing oxygen, (iii) to catalytically react at least a portion of the oxygen in the air with at least a portion of the hydrogen in the hydrogen fuel to produce water, and (iv) to output diluent comprising the catalytically produced water; an air control valve fluidly coupled to the catalytic reactor to control the amount of air received by the catalytic reactor ; a controller configured to operate the air control valve , wherein the controller is configured to adjust the amount of air received by the catalytic reactor based on an operating condition of the gas turbine engine ; and a combustor including (a) a combustion chamber and (b) at least one nozzle that is fluidly coupled to the catalytic reactor to receive the diluent output by the catalytic reactor and configured to inject diluent into the combustion chamber .
A wireless communication system, comprising: a first base station device (3-1) and a second base station device (3-2), the first base station device (3-1) and the second base station device (3-2) performing a dual connect-with a terminal device (1-1) through a first cell and a second cell, respectively, wherein the first base station device (3-1) transmits to the second base station device (3-2) a dual connect request message regarding a change of a data path for user data of the terminal device (1-1), the second base station device (3-2) being to be added; receives, from the second base station device (3-2), a dual connect response message, the dual connect response message being a response to the dual connect request message; and transmits, to the terminal device (1-1), a configuration message, the configuration message including information for data transmission control for the second cell, characterized in that the first base station device (3-1) transmits, to a mobility management entity, a path change request message for the change of the data path. a first base station device (3-1) and a second base station device (3-2), the first base station device (3-1) and the second base station device (3-2) performing a dual connect-with a terminal device (1-1) through a first cell and a second cell, respectively, wherein the first base station device (3-1) transmits to the second base station device (3-2) a dual connect request message regarding a change of a data path for user data of the terminal device (1-1), the second base station device (3-2) being to be added; receives, from the second base station device (3-2), a dual connect response message, the dual connect response message being a response to the dual connect request message; and transmits, to the terminal device (1-1), a configuration message, the configuration message including information for data transmission control for the second cell, characterized in that the first base station device (3-1) transmits, to a mobility management entity, a path change request message for the change of the data path.