mhurhangee/patent-ind-claim-en huggingface dataset:
Coating device for coating of components with a coating agent, in particular for painting motor vehicle body components with a paint, with a) a printhead for applying the coating agent to the component, a1) wherein the printhead comprises several coating agent nozzles for application of the coating agent, a2) wherein the printhead comprises a plurality of nozzle valves for controlling the flow of coating agent through said individual coating agent nozzles, and b) a coating agent supply for supplying the printhead with the coating agent to be applied, b1) wherein the coating agent flows at a specific coating agent pressure (p) and a specific flow rate (Q) from the coating agent supply to the printhead , b2) wherein the coating agent supply has a coating agent pump with an adjustable delivery rate for conveying the coating agent, c) a control unit for setting the delivery rate of the coating agent pump , wherein the control unit determines the number of opened nozzle valves and sets the delivery rate of the coating agent pump as a function of the number of opened nozzle valves, characterized by d) a bypass line for bypassing the coating agent pump , and e) a bypass valve controlling the coating agent flow through the bypass line, in particular for rapid flushing. a) a printhead for applying the coating agent to the component, a1) wherein the printhead comprises several coating agent nozzles for application of the coating agent, a2) wherein the printhead comprises a plurality of nozzle valves for controlling the flow of coating agent through said individual coating agent nozzles, and a1) wherein the printhead comprises several coating agent nozzles for application of the coating agent, a2) wherein the printhead comprises a plurality of nozzle valves for controlling the flow of coating agent through said individual coating agent nozzles, and b) a coating agent supply for supplying the printhead with the coating agent to be applied, b1) wherein the coating agent flows at a specific coating agent pressure (p) and a specific flow rate (Q) from the coating agent supply to the printhead , b2) wherein the coating agent supply has a coating agent pump with an adjustable delivery rate for conveying the coating agent, b1) wherein the coating agent flows at a specific coating agent pressure (p) and a specific flow rate (Q) from the coating agent supply to the printhead , b2) wherein the coating agent supply has a coating agent pump with an adjustable delivery rate for conveying the coating agent, c) a control unit for setting the delivery rate of the coating agent pump , wherein the control unit determines the number of opened nozzle valves and sets the delivery rate of the coating agent pump as a function of the number of opened nozzle valves, d) a bypass line for bypassing the coating agent pump , and e) a bypass valve controlling the coating agent flow through the bypass line, in particular for rapid flushing.
An ultrasound probe having a plurality of piezoelectric elements arranged in an array, the plurality of piezoelectric elements outputting reception signals obtained through transmission and reception of an ultrasonic beam to an ultrasound diagnostic apparatus body, the ultrasound probe comprising: a printed board on which a plurality of connection conductors are formed for connecting between a plurality of drawn-out signal lines drawn out from the plurality of piezoelectric elements and a plurality of communication cables connected to the ultrasound diagnostic apparatus body, respectively; connection-conductor insulation layers formed on the printed board ; and a connection-conductor ground conductive layer formed on the printed board , characterized in that the connection-conductor insulation layers thoroughly surround respective peripheries of the plurality of connection conductors , the connection-conductor ground conductive layer thoroughly surrounds individual peripheries of the connection-conductor insulation layers , whereby the plurality of connection conductors are shielded from one another, a plurality of guide grooves are formed on a surface of the printed board and extend so as to correspond to the plurality of connection conductors , and the plurality of connection conductors thoroughly surrounded by the connection-conductor insulation layers and the connection-conductor ground conductive layer are respectively disposed in the guide grooves . a printed board on which a plurality of connection conductors are formed for connecting between a plurality of drawn-out signal lines drawn out from the plurality of piezoelectric elements and a plurality of communication cables connected to the ultrasound diagnostic apparatus body, respectively; connection-conductor insulation layers formed on the printed board ; and a connection-conductor ground conductive layer formed on the printed board , characterized in that the connection-conductor insulation layers thoroughly surround respective peripheries of the plurality of connection conductors , the connection-conductor ground conductive layer thoroughly surrounds individual peripheries of the connection-conductor insulation layers , whereby the plurality of connection conductors are shielded from one another, a plurality of guide grooves are formed on a surface of the printed board and extend so as to correspond to the plurality of connection conductors , and the plurality of connection conductors thoroughly surrounded by the connection-conductor insulation layers and the connection-conductor ground conductive layer are respectively disposed in the guide grooves .
A wireless communication terminal communicating wirelessly, the terminal comprising: a transceiver ; and a processor , wherein the processor is configured to receive trigger information from a base wireless communication terminal using the transceiver , determine whether to aggregate one or more MPDUs requesting an immediate response to generate an Aggregate-MAC Protocol Data Unit, A-MPDU, based on the trigger information, generate the A-MPDU according to the determination, and transmit, according to the trigger information, a trigger-based physical layer protocol data unit, PPDU, including the A-MPDU to the base wireless communication terminal, characterized in that when the trigger information is included in a MAC header, the processor is configured to generate the A-MPDU not to include the one or more MPDUs requesting an immediate response. a transceiver ; and a processor , wherein the processor is configured to receive trigger information from a base wireless communication terminal using the transceiver , determine whether to aggregate one or more MPDUs requesting an immediate response to generate an Aggregate-MAC Protocol Data Unit, A-MPDU, based on the trigger information, generate the A-MPDU according to the determination, and transmit, according to the trigger information, a trigger-based physical layer protocol data unit, PPDU, including the A-MPDU to the base wireless communication terminal, characterized in that when the trigger information is included in a MAC header, the processor is configured to generate the A-MPDU not to include the one or more MPDUs requesting an immediate response.
An ultrasound diagnostic system comprising: a plurality of elements that are arranged around a test object and perform at least either emission or reception of ultrasound; a control unit that controls the plurality of elements such that at least one of the plurality of elements emits ultrasound and all or some of the plurality of elements receive scattered waves caused by the test object scattering the ultrasound; a data collection unit that collects measurement data, which are data obtained from the elements that have received the scattered waves; a calculation unit that calculates, for division regions into which an imaging region including all or a portion of the test object is divided, a scattered sound pressure intensity of each division region, which is the intensity of sound pressure of the scattered waves in the division region, on the basis of a first factor and a second factor of the division region, the first factor being constituted by arrival times which are each a period from emission to reception of ultrasound that is emitted from a predetermined element among the plurality of elements, scattered by the test object in the division region, and received by a corresponding one of all or some of the plurality of elements, the second factor being constituted by the measurement data; and an image generation unit that generates a scattering image, which is an image obtained by converting the scattered sound pressure intensity of each division region into a pixel value. a plurality of elements that are arranged around a test object and perform at least either emission or reception of ultrasound; a control unit that controls the plurality of elements such that at least one of the plurality of elements emits ultrasound and all or some of the plurality of elements receive scattered waves caused by the test object scattering the ultrasound; a data collection unit that collects measurement data, which are data obtained from the elements that have received the scattered waves; a calculation unit that calculates, for division regions into which an imaging region including all or a portion of the test object is divided, a scattered sound pressure intensity of each division region, which is the intensity of sound pressure of the scattered waves in the division region, on the basis of a first factor and a second factor of the division region, the first factor being constituted by arrival times which are each a period from emission to reception of ultrasound that is emitted from a predetermined element among the plurality of elements, scattered by the test object in the division region, and received by a corresponding one of all or some of the plurality of elements, the second factor being constituted by the measurement data; and an image generation unit that generates a scattering image, which is an image obtained by converting the scattered sound pressure intensity of each division region into a pixel value.
A food, comprising: a. nut butter in an amount of at least 50% by weight of the food; b. at least 25% protein by weight of the food, the protein including a powdered protein ingredient contributing at least 12% protein by weight of the food; c. a stabilizing fat in an amount of 14% to 22% by weight of the food, the stabilizing fat contributing lauric acid in an amount of 3% to 10% by weight of the food; and d. a powdered food ingredient in an amount of 8% to 25% by weight of the food; a., b., c. and d. providing a shelf stability of at least 60 days, a structure that facilitates spreadability, and a texture that exhibits a decrease in shear resistance at 37° C relative to 21° C. a. nut butter in an amount of at least 50% by weight of the food; b. at least 25% protein by weight of the food, the protein including a powdered protein ingredient contributing at least 12% protein by weight of the food; c. a stabilizing fat in an amount of 14% to 22% by weight of the food, the stabilizing fat contributing lauric acid in an amount of 3% to 10% by weight of the food; and d. a powdered food ingredient in an amount of 8% to 25% by weight of the food; a., b., c. and d. providing a shelf stability of at least 60 days, a structure that facilitates spreadability, and a texture that exhibits a decrease in shear resistance at 37° C relative to 21° C.
A method performed by a User Equipment, UE, to assist a base station serving a serving cell of the UE in a wireless communication network with automatic neighbor relation, comprising: • receiving , from the base station , reference signal configurations for a plurality of cells and a measurement report triggering criterion, wherein: ∘ the reference signal configurations are configurations for reference signals to be used by the UE for radio resource management, RRM, measurement reporting for the plurality of cells ; and ∘ the measurement report triggering criterion is related to detection, by the UE , of an unknown cell while performing measurements in accordance with the reference signal configurations for the plurality of cells , where an unknown cell is a cell other than the plurality of cells for which the UE has received the reference signal configurations; • detecting (204-206, 304-306) an unknown cell while performing measurements in accordance with the reference signal configurations; and • sending a report for the unknown cell to the base station in accordance with the measurement report triggering criterion. • receiving , from the base station , reference signal configurations for a plurality of cells and a measurement report triggering criterion, wherein: ∘ the reference signal configurations are configurations for reference signals to be used by the UE for radio resource management, RRM, measurement reporting for the plurality of cells ; and ∘ the measurement report triggering criterion is related to detection, by the UE , of an unknown cell while performing measurements in accordance with the reference signal configurations for the plurality of cells , where an unknown cell is a cell other than the plurality of cells for which the UE has received the reference signal configurations; ∘ the reference signal configurations are configurations for reference signals to be used by the UE for radio resource management, RRM, measurement reporting for the plurality of cells ; and ∘ the measurement report triggering criterion is related to detection, by the UE , of an unknown cell while performing measurements in accordance with the reference signal configurations for the plurality of cells , where an unknown cell is a cell other than the plurality of cells for which the UE has received the reference signal configurations; • detecting (204-206, 304-306) an unknown cell while performing measurements in accordance with the reference signal configurations; and • sending a report for the unknown cell to the base station in accordance with the measurement report triggering criterion.
A method for supporting dynamic deployment of executable code from a client to a node for execution of an agent on the node , implemented as a Java virtual machine, in a distributed computing environment, characterized in that the method comprises: maintaining a class/identity table on said client; receiving agent code on the client for said agent; determining a class definition for a new class from said agent code on the client; generating a class identity for said new class based on the class definition; using the class/identity table to determine that said new class is not present in the class path of the node; adding the class identity for said new class to the class/identity table; generating on said client a serialized object comprising the class definition for the new class not present in the class path of the node and the captured state of the agent utilizing said new class, wherein the captured agent state is the agent state required to construct an instance of the agent on the node; and transmitting said serialized object to the node; receiving at the node the serialized object from the client; deserializing the serialized object on the node to retrieve said class definition for said new class and said captured state of the agent; using said class definition for said new class and said captured state of the agent on the node to prepare a class loader for the new class definition; loading the new class definition into the memory of the node, using said class loader, to generate an instance of said new class on the node; and executing the agent on the node. maintaining a class/identity table on said client; receiving agent code on the client for said agent; determining a class definition for a new class from said agent code on the client; generating a class identity for said new class based on the class definition; using the class/identity table to determine that said new class is not present in the class path of the node; adding the class identity for said new class to the class/identity table; generating on said client a serialized object comprising the class definition for the new class not present in the class path of the node and the captured state of the agent utilizing said new class, wherein the captured agent state is the agent state required to construct an instance of the agent on the node; and transmitting said serialized object to the node; receiving at the node the serialized object from the client; deserializing the serialized object on the node to retrieve said class definition for said new class and said captured state of the agent; using said class definition for said new class and said captured state of the agent on the node to prepare a class loader for the new class definition; loading the new class definition into the memory of the node, using said class loader, to generate an instance of said new class on the node; and executing the agent on the node.
A method for displaying a hierarchical toolbar page in a toolbar tile on an electronic screen comprising: a. displaying a given toolbar page in the toolbar tile , the given toolbar page including a first hierarchical toolbar item that includes a hierarchical indicator ; b. receiving a user input requesting display of a submenu page of the toolbar page, the submenu page associated with the first hierarchical toolbar item ; c. replacing the given toolbar page in the toolbar tile with the submenu page ; d. receiving a user input selecting a second hierarchical toolbar item from the submenu page ; and e. redisplaying the given toolbar page in the toolbar tile with the second hierarchical toolbar item replacing the first hierarchical toolbar item . a. displaying a given toolbar page in the toolbar tile , the given toolbar page including a first hierarchical toolbar item that includes a hierarchical indicator ; b. receiving a user input requesting display of a submenu page of the toolbar page, the submenu page associated with the first hierarchical toolbar item ; c. replacing the given toolbar page in the toolbar tile with the submenu page ; d. receiving a user input selecting a second hierarchical toolbar item from the submenu page ; and e. redisplaying the given toolbar page in the toolbar tile with the second hierarchical toolbar item replacing the first hierarchical toolbar item .
A PBAT resin composition characterized by comprising the following components: (a) Poly (butyleneadipate-co-terephthalate); (b) a cyclic esterified product having a structure represented by the formula (I) Wherein the content by weight of the cyclic esterified product is from 10 ppm to 2000 ppm, based on the total weight of the PBAT resin composition, wherein the content by weight of the cyclic esterified product is measured by the following method: Weigh accurately 1.2000 g of the PBAT resin composition, put it into a 25 ml volumetric flask, dissolve it by chloroform, dilute it to 25ml after the PBAT resin composition is completely dissolved, measure the peak area of the cyclic esterified product in the above solution by GC-MS, calculate the content of the cyclic esterified product of the PBAT resin composition according to the peak area of the cyclic esterified product and the cyclic esterification standard curve, which may be calibrated by the cyclic esterified product / chloroform solution. (a) Poly (butyleneadipate-co-terephthalate); (b) a cyclic esterified product having a structure represented by the formula (I) Wherein the content by weight of the cyclic esterified product is from 10 ppm to 2000 ppm, based on the total weight of the PBAT resin composition, wherein the content by weight of the cyclic esterified product is measured by the following method: Weigh accurately 1.2000 g of the PBAT resin composition, put it into a 25 ml volumetric flask, dissolve it by chloroform, dilute it to 25ml after the PBAT resin composition is completely dissolved, measure the peak area of the cyclic esterified product in the above solution by GC-MS, calculate the content of the cyclic esterified product of the PBAT resin composition according to the peak area of the cyclic esterified product and the cyclic esterification standard curve, which may be calibrated by the cyclic esterified product / chloroform solution.
An inorganic colloidal particle comprising an initial inorganic nanosheet partially or totally covered by at least one layer of inorganic material, wherein the initial nanosheet and the at least one layer partially or totally covering the initial nanosheet are made of at least two different materials, and wherein the colloidal particle is selected from CdSe/CdS, CdSe/CdTe, CdSe/Cd y Zn 1-y S, CdS/ZnS, CdSe x S 1-x /Cd y Zn 1-y S, CdTe/Cd y Zn 1-y Se x S 1-x , CdTe/CdSe, or CdSe/ZnO, x and y being decimal numbers ranging from 0 to 1 independently, characterized in that the lateral dimensions of the initial nanosheet represent at least 3 times the thickness of the initial nanosheet.
An aerosol-generating article for use in an aerosol-generating system, the aerosol-generating article comprising: a storage portion having an outlet; an aerosol-forming substrate, the aerosol-forming substrate being contained within the storage portion ; and a vaporisable barrier configured to seal the outlet, wherein the vaporisable barrier comprises one or more polymers, and wherein the vaporisable barrier has a polymer content of greater than or equal to 1 percent by weight, wherein the vaporisable barrier is configured to be vaporised during a first heating cycle of the aerosol-generating article during first use of the aerosol-generating article in the aerosol-generating system, wherein the vaporisable barrier comprises one or more metal salts, wherein the one or more metal salts are selected from the group consisting of metal alginates, metal benzoates, metal cinnamates, metal cycloheptanecarboxylates, metal levulinates, metal propanoates, metal stearates and metal undecanoates, preferably wherein the vaporisable barrier comprises one or more metal stearates. a storage portion having an outlet; an aerosol-forming substrate, the aerosol-forming substrate being contained within the storage portion ; and a vaporisable barrier configured to seal the outlet, wherein the vaporisable barrier comprises one or more polymers, and wherein the vaporisable barrier has a polymer content of greater than or equal to 1 percent by weight, wherein the vaporisable barrier is configured to be vaporised during a first heating cycle of the aerosol-generating article during first use of the aerosol-generating article in the aerosol-generating system, wherein the vaporisable barrier comprises one or more metal salts, wherein the one or more metal salts are selected from the group consisting of metal alginates, metal benzoates, metal cinnamates, metal cycloheptanecarboxylates, metal levulinates, metal propanoates, metal stearates and metal undecanoates, preferably wherein the vaporisable barrier comprises one or more metal stearates.