mhurhangee/ep-ind-claims huggingface dataset:
A thermally conductive sheet comprising, as a main component, an acrylic polymer into which a thermally conductive filler is mixed, wherein an inner layer or one side of the sheet is a solventless, adhesive elastic product, and a cured thin film layer is formed integrally with a surface layer portion on at least one selected from top and bottom surfaces of the sheet, and a sheet-like reinforcing material is further embedded in the surface layer portion on said one of the top and bottom surfaces of the sheet, characterized in that: the thermally conductive sheet has a thickness in the range from 0.10 to 10 mm, and the cured thin film layer has a thickness in the range from 0.001 to 0.50 mm, and a portion of the sheet that constitutes the inner layer or one side has a viscosity in the range from 1 × 10 to 3 × 10 3 Pa. s (1 × 10 4 to 3 × 10 6 cP), and in the thermally conductive sheet, the thermally conductive filler in the range from 50 to 3000 g (50 to 3000 parts by mass) per 100 g (100 parts by mass) of the acrylic polymer is mixed, and the thermally conductive sheet has a thermal conductivity of 0.5 to 5.0 W/m K, and the thermally conductive, cured thin film layer has a thermal conductivity of 0.20 to 2.5 W/m K, and the main component acrylic polymer into which the thermally conductive filler is mixed has an ASKER C hardness in the range from 5 to 95, after curing the sheet, and the sheet-like reinforcing material is embedded at a depth in the range from more than 0 mm to 1.00 mm from the surface, and the sheet has a thickness of 0.10 mm to 10.0 mm. the thermally conductive sheet has a thickness in the range from 0.10 to 10 mm, and the cured thin film layer has a thickness in the range from 0.001 to 0.50 mm, and a portion of the sheet that constitutes the inner layer or one side has a viscosity in the range from 1 × 10 to 3 × 10 3 Pa. s (1 × 10 4 to 3 × 10 6 cP), and in the thermally conductive sheet, the thermally conductive filler in the range from 50 to 3000 g (50 to 3000 parts by mass) per 100 g (100 parts by mass) of the acrylic polymer is mixed, and the thermally conductive sheet has a thermal conductivity of 0.5 to 5.0 W/m K, and the thermally conductive, cured thin film layer has a thermal conductivity of 0.20 to 2.5 W/m K, and the main component acrylic polymer into which the thermally conductive filler is mixed has an ASKER C hardness in the range from 5 to 95, after curing the sheet, and the sheet-like reinforcing material is embedded at a depth in the range from more than 0 mm to 1.00 mm from the surface, and the sheet has a thickness of 0.10 mm to 10.0 mm.
A method for predicting the risk of mortality in a subject who does not show overt signs of heart failure said method comprising the steps of a) determining, in a sample from said subject, the amount of IGFBP7, and b) comparing the amount as determined in step a) to a reference amount, whereby the risk of mortality in said subject is predicted. a) determining, in a sample from said subject, the amount of IGFBP7, and b) comparing the amount as determined in step a) to a reference amount, whereby the risk of mortality in said subject is predicted.
A circuit for a GPS, Global Positioning System, receiver comprising: N antenna elements, each element adapted to output first and second signals on respective first and second channels, said first and second signals having first and second polarizations respectively, said second polarization being orthogonal to said first polarization; a network for individually weighting said first and second signals output by the antenna element with first and second weights respectively; and a controller configured to: provide a reference weight to one of the plurality of channels to designate a reference channel; generate weights to steer a null in the direction of a jammer and provide them to the plurality of channels and designate another of the plurality of channels as the reference channel when the weight provided to the channel gets to the reference weight. N antenna elements, each element adapted to output first and second signals on respective first and second channels, said first and second signals having first and second polarizations respectively, said second polarization being orthogonal to said first polarization; a network for individually weighting said first and second signals output by the antenna element with first and second weights respectively; and a controller configured to: provide a reference weight to one of the plurality of channels to designate a reference channel; generate weights to steer a null in the direction of a jammer and provide them to the plurality of channels and designate another of the plurality of channels as the reference channel when the weight provided to the channel gets to the reference weight. provide a reference weight to one of the plurality of channels to designate a reference channel; generate weights to steer a null in the direction of a jammer and provide them to the plurality of channels and designate another of the plurality of channels as the reference channel when the weight provided to the channel gets to the reference weight.
Home automation control device comprising: - receiving means configured to receive at least one control command contained in a first data container, - sending means configured to transmit at least one infrared transmission command contained in a second data container, - communication means configured to receive at least one conversion table (32, 34) containing device-specific infrared transmission commands, and - conversion means configured to determine the control command from the first data container, convert the determined control command into a corresponding infrared transmission command in accordance with the conversion table and to package this infrared transmission command into the second data container, characterised in that a control command can be configured by a user in the conversion table to assign it to an infrared transmission command inside the conversion means. - receiving means configured to receive at least one control command contained in a first data container, - sending means configured to transmit at least one infrared transmission command contained in a second data container, - communication means configured to receive at least one conversion table (32, 34) containing device-specific infrared transmission commands, and - conversion means configured to determine the control command from the first data container, convert the determined control command into a corresponding infrared transmission command in accordance with the conversion table and to package this infrared transmission command into the second data container,
A plasma processing method comprising: mounting a target substrate on a first electrode positioned within an evacuable processing chamber; generating plasma by exciting a processing gas within the processing chamber; applying to the first electrode a first high frequency power and a second high frequency power each having a different frequency in order to attract ions from the plasma toward the substrate; and performing a plasma process on the substrate by the plasma, adjusting the power ratio of the first and second high frequency power in order to control the minimum energy and the maximum energy of the energy distribution of the ions incident onto the substrate, characterized in that a total power of the first and second high frequency power is variably controlled to independently control the minimum and maximum energy and to optimize at least one process characteristics which is dependent on the energy of ions incident onto the substrate. mounting a target substrate on a first electrode positioned within an evacuable processing chamber; generating plasma by exciting a processing gas within the processing chamber; applying to the first electrode a first high frequency power and a second high frequency power each having a different frequency in order to attract ions from the plasma toward the substrate; and performing a plasma process on the substrate by the plasma, adjusting the power ratio of the first and second high frequency power in order to control the minimum energy and the maximum energy of the energy distribution of the ions incident onto the substrate, characterized in that a total power of the first and second high frequency power is variably controlled to independently control the minimum and maximum energy and to optimize at least one process characteristics which is dependent on the energy of ions incident onto the substrate.
A method comprising: establishing a session between an access network (104; 304) and user equipment of a communication system (100; 300); transmitting, in conjunction with establishment of said session, session-specific information from the access network (104; 304) to the user equipment; wherein the session-specific information transmitted from the access network to the user equipment comprises information to be utilized in an authentication protocol carried out between the user equipment and an authentication server (108; 308) of the communication system (100; 300); and wherein the access network (104; 304) is associated with a communication network of a first type and the authentication server (108; 308) is associated with a communication network of a second type different than the first type, CHARACTERIZED IN THAT the access network (104; 304) uses a StorageBLOB Assignment message to convey the session-specific information to the user equipment, the session-specific information comprising an identifier of a gateway (106; 322; 306) coupled between the access network (104; 304) and the authentication server (108; 308). establishing a session between an access network (104; 304) and user equipment of a communication system (100; 300); transmitting, in conjunction with establishment of said session, session-specific information from the access network (104; 304) to the user equipment; wherein the session-specific information transmitted from the access network to the user equipment comprises information to be utilized in an authentication protocol carried out between the user equipment and an authentication server (108; 308) of the communication system (100; 300); and wherein the access network (104; 304) is associated with a communication network of a first type and the authentication server (108; 308) is associated with a communication network of a second type different than the first type, CHARACTERIZED IN THAT the access network (104; 304) uses a StorageBLOB Assignment message to convey the session-specific information to the user equipment, the session-specific information comprising an identifier of a gateway (106; 322; 306) coupled between the access network (104; 304) and the authentication server (108; 308).
An in-cylinder fuel injection engine for injecting fuel directly into a cylinder, comprising: a cavity provided on a top surface of a piston on an intake side; and a fuel injector for forming two fuel spray blocks, a first fuel spray block and a second fuel spray block; characterized by: injection timing control means for controlling an injection timing so as to direct said first fuel spray block to said cavity and to direct said second fuel spray block to said top surface of said piston outside of said cavity, when said piston is during the intake stroke and positioned at a specified crank angle after top dead center on a bottom dead center side, and for controlling said injection timing so as to direct both of said first and second fuel spray blocks (F1, F2) to said cavity, when said piston is at a latter stage of the compression stroke. a cavity provided on a top surface of a piston on an intake side; and a fuel injector for forming two fuel spray blocks, a first fuel spray block and a second fuel spray block; characterized by: injection timing control means for controlling an injection timing so as to direct said first fuel spray block to said cavity and to direct said second fuel spray block to said top surface of said piston outside of said cavity, when said piston is during the intake stroke and positioned at a specified crank angle after top dead center on a bottom dead center side, and for controlling said injection timing so as to direct both of said first and second fuel spray blocks (F1, F2) to said cavity, when said piston is at a latter stage of the compression stroke.
A camming device comprising a head on which is carried a plurality of pivotable cam elements that can pivot between an extended position and a withdrawn position, a trigger operable to pivot the cam elements towards the withdrawn position, and a stem connected to the head, the stem having a first and a second portion, an end part of the first portion being secured to the head, and the second portion having two branches that are secured to a common termination component at spaced-apart locations in which the first portion comprises a single tensile member or a plurality of tensile members that extend in contact with one another characterised in that an end portion of each of the branches of the second portion is retained by the termination component, the branches extending through respective bores in the termination component, each branch carrying blocking means that cannot pass through at least part of the bore.
A computer-implemented method for dynamically and proactively scanning a computing environment for application misconfiguration security threats, the method comprising: identifying, by scanning applications of a network device, an application of the network device, the application configured for network communications; analyzing a network security configuration of the application, the analyzing including accessing at least one of a list of network addresses or a source code of the application; identifying, based on the analyzing, in the list of network addresses or the source code, a target network address that the application is configured to use to redirect the network device to a target network resource; comparing the target network address to a whitelist of trusted target network addresses; assessing, based on the comparing, whether the network security configuration is misconfigured; and determining, based on the assessment, whether to provide a configuration validation status for the application. identifying, by scanning applications of a network device, an application of the network device, the application configured for network communications; analyzing a network security configuration of the application, the analyzing including accessing at least one of a list of network addresses or a source code of the application; identifying, based on the analyzing, in the list of network addresses or the source code, a target network address that the application is configured to use to redirect the network device to a target network resource; comparing the target network address to a whitelist of trusted target network addresses; assessing, based on the comparing, whether the network security configuration is misconfigured; and determining, based on the assessment, whether to provide a configuration validation status for the application.
Laundry care appliance with a laundry drum for holding laundry, a drum drive for rotating the laundry drum, with a torque detection facility for detecting a torque of the laundry drum and a controller for controlling the drum drive, characterised in that the controller is configured to control the drum drive during a rotation period, in order to rotate the laundry drum at a first rotation speed, if the detected torque is below a torque threshold value, and the controller is configured to control the drum drive during the rotation period, in order to rotate the laundry drum at a second rotation speed, if the detected torque exceeds the torque threshold value, wherein the second rotation speed is slower than the first rotation speed and wherein the controller is configured to control the second rotation speed as a function of the detected torque of the laundry drum, in order to prevent damage to the laundry in the laundry drum.
A computer-implemented method for determining trajectory of a ball used for an athletic activity, the method comprising: sensing first magnetic field data and first acceleration data at a first time, using a sensor module coupled to the ball; determining an orientation of the ball at the first time, based on the first magnetic field data and first acceleration data; sensing second magnetic field data and second acceleration data at a second time, using the sensor module; determining an orientation and an acceleration direction of the ball at the second time, based on the second magnetic field data and second acceleration data; determining a trajectory of the ball at the second time, based on the orientation of the ball at the first time, and the orientation and the acceleration direction of the ball at the second time; characterized in that the method comprises determining a drag force applied to the ball, based on the acceleration data; comparing the drag force with a drag profile that expresses drag as a function of ball speed; and determining speed of the ball based on the comparison. sensing first magnetic field data and first acceleration data at a first time, using a sensor module coupled to the ball; determining an orientation of the ball at the first time, based on the first magnetic field data and first acceleration data; sensing second magnetic field data and second acceleration data at a second time, using the sensor module; determining an orientation and an acceleration direction of the ball at the second time, based on the second magnetic field data and second acceleration data; determining a trajectory of the ball at the second time, based on the orientation of the ball at the first time, and the orientation and the acceleration direction of the ball at the second time; characterized in that the method comprises determining a drag force applied to the ball, based on the acceleration data; comparing the drag force with a drag profile that expresses drag as a function of ball speed; and determining speed of the ball based on the comparison.
A method for use by a controller of a software-defined wide area network, SD-WAN, the method comprising: providing (330, 610) a first profile to a plurality of edge routers of the SD-WAN, the plurality of edge routers operable to interface a plurality of devices to the SD-WAN, wherein the first profile enables the plurality of edge routers to discover which devices of the plurality of devices support a first application; receiving (340, 620), from one or more of the edge routers, information indicating which devices of the plurality of devices support the first application; and building (350, 630) a first application fabric based on the information indicating which devices of the plurality of devices support the first application, wherein the first application fabric corresponds to a portion of the SD-WAN operable to communicate messages associated with the first application. providing (330, 610) a first profile to a plurality of edge routers of the SD-WAN, the plurality of edge routers operable to interface a plurality of devices to the SD-WAN, wherein the first profile enables the plurality of edge routers to discover which devices of the plurality of devices support a first application; receiving (340, 620), from one or more of the edge routers, information indicating which devices of the plurality of devices support the first application; and building (350, 630) a first application fabric based on the information indicating which devices of the plurality of devices support the first application, wherein the first application fabric corresponds to a portion of the SD-WAN operable to communicate messages associated with the first application.
A machine for wet manufacturing of tissue paper, comprising in combination: a Yankee cylinder comprising a cylindrical side surface, rotating around an axis thereof; a continuous flexible member comprising a first surface suitable to receive a layer of cellulose pulp, comprising cellulose fibers and water, and a second surface, opposite to the first surface; a first guide suction roller, around which the continuous flexible member is driven; wherein the second surface of the continuous flexible member is in contact with the first guide suction roller; wherein, in the area guided around said roller, the first surface of the continuous flexible member is spaced from the Yankee cylinder; and wherein the first guide suction roller is suitable to remove water from the layer of cellulose pulp through the continuous flexible member; a press formed by a first blind-drilled pressure roller around which the continuous flexible member is driven, arranged downstream of the first guide suction roller with respect to a feeding direction of the layer of cellulose pulp; wherein the first pressure roller and the Yankee cylinder define a first pressure nip, inside which the continuous flexible member is pressed by means of the first pressure roller against the cylindrical surface of the Yankee cylinder; and wherein the first pressure roller is suitable to remove water from the layer of cellulose pulp through the continuous flexible member; a heating device adapted to act on said continuous flexible member and arranged between said first guide suction roller and said first pressure roller. a Yankee cylinder comprising a cylindrical side surface, rotating around an axis thereof; a continuous flexible member comprising a first surface suitable to receive a layer of cellulose pulp, comprising cellulose fibers and water, and a second surface, opposite to the first surface; a first guide suction roller, around which the continuous flexible member is driven; wherein the second surface of the continuous flexible member is in contact with the first guide suction roller; wherein, in the area guided around said roller, the first surface of the continuous flexible member is spaced from the Yankee cylinder; and wherein the first guide suction roller is suitable to remove water from the layer of cellulose pulp through the continuous flexible member; a press formed by a first blind-drilled pressure roller around which the continuous flexible member is driven, arranged downstream of the first guide suction roller with respect to a feeding direction of the layer of cellulose pulp; wherein the first pressure roller and the Yankee cylinder define a first pressure nip, inside which the continuous flexible member is pressed by means of the first pressure roller against the cylindrical surface of the Yankee cylinder; and wherein the first pressure roller is suitable to remove water from the layer of cellulose pulp through the continuous flexible member; a heating device adapted to act on said continuous flexible member and arranged between said first guide suction roller and said first pressure roller.