mhurhangee/ep-ind-claims huggingface dataset:
An electronic pulse-generator circuit, comprising: an input node; a capacitor directly connected to said input node and to a pulse line; a first thin film transistor having a channel formed of a first polarity solution-processed semiconductor material, a first side of said channel directly connected to a first voltage source, a second side of said channel directly connected to said pulse line, said first thin film transistor configured to function as a diode; a second thin film transistor having a channel formed of said first polarity solution-processed semiconductor material, a first side of said channel directly connected to said pulse line, a second side of said channel directly connected to ground, said second thin film transistor configured to function as a resistor; a third thin film transistor having a channel formed of said first polarity solution-processed semiconductor material, a first side of said channel directly connected to said pulse line, a second side of said channel directly connected to said output node, and further comprising a gate directly connected to a first enable signal line; a fourth thin film transistor having a channel formed of said first polarity solution-processed semiconductor material, a first side of said channel directly connected to said pulse line at said output node, a second side of said channel directly connected to ground, and further comprising a gate directly connected to a second enable signal line; and an output node directly connected to a second side of said channel of said third thin film transistor to thereby receive a pulse from said pulse line via said third thin film transistor. an input node; a capacitor directly connected to said input node and to a pulse line; a first thin film transistor having a channel formed of a first polarity solution-processed semiconductor material, a first side of said channel directly connected to a first voltage source, a second side of said channel directly connected to said pulse line, said first thin film transistor configured to function as a diode; a second thin film transistor having a channel formed of said first polarity solution-processed semiconductor material, a first side of said channel directly connected to said pulse line, a second side of said channel directly connected to ground, said second thin film transistor configured to function as a resistor;
An optical sensor, comprising: at least one pixel, comprising: a photoactive region configured to convert photons into charge carriers, a first and a second modulation gate (121, 122) configured to be modulated for indirect time of flight measurement, a first and a second storage node (131, 132) arranged on opposite sides of the photoactive region, the first and second storage nodes (131, 132) being configured to pin electrons generated in the photoactive region when the first, respectively the second modulation gate (121, 122) is active, and a first field plate arranged next to the first storage node at a first lateral side of the pixel and a second field plate arranged next to the second storage node at an opposite second lateral side of the pixel, characterised in that the first and second field plates (141, 142) are configured to be supplied with a negative bias voltage such that the first and second field plates (141, 142) provide electrical isolation for the first, respectively the second storage node (131, 132). at least one pixel, comprising: a photoactive region configured to convert photons into charge carriers, a first and a second modulation gate (121, 122) configured to be modulated for indirect time of flight measurement, a first and a second storage node (131, 132) arranged on opposite sides of the photoactive region, the first and second storage nodes (131, 132) being configured to pin electrons generated in the photoactive region when the first, respectively the second modulation gate (121, 122) is active, and a first field plate arranged next to the first storage node at a first lateral side of the pixel and a second field plate arranged next to the second storage node at an opposite second lateral side of the pixel, characterised in that a photoactive region configured to convert photons into charge carriers, a first and a second modulation gate (121, 122) configured to be modulated for indirect time of flight measurement, a first and a second storage node (131, 132) arranged on opposite sides of the photoactive region, the first and second storage nodes (131, 132) being configured to pin electrons generated in the photoactive region when the first, respectively the second modulation gate (121, 122) is active, and a first field plate arranged next to the first storage node at a first lateral side of the pixel and a second field plate arranged next to the second storage node at an opposite second lateral side of the pixel, characterised in that the first and second field plates (141, 142) are configured to be supplied with a negative bias voltage such that the first and second field plates (141, 142) provide electrical isolation for the first, respectively the second storage node (131, 132).
A cathode for a lithium secondary battery, comprising: a cathode current collector; and a cathode active material layer comprising a first cathode active material layer and a second cathode active material layer sequentially stacked on the cathode current collector, wherein the first cathode active material layer includes a first cathode active material particle having a secondary particle structure, and the second cathode active material layer includes a second cathode active material particle having a single particle shape, wherein a ratio of the adhesive force of the first cathode active material layer to the surface of the cathode current collector relative to the adhesive force of the second cathode active material layer to the surface of the first cathode active material layer is greater than 1 and less than or equal to 10, wherein the adhesive force of the first cathode active material layer to a surface of the cathode current collector is measured by peeling off the first cathode active material layer from the surface of the cathode current collector, and the adhesive force of the second cathode active material layer to a surface of the first cathode active material layer is measured by peeling off the second cathode active material layer from the surface of the first cathode active material layer. a cathode current collector; and a cathode active material layer comprising a first cathode active material layer and a second cathode active material layer sequentially stacked on the cathode current collector, wherein the first cathode active material layer includes a first cathode active material particle having a secondary particle structure, and the second cathode active material layer includes a second cathode active material particle having a single particle shape, wherein a ratio of the adhesive force of the first cathode active material layer to the surface of the cathode current collector relative to the adhesive force of the second cathode active material layer to the surface of the first cathode active material layer is greater than 1 and less than or equal to 10, wherein the adhesive force of the first cathode active material layer to a surface of the cathode current collector is measured by peeling off the first cathode active material layer from the surface of the cathode current collector, and the adhesive force of the second cathode active material layer to a surface of the first cathode active material layer is measured by peeling off the second cathode active material layer from the surface of the first cathode active material layer.
A foldable camera module (10, 31, 41) for a mobile terminal (30, 40, 60), comprising: a camera body (11, 21, 311, 411, 51) housed in a groove on an outer surface of the mobile terminal (30, 40, 60); a flexible cable (12, 22, 412, 52), wherein an end of the flexible cable (12, 22, 412, 52) is connected to the camera body (11, 21, 311, 411, 51), and the other end of the flexible cable (12, 22, 412, 52) is connected to a circuit board inside the mobile terminal (30, 40, 60); a fixing member (13, 23, 413, 53) connected to the flexible cable and configured to fix the camera body; characterized in that the fixing member (13, 23, 413, 53) comprises: a locking member (231, 531) disposed on the camera body (11, 21, 311, 411, 51) and provided with a buckle (2311, 5311); and a folding member (232, 532) disposed on a middle part of the flexible cable (12, 22, 412, 52) and provided with a clamping slot (2321, 5321) matching the buckle (2311, 5311); wherein the camera body (11, 21, 311, 411, 51) and the locking member (231, 531) are folded in a predetermined direction by a section of the flexible cable (12, 22, 412, 52) between the locking member (231, 531) and the folding member (232, 532); and when the camera body (11, 21, 311, 411, 51) is folded away from the groove to a predetermined position, the buckle (2311, 5311) is engaged with the clamping slot (2321, 5321), thereby fixing the camera body (11, 21, 311, 411, 51) to the predetermined position. a camera body (11, 21, 311, 411, 51) housed in a groove on an outer surface of the mobile terminal (30, 40, 60); a flexible cable (12, 22, 412, 52), wherein an end of the flexible cable (12, 22, 412, 52) is connected to the camera body (11, 21, 311, 411, 51), and the other end of the flexible cable (12, 22, 412, 52) is connected to a circuit board inside the mobile terminal (30, 40, 60); a fixing member (13, 23, 413, 53) connected to the flexible cable and configured to fix the camera body; characterized in that the fixing member (13, 23, 413, 53) comprises: a locking member (231, 531) disposed on the camera body (11, 21, 311, 411, 51) and provided with a buckle (2311, 5311); and a folding member (232, 532) disposed on a middle part of the flexible cable (12, 22, 412, 52) and provided with a clamping slot (2321, 5321) matching the buckle (2311, 5311); wherein the camera body (11, 21, 311, 411, 51) and the locking member (231, 531) are folded in a predetermined direction by a section of the flexible cable (12, 22, 412, 52) between the locking member (231, 531) and the folding member (232, 532); and when the camera body (11, 21, 311, 411, 51) is folded away from the groove to a predetermined position, the buckle (2311, 5311) is engaged with the clamping slot (2321, 5321), thereby fixing the camera body (11, 21, 311, 411, 51) to the predetermined position.
A system comprising: a third-party server comprising one or more processors and memory, the memory storing computer code comprising instructions, the instructions, when executed by the one or more processors, cause the one or more processors to at least: receive, by the third-party server from a named entity device, a request for a session token for the named entity device to communicate with an application programming interface, API, the API associated with a domain; obtain, by the third-party server, the session token from the API; and encrypt, by the third-party server, the session token with a public key corresponding to the named entity device to generate an encrypted session token; and a domain name system, DNS, associated with the domain, the DNS configured to receive the encrypted session token and publish a DNS record at a namespace of the DNS, the DNS record containing the encrypted session token for the named entity device to retrieve the session token. a third-party server comprising one or more processors and memory, the memory storing computer code comprising instructions, the instructions, when executed by the one or more processors, cause the one or more processors to at least: receive, by the third-party server from a named entity device, a request for a session token for the named entity device to communicate with an application programming interface, API, the API associated with a domain; obtain, by the third-party server, the session token from the API; and encrypt, by the third-party server, the session token with a public key corresponding to the named entity device to generate an encrypted session token; and receive, by the third-party server from a named entity device, a request for a session token for the named entity device to communicate with an application programming interface, API, the API associated with a domain; obtain, by the third-party server, the session token from the API; and encrypt, by the third-party server, the session token with a public key corresponding to the named entity device to generate an encrypted session token; and a domain name system, DNS, associated with the domain, the DNS configured to receive the encrypted session token and publish a DNS record at a namespace of the DNS, the DNS record containing the encrypted session token for the named entity device to retrieve the session token.
A computer-implemented method for determining the presence of a coronary stenosis in a patient, comprising: - a step of receiving multiplanar curved or stretched medical computed tomography images including the coronary stenosis of said patient, said images including representations of the coronary stenosis viewed under different angles; - a step of detecting said coronary stenosis in said images or in a portion of said images by using a first trained deep neural network configured to read said images; - a step of predicting a value interval of fractional flow reserve by using a second trained deep neural network applied directly to said detected images or detected image portions. - a step of receiving multiplanar curved or stretched medical computed tomography images including the coronary stenosis of said patient, said images including representations of the coronary stenosis viewed under different angles; - a step of detecting said coronary stenosis in said images or in a portion of said images by using a first trained deep neural network configured to read said images; - a step of predicting a value interval of fractional flow reserve by using a second trained deep neural network applied directly to said detected images or detected image portions.
An article comprising a unitary polishing pad for polishing a substrate, said pad comprising a first region of a polishing surface and a second region of the polishing surface; wherein the first region is composed of a first polymer, the second region is composed of a second polymer, the first polymer and the second polymer having a property that differs, characterized in that a boundary of the first and second regions comprises a mixture of the first and second polymers in regions proximate to and on either side of the boundary.
A photosensitive microcapsule comprising a. a core material comprising a benefit agent; and b. a shell comprising a photosensitive polymer; wherein the photosensitive polymer comprises a photosensitive moiety comprising a structure selected from the group consisting of and combinations thereof; wherein R 5 is selected from alkyl, substituted alkyl, alkoxy, substituted alkoxy, carboxy, carboxyl, substituted carboxyl, aryl, substituted aryl, or is a carbon atom of a polymer backbone; wherein R 6 and R 9 comprise a 1,3 dione moiety. a. a core material comprising a benefit agent; and b. a shell comprising a photosensitive polymer; wherein R 5 is selected from alkyl, substituted alkyl, alkoxy, substituted alkoxy, carboxy, carboxyl, substituted carboxyl, aryl, substituted aryl, or is a carbon atom of a polymer backbone; wherein R 6 and R 9 comprise a 1,3 dione moiety.
A method for reducing power consumption by an application processor of a terminal, the method comprising: determining whether an operation switch condition for switching to a sleep mode is satisfied, wherein the operation switch condition is satisfied by one of (i) when a remaining power of a battery of the terminal is less than a threshold or (ii) when a user input has not been inputted for at least a preset time; sending a request for execution of a context recognition function to a micro control unit based on determining that the operation switch condition is satisfied; switching the application processor to the sleep mode; executing the context recognition function in the micro-control unit to receive sensor data from at least one sensor at preset time intervals, and updating state information; based on a re-switch condition for switching from the sleep mode to the operation mode, switching the application processor to an operation mode; wherein the re-switch condition is satisfied by one of (i) when an expected error range of the state information exceeds a threshold or (ii) when a previously stored threshold time has elapsed since switching to the sleep mode; Characterised by: sending the state information from the micro control unit to the application processor; and correcting an error in state information received from the micro control unit. determining whether an operation switch condition for switching to a sleep mode is satisfied, wherein the operation switch condition is satisfied by one of (i) when a remaining power of a battery of the terminal is less than a threshold or (ii) when a user input has not been inputted for at least a preset time; sending a request for execution of a context recognition function to a micro control unit based on determining that the operation switch condition is satisfied; switching the application processor to the sleep mode; executing the context recognition function in the micro-control unit to receive sensor data from at least one sensor at preset time intervals, and updating state information; based on a re-switch condition for switching from the sleep mode to the operation mode, switching the application processor to an operation mode; wherein the re-switch condition is satisfied by one of (i) when an expected error range of the state information exceeds a threshold or (ii) when a previously stored threshold time has elapsed since switching to the sleep mode; Characterised by: sending the state information from the micro control unit to the application processor; and correcting an error in state information received from the micro control unit. sending the state information from the micro control unit to the application processor; and correcting an error in state information received from the micro control unit.
A method, comprising: by a protocol converter, PC: receiving, via one or more communication interfaces, Extensible Markup Language, XML, data transmitted by an Application Function, AF, wherein the one or more communication interfaces are configured to provide a Diameter Protocol, DP, message for transmission to a Policy and Charging Rules Function, PCRF,, the PCRF included in a Diameter realm; and converting, via conversion logic, the XML data into the DP message, wherein the PC is configured to operate separately from the PCRF but within the Diameter realm in which the PCRF is disposed and characterized in that the method further comprises: providing, via an interface of the one or more communication interfaces, the DP message for transmission to the PCRF through a diameter routing agent, DRA, that is communicatively coupled with a plurality of PCRFs including the PCRF, and in that the PC is configured to convert XML elements and groups including groups for supported features, subscription, sponsored connectivity, media components, and granted service, wherein the granted service XML group is nested in the sponsored connectivity XML group according to an XML schema. by a protocol converter, PC: receiving, via one or more communication interfaces, Extensible Markup Language, XML, data transmitted by an Application Function, AF, wherein the one or more communication interfaces are configured to provide a Diameter Protocol, DP, message for transmission to a Policy and Charging Rules Function, PCRF,, the PCRF included in a Diameter realm; and converting, via conversion logic, the XML data into the DP message, receiving, via one or more communication interfaces, Extensible Markup Language, XML, data transmitted by an Application Function, AF, wherein the one or more communication interfaces are configured to provide a Diameter Protocol, DP, message for transmission to a Policy and Charging Rules Function, PCRF,, the PCRF included in a Diameter realm; and converting, via conversion logic, the XML data into the DP message, wherein the PC is configured to operate separately from the PCRF but within the Diameter realm in which the PCRF is disposed and characterized in that the method further comprises: providing, via an interface of the one or more communication interfaces, the DP message for transmission to the PCRF through a diameter routing agent, DRA, that is communicatively coupled with a plurality of PCRFs including the PCRF, and in that the PC is configured to convert XML elements and groups including groups for supported features, subscription, sponsored connectivity, media components, and granted service, wherein the granted service XML group is nested in the sponsored connectivity XML group according to an XML schema.
A valve controller for controlling a valve, the valve controller comprising: a position controller couplable to the valve and capable of driving the valve to a known position, the position controller including a position controller processor and a position controller memory; a transmitter coupled to the position controller via a communication link, the transmitter including a transmitter processor and a transmitter memory; a valve position sensor operatively couplable to the valve, the position controller, and the transmitter, wherein the valve position sensor provides a valve position sensor value indicating the position of the valve; a calibration table and/or chart including a correlation of a transmitter output value to the valve position sensor value, the correlation generated by the position controller processor executing an algorithm utilizing a calibration valve position sensor value attained by the valve position sensor during a calibration of the position controller in response to a calibration valve control signal driven by the position controller to initiate the calibration of the position controller; characterized in that the valve controller is configured to transmit a transmitter output signal from the transmitter, the transmitter output signal including the transmitter output value correlated with the valve position sensor value in the calibration table and/or chart. a position controller couplable to the valve and capable of driving the valve to a known position, the position controller including a position controller processor and a position controller memory; a transmitter coupled to the position controller via a communication link, the transmitter including a transmitter processor and a transmitter memory; a valve position sensor operatively couplable to the valve, the position controller, and the transmitter, wherein the valve position sensor provides a valve position sensor value indicating the position of the valve; a calibration table and/or chart including a correlation of a transmitter output value to the valve position sensor value, the correlation generated by the position controller processor executing an algorithm utilizing a calibration valve position sensor value attained by the valve position sensor during a calibration of the position controller in response to a calibration valve control signal driven by the position controller to initiate the calibration of the position controller; characterized in that the valve controller is configured to transmit a transmitter output signal from the transmitter, the transmitter output signal including the transmitter output value correlated with the valve position sensor value in the calibration table and/or chart.