mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: at an electronic device (500, 600) with a touch-sensitive display (504, 604): displaying a user interface object on the touch-sensitive display of the electronic device, wherein the displayed user interface object represents a remote control application; receiving data representing a selection on the displayed user interface object; identifying at least one target device, out of a plurality of target devices, that is responsive to remote control, wherein identifying the at least one target device includes: receiving data from the at least one target device; and determining that the at least one target device is responsive to remote control based on the data received from the at least one target device; in response to identifying two or more target devices, out of the plurality of target devices, responsive to remote control, selecting one target device from the identified two or more target devices as a controllable target device based on a predetermined criteria; in response to identifying a single target device, out of the plurality of target devices, responsive to remote control, selecting the identified single target device as the controllable target device; and in response to receiving the data representing the selection, displaying a plurality of graphical user interface objects for controlling operations of the controllable target device. displaying a user interface object on the touch-sensitive display of the electronic device, wherein the displayed user interface object represents a remote control application; receiving data representing a selection on the displayed user interface object; identifying at least one target device, out of a plurality of target devices, that is responsive to remote control, wherein identifying the at least one target device includes: receiving data from the at least one target device; and determining that the at least one target device is responsive to remote control based on the data received from the at least one target device; receiving data from the at least one target device; and determining that the at least one target device is responsive to remote control based on the data received from the at least one target device; in response to identifying two or more target devices, out of the plurality of target devices, responsive to remote control, selecting one target device from the identified two or more target devices as a controllable target device based on a predetermined criteria; in response to identifying a single target device, out of the plurality of target devices, responsive to remote control, selecting the identified single target device as the controllable target device; and in response to receiving the data representing the selection, displaying a plurality of graphical user interface objects for controlling operations of the controllable target device.
A data processing method, wherein the method is applied to a modem, wherein the method comprises: receiving a data packet sent by a server, and acquiring a type of the data packet; determining whether the type of the data packet is consistent with a type of a data packet processed by using a preset processing rule or a type of a protocol in a preset TCP/IP protocol stack to obtain a determining result, wherein the preset TCP/IP protocol stack consists of a transport layer protocol suite and/or a network layer protocol suite in a TCP/IP protocol family, and the data packet processed by using the preset processing rule is a status data packet, wherein the status data packet is used to indicate an on-line status of a terminal, which includes the modem; when the type of the data packet is consistent with the type of the data packet processed by using the preset processing rule, performing (S103a) processing on the data packet according to the preset processing rule; and when the type of the data packet is consistent with the type of the protocol in the preset TCP/IP protocol stack, performing (S103b) processing on the data packet according to the protocol in the preset TCP/IP protocol stack; wherein the method further comprises: if a network signal strength is less than a preset strength value, and the received data packet is resending failure information sent by the server, cancelling data packet sending within preset waiting duration. receiving a data packet sent by a server, and acquiring a type of the data packet; determining whether the type of the data packet is consistent with a type of a data packet processed by using a preset processing rule or a type of a protocol in a preset TCP/IP protocol stack to obtain a determining result, wherein the preset TCP/IP protocol stack consists of a transport layer protocol suite and/or a network layer protocol suite in a TCP/IP protocol family, and the data packet processed by using the preset processing rule is a status data packet, wherein the status data packet is used to indicate an on-line status of a terminal, which includes the modem; when the type of the data packet is consistent with the type of the data packet processed by using the preset processing rule, performing (S103a) processing on the data packet according to the preset processing rule; and when the type of the data packet is consistent with the type of the protocol in the preset TCP/IP protocol stack, performing (S103b) processing on the data packet according to the protocol in the preset TCP/IP protocol stack; wherein the method further comprises: if a network signal strength is less than a preset strength value, and the received data packet is resending failure information sent by the server, cancelling data packet sending within preset waiting duration.
An arrangement comprising a semiconductor chip, designed to emit light during operation, and a cover layer, that lies across from a light emitting upper surface of the semiconductor chip so that light emitted from the semiconductor chip penetrates into the cover layer, wherein a light deflecting structure disposed in an area of the cover layer overlapping the chip, wherein light penetrating into the cover layer is deflected in a direction of a longitudinal extent of the cover layer, and the cover layer acts as an optical waveguide and is designed to emit the light distributed over the surface of the cover layer, wherein a direction pointing in a direction of the cover layer is a main emitting direction of the semiconductor chip, and the semiconductor chip has two main emitting directions, which are opposed to each other, characterized in that the semiconductor chip is also covered from the bottom by the cover layer, and the light emitted upward and downward from the semiconductor chip is used and reflected on reflective coatings on the covering layer and the light is thereby forced in the longitudinal direction of the covering layer.
A secondary battery, comprising: a shell having an opening; an electrode assembly, which is accommodated in the shell, wherein the electrode assembly comprises a first electrode plate; a cap assembly (100, 101) comprising a cap plate and a first electrode terminal, wherein the cap plate is configured to cover the opening, wherein the cap plate has an electrode lead-out hole covered by the first electrode terminal which is configured to connect to a busbar; a lower insulator, provided with a through hole in correspondence with the electrode lead-out hole; and a wiring board (500, 501, 502), configured to electrically connect the first electrode plate with the first electrode terminal, wherein the wiring board (500, 501, 502) is disposed inside the shell, the wiring board (500, 501, 502) comprises a main body portion and an extension portion connected to the main body portion, the main body portion is located at a side of the cap plate facing the shell and is insulated from the cap plate by the lower insulator, the main body portion is configured to connect with the first electrode plate, the extension portion is configured to extend into the electrode lead-out hole to connect with the first electrode terminal, and the first electrode terminal is disposed at the same level as or higher than a surface of the lower insulator away from the cap plate, wherein the main body portion is sheet-like and configured to extend in a direction parallel to the cap plate. a shell having an opening; an electrode assembly, which is accommodated in the shell, wherein the electrode assembly comprises a first electrode plate; a cap assembly (100, 101) comprising a cap plate and a first electrode terminal, wherein the cap plate is configured to cover the opening, wherein the cap plate has an electrode lead-out hole covered by the first electrode terminal which is configured to connect to a busbar; a lower insulator, provided with a through hole in correspondence with the electrode lead-out hole; and a wiring board (500, 501, 502), configured to electrically connect the first electrode plate with the first electrode terminal, wherein the wiring board (500, 501, 502) is disposed inside the shell, the wiring board (500, 501, 502) comprises a main body portion and an extension portion connected to the main body portion, the main body portion is located at a side of the cap plate facing the shell and is insulated from the cap plate by the lower insulator, the main body portion is configured to connect with the first electrode plate, the extension portion is configured to extend into the electrode lead-out hole to connect with the first electrode terminal, and the first electrode terminal is disposed at the same level as or higher than a surface of the lower insulator away from the cap plate, wherein the main body portion is sheet-like and configured to extend in a direction parallel to the cap plate.
A method of synchronous independent channel access, performed by a dual-band device, the method comprising: performing independent enhanced distributed channel access function, in the following also referred to as EDCA, channel access on a first primary wireless channel and on a second primary wireless channel; encoding a first MAC protocol data unit, in the following also referred to as MPDU, for transmission on the first primary wireless channel; encoding a second MPDU for transmission on the second primary wireless channel; transmitting the first MPDU on the first primary wireless channel; and transmitting the second MPDU on the second primary wireless channel in synchronization with the transmitting the first MPDU, wherein an ending time of the first MPDU is aligned with an ending time of the second MPDU. performing independent enhanced distributed channel access function, in the following also referred to as EDCA, channel access on a first primary wireless channel and on a second primary wireless channel; encoding a first MAC protocol data unit, in the following also referred to as MPDU, for transmission on the first primary wireless channel; encoding a second MPDU for transmission on the second primary wireless channel; transmitting the first MPDU on the first primary wireless channel; and transmitting the second MPDU on the second primary wireless channel in synchronization with the transmitting the first MPDU, wherein an ending time of the first MPDU is aligned with an ending time of the second MPDU.
A method of accessing a channel in a wireless local area network, comprising: receiving, by a destination station, a plurality of request to send, RTS, frames to allocate a network allocation vector from a source station over a first band; and transmitting, by the destination station, a clear to send, CTS, frame over a second band to the source station in response to the plurality of RTS frames, wherein the first band includes a plurality of first 20 MHz bands, each of the plurality of RTS frames corresponding to each of the plurality of first 20 MHz bands, wherein the second band includes a second 20 MHz band, wherein the number of the second 20 MHz band is equal to or less than the number of the plurality of first 20 MHz bands, characterised in that each of the plurality of RTS frames includes transmission mode information indicating an entire bandwidth of the plurality of first 20 MHz bands. receiving, by a destination station, a plurality of request to send, RTS, frames to allocate a network allocation vector from a source station over a first band; and transmitting, by the destination station, a clear to send, CTS, frame over a second band to the source station in response to the plurality of RTS frames, wherein the first band includes a plurality of first 20 MHz bands, each of the plurality of RTS frames corresponding to each of the plurality of first 20 MHz bands, wherein the second band includes a second 20 MHz band, wherein the number of the second 20 MHz band is equal to or less than the number of the plurality of first 20 MHz bands, characterised in that each of the plurality of RTS frames includes transmission mode information indicating an entire bandwidth of the plurality of first 20 MHz bands.
A compound having a pyridoindole ring structure bonded with a substituted pyridyl group, which is represented by the following general formula: wherein Ar represents a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group; R 1 to R 3 may be the same or different and represent a hydrogen atom, or a substituted or unsubstituted pyridyl group; R 4 to R 11 may be the same or different and represent a hydrogen atom, a fluorine atom, a chlorine atom, a cyano group, a trifluoromethyl group, a linear or branched alkyl group having 1 to 6 carbon atoms, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group; m represents an integer of 1 to 3; n represents an integer of 2 or 3; and W, X, Y, and Z represent a carbon atom or a nitrogen atom, provided that the case where R 1 to R 3 in the molecule are simultaneously all hydrogen atoms is excluded, and that only one of W, X, Y, and Z is a nitrogen atom and the nitrogen atom does not have the substituent of R 8 to R 11.
A vehicle being a ground effect road vehicle having a nose region and an underside and being supported on a running surface, the ground effect road vehicle characterised in that it comprises a first duct configured to channel air from a first outlet at the underside of the nose region of the vehicle to a second outlet located in the nose region away from the underside of the vehicle, the first outlet being directed in a forward direction so that when the vehicle is in forward motion air is channelled into the first duct by the first outlet from underneath the vehicle and the underside of the vehicle in front of the first outlet is at a lower pressure than the underside of the vehicle behind the first outlet, the vehicle being configured so that the underside of the vehicle is in sufficient proximity to the running surface so that a flow of air entering the region between the underside of the vehicle and the running surface is accelerated in the region between the underside of the vehicle and the running surface to generate downforce on the vehicle.
A system, comprising: a load device coupled to an output of an electronic control unit via a coaxial cable; and the ECU, comprising: a power supply configured to provide power for the load device characterized in that the ECU further comprising; a power over coaxial cable (PoC) filter coupled to the output; a high side switch coupled to the power supply and to the PoC filter via an HSS output line; a diode disposed in the HSS output line and configured to substantially eliminate current flow from the output towards the HSS, while allowing current to flow from the HSS towards the load device from the HSS; a diode resistor disposed in parallel with the diode an configured to allow a current to flow past the diode towards the HSS while the HSS is in an off mode and a short-to-battery scenario is occurring; and a pull down resistor disposed between the output line of the HSS and a ground prior to the diode, and configured to pull the voltage at the HSS output down to zero volts while the HSS is in the off mode and an open load scenario has occurred. a load device coupled to an output of an electronic control unit via a coaxial cable; and the ECU, comprising: a power supply configured to provide power for the load device characterized in that the ECU further comprising; a power over coaxial cable (PoC) filter coupled to the output; a high side switch coupled to the power supply and to the PoC filter via an HSS output line; a diode disposed in the HSS output line and configured to substantially eliminate current flow from the output towards the HSS, while allowing current to flow from the HSS towards the load device from the HSS; a diode resistor disposed in parallel with the diode an configured to allow a current to flow past the diode towards the HSS while the HSS is in an off mode and a short-to-battery scenario is occurring; and a pull down resistor disposed between the output line of the HSS and a ground prior to the diode, and configured to pull the voltage at the HSS output down to zero volts while the HSS is in the off mode and an open load scenario has occurred. a power supply configured to provide power for the load device characterized in that the ECU further comprising; a power over coaxial cable (PoC) filter coupled to the output; a high side switch coupled to the power supply and to the PoC filter via an HSS output line; a diode disposed in the HSS output line and configured to substantially eliminate current flow from the output towards the HSS, while allowing current to flow from the HSS towards the load device from the HSS; a diode resistor disposed in parallel with the diode an configured to allow a current to flow past the diode towards the HSS while the HSS is in an off mode and a short-to-battery scenario is occurring; and a pull down resistor disposed between the output line of the HSS and a ground prior to the diode, and configured to pull the voltage at the HSS output down to zero volts while the HSS is in the off mode and an open load scenario has occurred.
A device for controlling a pre-charge current generated when electrically connecting a first terminal and a second terminal, the device comprising: a switch for controlling a magnitude of a current flowing between the first terminal and the second terminal; a first resistor for generating a base voltage of a first transistor in proportion to a magnitude of the pre-charge current flowing between the first terminal and the second terminal; the first transistor for limiting the magnitude of the pre-charge current when a voltage generated by the first resistor is equal to or greater than a predetermined threshold voltage; a photocoupler for receiving, in a state insulated from a first power source, an optical signal from the first power source and supplying power; a capacitor for being charged by the power supplied by the photocoupler; a second transistor for controlling the magnitude of the pre-charge current on a basis of a charging voltage of the capacitor, wherein the charging voltage of the capacitor generates a base voltage of the second transistor, and as the capacitor is charged by the power supplied by the photocoupler, the second transistor is configured to decrease a current flowing through the second transistor so as to increase a gate voltage of the switch; and a second resistor for controlling an operating time of the second transistor along with the capacitor. a switch for controlling a magnitude of a current flowing between the first terminal and the second terminal; a first resistor for generating a base voltage of a first transistor in proportion to a magnitude of the pre-charge current flowing between the first terminal and the second terminal; the first transistor for limiting the magnitude of the pre-charge current when a voltage generated by the first resistor is equal to or greater than a predetermined threshold voltage; a photocoupler for receiving, in a state insulated from a first power source, an optical signal from the first power source and supplying power; a capacitor for being charged by the power supplied by the photocoupler; a second transistor for controlling the magnitude of the pre-charge current on a basis of a charging voltage of the capacitor, wherein the charging voltage of the capacitor generates a base voltage of the second transistor, and as the capacitor is charged by the power supplied by the photocoupler, the second transistor is configured to decrease a current flowing through the second transistor so as to increase a gate voltage of the switch; and a second resistor for controlling an operating time of the second transistor along with the capacitor.
Method of producing a chocolate product, comprising at least the following method steps: a) providing a mass to be conched, b) conching the mass provided, c) adding a coolant to the mass during conching, characterized in that the coolant comprises at least one solid substance with a temperature below -50°C. a) providing a mass to be conched, b) conching the mass provided, c) adding a coolant to the mass during conching,
An ultrasonic surgical instrument (10, 110, 200) comprising: an ultrasonic transducer; an acoustic horn acoustically coupled to the ultrasonic transducer; an ultrasonic transmission waveguide acoustically coupled to the acoustic horn, the ultrasonic transmission waveguide having a central waveguide axis; and an ultrasonic surgical blade acoustically coupled to the ultrasonic transmission waveguide through a compound curvature component; wherein the compound curvature component transversely off-sets the ultrasonic surgical blade from the central waveguide axis, and wherein the ultrasonic surgical instrument further comprises a shaft assembly comprising an outer sheath (214, 214a, 214b, 214c) around at least a portion of the ultrasonic transmission waveguide, wherein the ultrasonic surgical blade is transversely off-set past an outer surface of the outer sheath, and wherein the outer sheath (214, 214a, 214b, 214c) comprises a closed and/or sealed slot (222, 222') extending longitudinally along at least a portion of the outer sheath length. an ultrasonic transducer; an acoustic horn acoustically coupled to the ultrasonic transducer; an ultrasonic transmission waveguide acoustically coupled to the acoustic horn, the ultrasonic transmission waveguide having a central waveguide axis; and an ultrasonic surgical blade acoustically coupled to the ultrasonic transmission waveguide through a compound curvature component; wherein the compound curvature component transversely off-sets the ultrasonic surgical blade from the central waveguide axis, and wherein the ultrasonic surgical instrument further comprises a shaft assembly comprising an outer sheath (214, 214a, 214b, 214c) around at least a portion of the ultrasonic transmission waveguide, wherein the ultrasonic surgical blade is transversely off-set past an outer surface of the outer sheath, and wherein the outer sheath (214, 214a, 214b, 214c) comprises a closed and/or sealed slot (222, 222') extending longitudinally along at least a portion of the outer sheath length.