mhurhangee/patent-ind-claim-en huggingface dataset:
A method in which a sensor controller connected to a sensor having an electrode group provided together with a display panel configured so as to act in a variable cycle and an active stylus that performs bidirectional communication with the sensor controller are used, the method comprising: a step by the sensor controller of acquiring an refresh cycle (VT) at present of the display panel ; and a step by the sensor controller of generating an uplink signal (US), which is to make a reference for synchronization corresponding to the acquired refresh cycle (VT) at present and transmitting the uplink signal (US) to the active stylus , which is not detected as yet or is detected already, in the refresh cycle (VT), wherein the display panel includes a plurality of blank periods within one cycle of the refresh cycle (VT), and the sensor controller uses at least one of the plurality of blank periods as a first blank period within which the uplink signal (US) is to be transmitted, wherein the method further comprises a step by the active stylus of transmitting a downlink signal to the sensor controller , and at least one of the plurality of blank periods other than the blank period or periods used as the first blank period is used as a second blank period within which the active stylus is to transmit the downlink signal. a step by the sensor controller of acquiring an refresh cycle (VT) at present of the display panel ; and a step by the sensor controller of generating an uplink signal (US), which is to make a reference for synchronization corresponding to the acquired refresh cycle (VT) at present and transmitting the uplink signal (US) to the active stylus , which is not detected as yet or is detected already, in the refresh cycle (VT), wherein the display panel includes a plurality of blank periods within one cycle of the refresh cycle (VT), and the sensor controller uses at least one of the plurality of blank periods as a first blank period within which the uplink signal (US) is to be transmitted, wherein the method further comprises a step by the active stylus of transmitting a downlink signal to the sensor controller , and at least one of the plurality of blank periods other than the blank period or periods used as the first blank period is used as a second blank period within which the active stylus is to transmit the downlink signal.
A method of forward error correction, FEC, the method comprising a FEC encoder: processing a data signal to generate a sequence of FEC frames; and computing parity vectors such that each parity vector spans multiple FEC frames by being computed on systematic bits of more than one frame; in a given FEC frame, a first set of syndrome bits are due to the parity vectors, and a second set of syndrome bits satisfy FEC equations composed of bits of the given FEC frame including the first set of syndrome bits; and the parity vectors are staggered with respect to a sequence in which the FEC frames are processed. processing a data signal to generate a sequence of FEC frames; and computing parity vectors such that each parity vector spans multiple FEC frames by being computed on systematic bits of more than one frame; in a given FEC frame, a first set of syndrome bits are due to the parity vectors, and a second set of syndrome bits satisfy FEC equations composed of bits of the given FEC frame including the first set of syndrome bits; and the parity vectors are staggered with respect to a sequence in which the FEC frames are processed. each parity vector spans multiple FEC frames by being computed on systematic bits of more than one frame; in a given FEC frame, a first set of syndrome bits are due to the parity vectors, and a second set of syndrome bits satisfy FEC equations composed of bits of the given FEC frame including the first set of syndrome bits; and the parity vectors are staggered with respect to a sequence in which the FEC frames are processed.
A safety method for pressurised water nuclear reactor in the event of at least partial meltdown of a core of the reactor with formation of a pool of corium , the reactor comprising at least, during an operating phase: • a primary circuit in which a water-based primary fluid is intended to circulate, the primary circuit being configured so that the primary fluid enters a vessel of the reactor and passes through the core contained in the vessel in order to extract the heat produced by the core , • a secondary circuit, in which a water-based secondary fluid is intended to circulate, the secondary circuit being hydraulically isolated from the primary circuit , and comprising at least one steam generator , the secondary circuit being configured to absorb heat from the primary circuit and at least partially transform it into steam in the steam generator , characterised in that the method comprises at least the following step: • in response to a detection of an event characteristic of an at least partial meltdown of the core of the reactor with formation of a pool of corium in a bottom of the vessel and with a formation of a liquid metal layer on the surface of the pool of corium : placing the secondary circuit in fluid communication with the primary circuit such that the secondary fluid uses the primary circuit to flow inside the vessel over said liquid metal layer of the pool of corium . • a primary circuit in which a water-based primary fluid is intended to circulate, the primary circuit being configured so that the primary fluid enters a vessel of the reactor and passes through the core contained in the vessel in order to extract the heat produced by the core , • a secondary circuit, in which a water-based secondary fluid is intended to circulate, the secondary circuit being hydraulically isolated from the primary circuit , and comprising at least one steam generator , the secondary circuit being configured to absorb heat from the primary circuit and at least partially transform it into steam in the steam generator , • in response to a detection of an event characteristic of an at least partial meltdown of the core of the reactor with formation of a pool of corium in a bottom of the vessel and with a formation of a liquid metal layer on the surface of the pool of corium : placing the secondary circuit in fluid communication with the primary circuit such that the secondary fluid uses the primary circuit to flow inside the vessel over said liquid metal layer of the pool of corium .
A clutch control device comprising: an engine ; a transmission gear ; a clutch device that is configured to connect/disconnect transmission of power between the engine and the transmission gear or; a clutch actuator that is configured to change a clutch capacity by driving the clutch device ; a control unit that is configured to calculate a control target value of the clutch capacity; a control parameter sensor that is configured to detect an actual control parameter for the control target value; a clutch operator that is configured to enable the clutch device to be manually operated; and a clutch operation amount sensor that is configured to convert an amount of operation of the clutch operator into an electric signal, wherein the control unit is configured to enable intervention of a manual clutch operation according to the clutch operator during automatic control of the clutch device according to the clutch actuator , and characterised in that the control unit is configured to set the control target value of the clutch capacity to a connection preparation target value acquired by causing an operation target value corresponding to the amount of operation of the clutch operator to approach a disconnection determination value in a case in which the control parameter detected by the control parameter sensor reaches the disconnection determination value set in advance at a time of performing a clutch disconnection operation through intervention of the manual clutch operation. an engine ; a transmission gear ; a clutch device that is configured to connect/disconnect transmission of power between the engine and the transmission gear or; a clutch actuator that is configured to change a clutch capacity by driving the clutch device ; a control unit that is configured to calculate a control target value of the clutch capacity; a control parameter sensor that is configured to detect an actual control parameter for the control target value; a clutch operator that is configured to enable the clutch device to be manually operated; and a clutch operation amount sensor that is configured to convert an amount of operation of the clutch operator into an electric signal, wherein the control unit is configured to enable intervention of a manual clutch operation according to the clutch operator during automatic control of the clutch device according to the clutch actuator , and characterised in that the control unit is configured to set the control target value of the clutch capacity to a connection preparation target value acquired by causing an operation target value corresponding to the amount of operation of the clutch operator to approach a disconnection determination value in a case in which the control parameter detected by the control parameter sensor reaches the disconnection determination value set in advance at a time of performing a clutch disconnection operation through intervention of the manual clutch operation.
A method for aligning a card for printing within a printing device, the printing device including a transport mechanim , a print unit that is configured to move relative to the transport mechanism thereby defining a print area, and a card feeder having an alignment bracket placed at an end of the card feeder near the transport mechanism on top of the card feeder, the method comprising: positioning the card feeder in a first orientation and depositing the card from the card feeder onto the transport mechanism along a processing axis; moving the transport mechanism in a first direction where the card moves away from the card feeder along the first direction on the transport mechanism; positioning the card feeder in a second orientation different from the first orientation where the alignment bracket aligns with the transport mechanism along the processing axis, the alignment bracket having a rear wall that engages the card when the card is moved into the alignment bracket and a guide that projects in a perpendicular direction from the rear wall; moving the transport mechanism in a second direction opposite the first direction such that the card moves into the alignment bracket and an edge of the card abuts the rear wall, wherein the guide aligns the card along the processing axis; moving the transport mechanism in the first direction such that the card clears the alignment bracket; and positioning the card feeder to a third orientation separate from the first and second orientations where the card feeder is outside the print area when the card feeder is in the third position. positioning the card feeder in a first orientation and depositing the card from the card feeder onto the transport mechanism along a processing axis; moving the transport mechanism in a first direction where the card moves away from the card feeder along the first direction on the transport mechanism; positioning the card feeder in a second orientation different from the first orientation where the alignment bracket aligns with the transport mechanism along the processing axis, the alignment bracket having a rear wall that engages the card when the card is moved into the alignment bracket and a guide that projects in a perpendicular direction from the rear wall; moving the transport mechanism in a second direction opposite the first direction such that the card moves into the alignment bracket and an edge of the card abuts the rear wall, wherein the guide aligns the card along the processing axis; moving the transport mechanism in the first direction such that the card clears the alignment bracket; and positioning the card feeder to a third orientation separate from the first and second orientations where the card feeder is outside the print area when the card feeder is in the third position.
A method for manufacturing an oral microbiota restoration therapy (MRT) composition, the method comprising: collecting a stool sample; purifying the stool sample to form a purified intermediate, wherein purifying the stool sample comprises: adding a diluent to the stool sample; mixing the stool sample and diluent to form a mixture; filtering the mixture; transferring a filtrate from the filtering step to a centrifuge tube; and centrifuging the filtrate to arrive at the purified intermediate; lyophilizing the purified intermediate to form a plurality lyophilized pellets; and encapsulating the plurality of lyophilized pellets in one or more capsules; wherein the diluent includes a cryoprotectant, wherein the cryoprotectant includes polyethylene glycol at a concentration of 30-90 g/L in saline, and the method further comprising mixing the purified intermediate with a lyophilization excipient, wherein the lyophilization excipient comprises polyethylene glycol, glycerin, trehalose, and sucrose. collecting a stool sample; purifying the stool sample to form a purified intermediate, wherein purifying the stool sample comprises: adding a diluent to the stool sample; mixing the stool sample and diluent to form a mixture; filtering the mixture; transferring a filtrate from the filtering step to a centrifuge tube; and centrifuging the filtrate to arrive at the purified intermediate; adding a diluent to the stool sample; mixing the stool sample and diluent to form a mixture; filtering the mixture; transferring a filtrate from the filtering step to a centrifuge tube; and centrifuging the filtrate to arrive at the purified intermediate; lyophilizing the purified intermediate to form a plurality lyophilized pellets; and encapsulating the plurality of lyophilized pellets in one or more capsules; wherein the diluent includes a cryoprotectant, wherein the cryoprotectant includes polyethylene glycol at a concentration of 30-90 g/L in saline, and the method further comprising mixing the purified intermediate with a lyophilization excipient, wherein the lyophilization excipient comprises polyethylene glycol, glycerin, trehalose, and sucrose.
A cartridge for an aerosol provision device for generating a flow of aerosol for inhalation by a user, the cartridge comprising: a chamber for containing a liquid from which, in use, the aerosol provision device generates the flow of aerosol; a first connector arrangement for releasably connecting the cartridge to a body portion of the aerosol provision device; a second connector arrangement for releasably connecting the cartridge to a container for a material so that, in use, the flow of aerosol generated by the aerosol provision device flows through the material in the container and one or more components of the material are entrained in the aerosol before the aerosol is inhaled by the user; wherein the first connector arrangement is configurable in a locked configuration in which a first element on the cartridge interacts with a corresponding second element on the body portion and in an un-locked configuration and wherein the first connector arrangement must be configured in the un-locked configuration in order for the cartridge to be removeable from the body portion of the aerosol provision device, and wherein the first connector arrangement is configured such that the first connector arrangement can be configured from the locked configuration to the unlocked configuration while the cartridge remains stationary with respect to the body portion. a chamber for containing a liquid from which, in use, the aerosol provision device generates the flow of aerosol; a first connector arrangement for releasably connecting the cartridge to a body portion of the aerosol provision device; a second connector arrangement for releasably connecting the cartridge to a container for a material so that, in use, the flow of aerosol generated by the aerosol provision device flows through the material in the container and one or more components of the material are entrained in the aerosol before the aerosol is inhaled by the user; wherein the first connector arrangement is configurable in a locked configuration in which a first element on the cartridge interacts with a corresponding second element on the body portion and in an un-locked configuration and wherein the first connector arrangement must be configured in the un-locked configuration in order for the cartridge to be removeable from the body portion of the aerosol provision device, and wherein the first connector arrangement is configured such that the first connector arrangement can be configured from the locked configuration to the unlocked configuration while the cartridge remains stationary with respect to the body portion.
A method of wireless communication by a relay device, comprising: identifying a first request-to-send, RTS, message transmitted from a first device directed to a second device using device-to-device, D2D, communications on a first set of resources; transmitting a second RTS message to the second device on the first set of resources upon identifying the transmission of the first message so the second message can be received by the second device at the same time as the first message, the second message comprising at least a portion of the first message; receiving a clear-to-send, CTS, in response to the second message from the second device; receiving a third message from the first device and retransmitting the third message to the second device; and receiving a fourth message from the second device and retransmitting the fourth message to the first device identifying a first request-to-send, RTS, message transmitted from a first device directed to a second device using device-to-device, D2D, communications on a first set of resources; transmitting a second RTS message to the second device on the first set of resources upon identifying the transmission of the first message so the second message can be received by the second device at the same time as the first message, the second message comprising at least a portion of the first message; receiving a clear-to-send, CTS, in response to the second message from the second device; receiving a third message from the first device and retransmitting the third message to the second device; and receiving a fourth message from the second device and retransmitting the fourth message to the first device
A method of performing communication by a user equipment , UE, configured with a plurality of serving cells in a wireless communication system, the method comprising: performing a physical downlink control channel, PDCCH,-monitoring to receive downlink control information, DCI, configured with a counter-downlink assignment index, C-DAI, for downlink, DL, scheduling; performing, based on a result of the PDCCH monitoring, a data reception in a time unit, TU, #n of a first cell among the plurality of serving cells; and transmitting, based on a value of the C-DAI, an uplink, UL, signal including Acknowledgement/Negative-acknowledgement, A/N, information for the data reception, in a TU #m+k of a second cell among the plurality of serving cells, wherein subcarrier spacing of the first cell is different from subcarrier spacing of the second cell and the TU #n of the first cell overlaps with a plurality of TUs of the second cell, wherein a TU #m of the second cell is a last TU among the plurality of TUs of the second cell that overlap with the TU #n of the first cell, characterized in that for a case where i) both first DCI and second DCI are received in a same TU as the result of the PDCCH monitoring ii) the data reception performed in the TU #n of the first cell includes both a first data reception scheduled by the first DCI and a second data reception scheduled by the second DCI: the first DCI for scheduling the first data reception is configured with an earlier order of C-DAI value than the second DCI for scheduling the second data reception, based on that the first data reception starts earlier than the second data reception. performing a physical downlink control channel, PDCCH,-monitoring to receive downlink control information, DCI, configured with a counter-downlink assignment index, C-DAI, for downlink, DL, scheduling; performing, based on a result of the PDCCH monitoring, a data reception in a time unit, TU, #n of a first cell among the plurality of serving cells; and transmitting, based on a value of the C-DAI, an uplink, UL, signal including Acknowledgement/Negative-acknowledgement, A/N, information for the data reception, in a TU #m+k of a second cell among the plurality of serving cells, wherein subcarrier spacing of the first cell is different from subcarrier spacing of the second cell and the TU #n of the first cell overlaps with a plurality of TUs of the second cell, wherein a TU #m of the second cell is a last TU among the plurality of TUs of the second cell that overlap with the TU #n of the first cell, characterized in that for a case where i) both first DCI and second DCI are received in a same TU as the result of the PDCCH monitoring ii) the data reception performed in the TU #n of the first cell includes both a first data reception scheduled by the first DCI and a second data reception scheduled by the second DCI: the first DCI for scheduling the first data reception is configured with an earlier order of C-DAI value than the second DCI for scheduling the second data reception, based on that the first data reception starts earlier than the second data reception.
A method comprising: causing, at least in part, a presentation of a first user interface associated with an, at least in part, locked state of a device ; causing, at least in part, a rendering of at least a portion of a second user interface associated with the first user interface , wherein the second user interface is associated with one or more applications, one or more services, or a combination thereof; and processing one or more interactions by the user with the device to determine whether to cause, at least in part, (i) an initiation of one or more functions of the one or more applications, the one or more services, or a combination thereof or (ii) a switch between views, user interfaces, or the one or more applications in the, at least in part, locked state of the device , wherein the one or more interactions by the user with the device are interactions with the at least a portion of the second user interface during the, at least in part, locked state of the device and wherein the one or more applications, the one or more services, or a combination thereof are functioning, at least in part, in the, at least in part, locked state of the device . causing, at least in part, a presentation of a first user interface associated with an, at least in part, locked state of a device ; causing, at least in part, a rendering of at least a portion of a second user interface associated with the first user interface , wherein the second user interface is associated with one or more applications, one or more services, or a combination thereof; and processing one or more interactions by the user with the device to determine whether to cause, at least in part, (i) an initiation of one or more functions of the one or more applications, the one or more services, or a combination thereof or (ii) a switch between views, user interfaces, or the one or more applications in the, at least in part, locked state of the device , wherein the one or more interactions by the user with the device are interactions with the at least a portion of the second user interface during the, at least in part, locked state of the device and wherein the one or more applications, the one or more services, or a combination thereof are functioning, at least in part, in the, at least in part, locked state of the device .