mhurhangee/patent-ind-claim-en huggingface dataset:
A controller configured to control charge or discharge of an energy storage unit , which includes an energy storage device , the controller comprising: a switch provided in a charge-discharge current path of the energy storage unit; characterised by an external input terminal that is configured to supply the switch with an input signal for turning on or off the switch, wherein the input signal for turning on the switch is supplied when a power system configured to be connected to the energy storage unit is restored from a power failure; an external output terminal that is configured to output an external output signal to an other controller of an other energy storage unit connected to the power system , the other controller including an other switch provided in a charge-discharge current path of the other energy storage unit; a control part that is configured to supply a control signal to the switch , and that includes a power restoration determination part , which is configured to determine whether or not the power system is restored, and wherein when the power restoration determination part determines that the power system configured to be connected to the energy storage unit is restored, the control part is configured to output the control signal to turn on the switch; wherein the switch has an OFF function to turn off the switch, when at least one of the control signal and the input signal is a signal for turning off the switch, and an ON function to turn on the switch, when each of the control signal and the input signal is a signal for turning on the switch. a switch provided in a charge-discharge current path of the energy storage unit; characterised by an external input terminal that is configured to supply the switch with an input signal for turning on or off the switch, wherein the input signal for turning on the switch is supplied when a power system configured to be connected to the energy storage unit is restored from a power failure; an external output terminal that is configured to output an external output signal to an other controller of an other energy storage unit connected to the power system , the other controller including an other switch provided in a charge-discharge current path of the other energy storage unit; a control part that is configured to supply a control signal to the switch , and that includes a power restoration determination part , which is configured to determine whether or not the power system is restored, and wherein when the power restoration determination part determines that the power system configured to be connected to the energy storage unit is restored, the control part is configured to output the control signal to turn on the switch; wherein the switch has an OFF function to turn off the switch, when at least one of the control signal and the input signal is a signal for turning off the switch, and an ON function to turn on the switch, when each of the control signal and the input signal is a signal for turning on the switch.
A method of manufacturing a stator core that includes a plurality of core pieces arranged in a circumferential direction about a central axis (J), serving as a center, that extends in an axial direction, the plurality of core pieces are formed by stacking a plurality of plate members , the plate members each including a core back portion that extends in the circumferential direction, a tooth portion that extends from the core back portion towards a first side in a radial direction, and a groove portion that is recessed from a surface on a second side of the core back portion in the radial direction towards the first side in the radial direction, the method of manufacturing the stator core comprising: firstly, forming (Sla) the groove portion , wherein the groove portion is formed by punching a portion of an electromagnetic steel sheet , and then using the groove portion as a reference, stamping out (S1b) an individual piece , wherein the individual piece , which includes the core back portion and the tooth portion , is stamped out from the electromagnetic steel sheet ; wherein in the stamping out step (S1b), the entire plate member is stamped out from the electromagnetic steel sheet with a single stamping out step. firstly, forming (Sla) the groove portion , wherein the groove portion is formed by punching a portion of an electromagnetic steel sheet , and then using the groove portion as a reference, stamping out (S1b) an individual piece , wherein the individual piece , which includes the core back portion and the tooth portion , is stamped out from the electromagnetic steel sheet ; wherein in the stamping out step (S1b), the entire plate member is stamped out from the electromagnetic steel sheet with a single stamping out step.
A method of managing messages across a plurality of messaging services, comprising: receiving , via a first messaging channel and at a message aggregator including one or more integration apps implementing posting and content conversion services for each of the plurality of messaging services, a first message from a first messaging service, wherein the first message is sent by a first user; sending the first message to a second user of a second messaging service via a second messaging channel; receiving , via the second messaging channel and at the message aggregator , a second message, wherein the second message is sent by the second user; in response to a request from the first user to continue a conversation via the second messaging service, opening , by the message aggregator , a third messaging channel to the second messaging service, the third messaging channel associated with an account of the first user on the second messaging service, and wherein the conversation is terminated in absence of receiving the request from the first user to continue the conversation via the second messaging service; sending the second message via the third messaging channel to the first user; determining that a conversation between the first user and the second user is finished; and sending a survey, follow-up information, or both, from the one or more integration apps , in response to a determination that a conversation is finished. receiving , via a first messaging channel and at a message aggregator including one or more integration apps implementing posting and content conversion services for each of the plurality of messaging services, a first message from a first messaging service, wherein the first message is sent by a first user; sending the first message to a second user of a second messaging service via a second messaging channel; receiving , via the second messaging channel and at the message aggregator , a second message, wherein the second message is sent by the second user; in response to a request from the first user to continue a conversation via the second messaging service, opening , by the message aggregator , a third messaging channel to the second messaging service, the third messaging channel associated with an account of the first user on the second messaging service, and wherein the conversation is terminated in absence of receiving the request from the first user to continue the conversation via the second messaging service; sending the second message via the third messaging channel to the first user; determining that a conversation between the first user and the second user is finished; and sending a survey, follow-up information, or both, from the one or more integration apps , in response to a determination that a conversation is finished.
A method for wireless communication, characterized by comprising: receiving , by a terminal device, a first bitmap from a network device, wherein the first bitmap is to indicate a time-domain resource allocated for the terminal device by the network device in a first frequency-domain resource unit; and performing , by the terminal device, data transmission with the network device on the time-domain resource indicated by the first bitmap; wherein each bit in the first bitmap corresponds to at least one time-domain resource unit in the first frequency-domain resource unit, and a value of each bit in the first bitmap is to indicate whether the at least one time-domain resource unit corresponding to the bit is used for data transmission of the terminal device; wherein each of the bits in the first bitmap corresponds to a respective one of time-domain resource units in the first frequency-domain resource unit; and wherein the time-domain resource unit comprises a symbol group. receiving , by a terminal device, a first bitmap from a network device, wherein the first bitmap is to indicate a time-domain resource allocated for the terminal device by the network device in a first frequency-domain resource unit; and performing , by the terminal device, data transmission with the network device on the time-domain resource indicated by the first bitmap; wherein each bit in the first bitmap corresponds to at least one time-domain resource unit in the first frequency-domain resource unit, and a value of each bit in the first bitmap is to indicate whether the at least one time-domain resource unit corresponding to the bit is used for data transmission of the terminal device; wherein each of the bits in the first bitmap corresponds to a respective one of time-domain resource units in the first frequency-domain resource unit; and wherein the time-domain resource unit comprises a symbol group.
An oil-based inkjet ink comprising a pigment, a pigment dispersant and a non-aqueous solvent, wherein the non-aqueous solvent comprises a silicone oil, and a fatty acid ester having 10 to 40 carbon atoms per molecule and having a ratio (total number of atoms in side chains/total number of atoms in main chain) of at least 0.20, provided that the fatty acid ester is not isononyl isononanoate, isodecyl isononanoate, 2-octyldecyl pivalate, 2-hexyldecyl myristate, or isotridecyl isononanoate.
A ventricular assist device for improving blood flow in a mammal, wherein said ventricular assist device comprises: (a) a conduit , wherein said conduit comprises a proximal region , a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, wherein said first compartment is the aorta and said second compartment is the left atrium, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said aorta and said left atrium, and (b) a pump , wherein said pump is adapted to be positioned within said conduit . (a) a conduit , wherein said conduit comprises a proximal region , a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, wherein said first compartment is the aorta and said second compartment is the left atrium, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said aorta and said left atrium, and wherein said conduit comprises a proximal region , a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, wherein said first compartment is the aorta and said second compartment is the left atrium, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said aorta and said left atrium, and (b) a pump , wherein said pump is adapted to be positioned within said conduit .
A method to be performed at a wireless communication station, STA, the method comprising: generating first and second time-domain streams according to a Single Carrier, SC, Physical layer, PHY, structure, the first and second time domain streams being generated by mapping first and second data sequences to a first interval of the first and second time domain streams and by mapping an encoded repetition of the first and second data sequences to a second interval of the first and second time domain streams; wherein the SC PHY structure comprises a first Guard Interval, GI, sequence mapped to the first interval of the streams and mapped to the second interval of the streams, wherein the GI includes a GI complex sequence of M samples, GI M (n), where the index n=1,...,M and wherein the sequence GI M (n) is a Golay sequence; wherein the first interval of the first time domain stream includes the GI sequence following the first data sequence and a time-inverted complex conjugate of the GI sequence prior to the first data sequence ; and transmitting a SC transmission based on the first and second time domain streams in a respective plurality of frequency-domain streams. generating first and second time-domain streams according to a Single Carrier, SC, Physical layer, PHY, structure, the first and second time domain streams being generated by mapping first and second data sequences to a first interval of the first and second time domain streams and by mapping an encoded repetition of the first and second data sequences to a second interval of the first and second time domain streams; wherein the SC PHY structure comprises a first Guard Interval, GI, sequence mapped to the first interval of the streams and mapped to the second interval of the streams, wherein the GI includes a GI complex sequence of M samples, GI M (n), where the index n=1,...,M and wherein the sequence GI M (n) is a Golay sequence; wherein the first interval of the first time domain stream includes the GI sequence following the first data sequence and a time-inverted complex conjugate of the GI sequence prior to the first data sequence ; and transmitting a SC transmission based on the first and second time domain streams in a respective plurality of frequency-domain streams.
A pump assembly for a high-pressure cleaning apparatus, comprising: a motor ; a transmission assembly driven by the motor and including a sealing portion , a transmission mechanism received in the sealing portion and a heat dissipating portion connected to the sealing portion for transferring heat with the sealing portion ; and a water pump connected to the transmission assembly , characterized in that the heat dissipating portion comprises a water inlet and a water outlet both for water passing to dissipate heat generated by the transmission mechanism . a motor ; a transmission assembly driven by the motor and including a sealing portion , a transmission mechanism received in the sealing portion and a heat dissipating portion connected to the sealing portion for transferring heat with the sealing portion ; and a water pump connected to the transmission assembly , characterized in that the heat dissipating portion comprises a water inlet and a water outlet both for water passing to dissipate heat generated by the transmission mechanism .
A method of accessing a Network Function, NF, segment by an NF consumer, wherein the NF segment corresponds to an NF producer instance in charge of a set of user equipment, UE, for subscribers of a core network, the method executed at a first network node that implements an Access and Mobility Management Function , AMF, and the method comprising: receiving (S-1010, S-710) at the first network node a UE registration message originated from a UE, wherein the UE registration message comprises a Subscription Concealed Identifier, SUCI, which includes a Routing Indicator assigned to a subscription for the UE in the core network; selecting (S-1020, S-715), at the first network node, an NF segment assigned for the UE based on the Routing Indicator; accessing (S-1030, S-720), from the first network node to the NF segment assigned for the UE, to obtain UE related information; receiving (S-1040, S-720), at the first network node from the NF segment assigned for the UE, a Subscription Permanent Identifier, SUPI, for the UE; and transmitting (S-1050, S-725), from the first network node toward a second network node of the core network, an operation request with the SUPI and the Routing Indicator for the UE, to facilitate discovery by the second network node of the NF segment assigned for the UE. receiving (S-1010, S-710) at the first network node a UE registration message originated from a UE, wherein the UE registration message comprises a Subscription Concealed Identifier, SUCI, which includes a Routing Indicator assigned to a subscription for the UE in the core network; selecting (S-1020, S-715), at the first network node, an NF segment assigned for the UE based on the Routing Indicator; accessing (S-1030, S-720), from the first network node to the NF segment assigned for the UE, to obtain UE related information; receiving (S-1040, S-720), at the first network node from the NF segment assigned for the UE, a Subscription Permanent Identifier, SUPI, for the UE; and transmitting (S-1050, S-725), from the first network node toward a second network node of the core network, an operation request with the SUPI and the Routing Indicator for the UE, to facilitate discovery by the second network node of the NF segment assigned for the UE.
A gas turbine engine defining a radial direction and an axial direction, the gas turbine engine comprising: a compressor section and a turbine section arranged in serial flow order, the compressor section and turbine section together defining a core air flowpath ; a rotary component rotatable with at least a portion of the compressor section and with at least a portion of the turbine section; a static frame member; a rotor connection member ; a stator connection member ; and an electric machine comprising a rotor and a stator , the rotor being disposed outside the stator in the radial direction and rotatable with the rotary component, the electric machine positioned at least partially inward of the core air flowpath along the radial direction, the electric machine flexibly mounted to the static frame member, or flexibly coupled to the rotary component, or both; wherein the rotor connection member supports the rotor of the electric machine , and the rotor connection member flexibly couples the rotor to the rotary component of the gas turbine engine; the stator connection member supports the stator of the electric machine , and the stator connection member flexibly mounts the stator to the static frame member at a location forward of the stator along the axial direction of the gas turbine engine; and the electric machine is positioned at least partially within or aft of the turbine section along the axial direction. a compressor section and a turbine section arranged in serial flow order, the compressor section and turbine section together defining a core air flowpath ; a rotary component rotatable with at least a portion of the compressor section and with at least a portion of the turbine section; a static frame member; a rotor connection member ; a stator connection member ; and an electric machine comprising a rotor and a stator , the rotor being disposed outside the stator in the radial direction and rotatable with the rotary component, the electric machine positioned at least partially inward of the core air flowpath along the radial direction, the electric machine flexibly mounted to the static frame member, or flexibly coupled to the rotary component, or both; wherein the rotor connection member supports the rotor of the electric machine , and the rotor connection member flexibly couples the rotor to the rotary component of the gas turbine engine; the stator connection member supports the stator of the electric machine , and the stator connection member flexibly mounts the stator to the static frame member at a location forward of the stator along the axial direction of the gas turbine engine; and the electric machine is positioned at least partially within or aft of the turbine section along the axial direction.
An apparatus comprising: a detector array having a plurality of elements (22A-D), the detector array comprising a photosensitive material; a photosensitive region disposed about and distinct from the plurality of elements (22A-D) of the detector array ; an electrical circuitry ; and a guard ring disposed about the photosensitive region, the guard ring being coupled to an electrical ground reference potential of the electrical circuitry and adapted to provide a return for photocurrents; the electrical circuitry is coupled to each of the elements (22A-D) of the detector array , the electrical circuitry configured to generate a set of first signals, each first signal of the set of first signals is based on optical energy impinging on a respective one of the plurality of elements (22A-D) of the detector array ; and wherein the photosensitive region is coupled to the electrical circuitry ; and wherein the electrical circuitry is further configured to generate a second signal having a first value if no portion of optical energy impinging on the plurality of elements (22A-D) of the detector array impinges on the region disposed about the plurality of elements (22A-D) of the detector array , and having a second value, distinct from the first value, if a portion of optical energy impinging on the plurality of elements (22A-D) of the detector array impinges on the photosensitive region and exceeds a threshold energy, wherein the threshold energy is a normalized threshold value specified relative to a total energy impinging on the detector array. a detector array having a plurality of elements (22A-D), the detector array comprising a photosensitive material; a photosensitive region disposed about and distinct from the plurality of elements (22A-D) of the detector array ; an electrical circuitry ; and a guard ring disposed about the photosensitive region, the guard ring being coupled to an electrical ground reference potential of the electrical circuitry and adapted to provide a return for photocurrents; the electrical circuitry is coupled to each of the elements (22A-D) of the detector array , the electrical circuitry configured to generate a set of first signals, each first signal of the set of first signals is based on optical energy impinging on a respective one of the plurality of elements (22A-D) of the detector array ; and wherein the photosensitive region is coupled to the electrical circuitry ; and wherein the electrical circuitry is further configured to generate a second signal having a first value if no portion of optical energy impinging on the plurality of elements (22A-D) of the detector array impinges on the region disposed about the plurality of elements (22A-D) of the detector array , and having a second value, distinct from the first value, if a portion of optical energy impinging on the plurality of elements (22A-D) of the detector array impinges on the photosensitive region and exceeds a threshold energy, wherein the threshold energy is a normalized threshold value specified relative to a total energy impinging on the detector array.