mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a mobile device carried by a customer in order to effect a fueling transaction via an application installed on said mobile device, said method comprising steps of: transmitting a short range wireless initiation signal to a mobile device of a customer directly from a fuel dispenser , said fuel dispenser characterised by having a plurality of passive near-field communication transponders which are operative to emit said wireless initiation signal when interrogated by said mobile device , said wireless initiation signal containing information identifying said fuel dispenser and an associated grade of fuel of a plurality of fuel grades, wherein each of said plurality of passive near-field communication transponders for each grade of fuel comprise an antenna arrangement and associated circuitry carried by an adhesive backed tag attached to said fuel dispenser ; the method further characterised by instructing the fuel dispenser by electronics in communication with a cloud server to allow fueling to begin in response to initiation of a transaction via an application installed in said mobile device. transmitting a short range wireless initiation signal to a mobile device of a customer directly from a fuel dispenser , said fuel dispenser characterised by having a plurality of passive near-field communication transponders which are operative to emit said wireless initiation signal when interrogated by said mobile device , said wireless initiation signal containing information identifying said fuel dispenser and an associated grade of fuel of a plurality of fuel grades, wherein each of said plurality of passive near-field communication transponders for each grade of fuel comprise an antenna arrangement and associated circuitry carried by an adhesive backed tag attached to said fuel dispenser ; the method further characterised by instructing the fuel dispenser by electronics in communication with a cloud server to allow fueling to begin in response to initiation of a transaction via an application installed in said mobile device.
A patient isolator , the patient isolator comprising: a base ; and a cover which is arranged to engage with the base to form a seal, wherein the seal is a hermetic seal, wherein the cover is formed from a rigid material, wherein the cover has two access ports , wherein each access port is sealed so as to provide an airtight cover, and wherein the patient isolator is sealed such that, in use, the only flow of air between the inside and outside of the isolator is filtered air, characterised in that the two access ports are on an end face , in that two access ports are each angled in a width direction relative to a plane which extends parallel to the width direction of the patient isolator, and in that the two access ports are angled relative to each other. a base ; and a cover which is arranged to engage with the base to form a seal, wherein the seal is a hermetic seal, wherein the cover is formed from a rigid material, wherein the cover has two access ports , wherein each access port is sealed so as to provide an airtight cover, and wherein the patient isolator is sealed such that, in use, the only flow of air between the inside and outside of the isolator is filtered air, characterised in that the two access ports are on an end face , in that two access ports are each angled in a width direction relative to a plane which extends parallel to the width direction of the patient isolator, and in that the two access ports are angled relative to each other.
An apparatus configured to determine the pressure of an aircraft tire at a reference temperature, the apparatus comprising a processing system configured to: obtain a measured tire pressure and a measured temperature associated with the measured tire pressure; and characterised in that the processing system is configured to determine a tire pressure at the reference temperature by adjusting the measured tire pressure using a predetermined temperature characteristic, a square root of the measured temperature and a square root of the reference temperature, wherein the predetermined temperature characteristic is a gradient of the relationship between square root of temperature and tire pressure. obtain a measured tire pressure and a measured temperature associated with the measured tire pressure; and characterised in that the processing system is configured to determine a tire pressure at the reference temperature by adjusting the measured tire pressure using a predetermined temperature characteristic, a square root of the measured temperature and a square root of the reference temperature, wherein the predetermined temperature characteristic is a gradient of the relationship between square root of temperature and tire pressure.
A method for extending new radio, NR, usage indications to an application function, AF , the method comprising: at a policy and charging rules function, PCRF , including at least one processor: receiving an indication of NR usage by a user equipment, UE , wherein the indication of NR usage includes an indication that a UE is connected to the NR network; determining that an AF is subscribed to receive indications of NR usage for the UE; in response to determining that an AF is subscribed to receive indications of NR usage for the UE, communicating the indication of NR usage to the AF; receiving an authentication authorization request-update, AAR-U, message from the AF to effect a change in service provided to the UE based on the indication of NR usage, the message including a media component description requesting access to increased bandwidth provided by the NR for providing enhanced quality of service to the UE; and effecting the change in service provided to the UE based on the indication of NR usage. receiving an indication of NR usage by a user equipment, UE , wherein the indication of NR usage includes an indication that a UE is connected to the NR network; determining that an AF is subscribed to receive indications of NR usage for the UE; in response to determining that an AF is subscribed to receive indications of NR usage for the UE, communicating the indication of NR usage to the AF; receiving an authentication authorization request-update, AAR-U, message from the AF to effect a change in service provided to the UE based on the indication of NR usage, the message including a media component description requesting access to increased bandwidth provided by the NR for providing enhanced quality of service to the UE; and effecting the change in service provided to the UE based on the indication of NR usage.
An anhydrous dentifrice or toothpaste, comprising: an orally acceptable vehicle, the orally acceptable vehicle comprising propylene glycol; a thickening system, the thickening system comprising a polymeric thickener, wherein the polymeric thickener is a copolymer of 2-acrylamidomethylpropanesulphonic acid or a salt thereof; and a peroxide whitening agent. an orally acceptable vehicle, the orally acceptable vehicle comprising propylene glycol; a thickening system, the thickening system comprising a polymeric thickener, wherein the polymeric thickener is a copolymer of 2-acrylamidomethylpropanesulphonic acid or a salt thereof; and a peroxide whitening agent.
A method for shaping cells in a wireless communications network , the method being performed by a network node , the method comprising the steps of: acquiring (S102) previously stored spatial channel characteristics for wireless devices , WDs, the WDs being associated with a set of radio access network nodes , RANNs, the spatial channel characteristics for at least one WD of the WDs being measured between the at least one WD and at least two RANNs in the set of RANNs, the spatial channel characteristics relating to at least one of channel correlation or covariance matrices determined from uplink measurements, and signal strength estimates over multiple antenna elements or beam forms, and wherein the previously stored spatial channel characteristics are used to assess coverage for different cell shapes before performance of them is evaluated such that the performance is based not only for WDs currently in the communications network but also for WDs that have previously been connected to the communications network ; determining (S104) beam forming parameters for shaping cells for at least one RANN in the set of RANNs based on the acquired spatial channel characteristics such that at least a predetermined share of the WDs are in service coverage; and notifying (S106) at least one of the RANNs in the set of RANNs of the determined beam forming parameters. acquiring (S102) previously stored spatial channel characteristics for wireless devices , WDs, the WDs being associated with a set of radio access network nodes , RANNs, the spatial channel characteristics for at least one WD of the WDs being measured between the at least one WD and at least two RANNs in the set of RANNs, the spatial channel characteristics relating to at least one of channel correlation or covariance matrices determined from uplink measurements, and signal strength estimates over multiple antenna elements or beam forms, and wherein the previously stored spatial channel characteristics are used to assess coverage for different cell shapes before performance of them is evaluated such that the performance is based not only for WDs currently in the communications network but also for WDs that have previously been connected to the communications network ; determining (S104) beam forming parameters for shaping cells for at least one RANN in the set of RANNs based on the acquired spatial channel characteristics such that at least a predetermined share of the WDs are in service coverage; and notifying (S106) at least one of the RANNs in the set of RANNs of the determined beam forming parameters.
A radio terminal supporting Carrier Aggregation using a primary cell and at least one secondary cell operated in a non-licensed frequency band, the radio terminal comprising: a receiving unit configured to receive (S902) in the primary cell from a radio station a Radio Resource Control, RRC, Connection Reconfiguration including a measurement configuration, the measurement configuration indicating measurement items including a Received Signal Strength Indicator, RSSI, on the non-licensed frequency band and at least one of Reference Signal Received Power, RSRP, and Reference Signal Received Quality, RSRQ, of reference signals transmitted from the radio station in the secondary cell operated in the non-licensed frequency band; at least one processor configured to measure (S903), in accordance with the measurement configuration, the RSSI on the non-licensed frequency band and at least one of the RSRP and the RSRQ of reference signals (S201) transmitted from the radio station in the secondary cell operated in the non-licensed frequency band; and a transmitting unit configured to transmit (S904) in the primary cell to the radio station a measurement report of the RSSI and at least one of the RSRP and the RSRQ. a receiving unit configured to receive (S902) in the primary cell from a radio station a Radio Resource Control, RRC, Connection Reconfiguration including a measurement configuration, the measurement configuration indicating measurement items including a Received Signal Strength Indicator, RSSI, on the non-licensed frequency band and at least one of Reference Signal Received Power, RSRP, and Reference Signal Received Quality, RSRQ, of reference signals transmitted from the radio station in the secondary cell operated in the non-licensed frequency band; at least one processor configured to measure (S903), in accordance with the measurement configuration, the RSSI on the non-licensed frequency band and at least one of the RSRP and the RSRQ of reference signals (S201) transmitted from the radio station in the secondary cell operated in the non-licensed frequency band; and a transmitting unit configured to transmit (S904) in the primary cell to the radio station a measurement report of the RSSI and at least one of the RSRP and the RSRQ.
A drain plug device including: a tank body (B) including a drain port formed in a bottom surface of the tank body (B); a valve member that opens and closes the drain port ; an operation unit that is attached to an opening formed in the tank body (B) to perform a raising operation of the valve member ; and a transmission member that transmits operation applied to the operation unit to the valve member , wherein the operation unit includes an activation unit displaceable with respect to the tank body (B) and an inlet that an overflow may flow through, and a positioning member that can be fixed in any direction to determine a position and a direction of the activation unit , wherein the tank body (B) includes an overflow port in a side wall of the tank body (B), wherein the operation unit is attached to the overflow port , the overflow port is covered with the operation unit including the activation unit so as not to be able to be visually recognized, and the inlet is arranged so as not to be able to be visually recognized, characterized in that a flange member is attached to the opening formed in the tank body (B), the flange member including a flange at an upstream end, a drain path being formed in the flange member , and the positioning member is sandwiched between an opening circumferential edge of a side surface of the tank body (B) and the flange . a tank body (B) including a drain port formed in a bottom surface of the tank body (B); a valve member that opens and closes the drain port ; an operation unit that is attached to an opening formed in the tank body (B) to perform a raising operation of the valve member ; and a transmission member that transmits operation applied to the operation unit to the valve member , wherein the operation unit includes an activation unit displaceable with respect to the tank body (B) and an inlet that an overflow may flow through, and a positioning member that can be fixed in any direction to determine a position and a direction of the activation unit , wherein the tank body (B) includes an overflow port in a side wall of the tank body (B), wherein the operation unit is attached to the overflow port , the overflow port is covered with the operation unit including the activation unit so as not to be able to be visually recognized, and the inlet is arranged so as not to be able to be visually recognized, characterized in that a flange member is attached to the opening formed in the tank body (B), the flange member including a flange at an upstream end, a drain path being formed in the flange member , and the positioning member is sandwiched between an opening circumferential edge of a side surface of the tank body (B) and the flange .
A rubber member comprising: a fine ridged/grooved structure on at least a part of the surface of the rubber member, the fine ridged/grooved structure formed via transfer from a mold and having fine ridged/grooved portions arranged at a constant arrangement pitch (L) equal to or smaller than 650 nm; a region in which the fine ridged/grooved structure is provided being visually recognizable by a different structural color from the colors of other regions characterized in that the fine ridged/grooved portions include a cylindrical projection, a conical projection or a grid-like projection. a fine ridged/grooved structure on at least a part of the surface of the rubber member, the fine ridged/grooved structure formed via transfer from a mold and having fine ridged/grooved portions arranged at a constant arrangement pitch (L) equal to or smaller than 650 nm; a region in which the fine ridged/grooved structure is provided being visually recognizable by a different structural color from the colors of other regions characterized in that the fine ridged/grooved portions include a cylindrical projection, a conical projection or a grid-like projection.
An information scheduling method, performed by a first communication node, comprising: receiving (S110) physical downlink shared channel, PDSCH, configuration information from a second communication node, wherein the PDSCH configuration information comprises a mapping relationship between a time domain resource assignment, TDRA, index and at least one group of time domain resource indication information, wherein each of the at least one group of time domain resource indication information comprises a slot offset K 0 , a start length indicator value, SLIV, and a PDSCH mapping type, and wherein the PDSCH configuration information further comprises a mapping relationship between the each of the at least one group of time domain resource indication information and a carrier; receiving (S120) downlink control information, DCI, from the second communication node; and determining (S130) scheduling information of a PDSCH on a plurality of carriers according to the PDSCH configuration information and the DCI; receiving the PDSCH on the plurality of carriers according to the scheduling information. receiving (S110) physical downlink shared channel, PDSCH, configuration information from a second communication node, wherein the PDSCH configuration information comprises a mapping relationship between a time domain resource assignment, TDRA, index and at least one group of time domain resource indication information, wherein each of the at least one group of time domain resource indication information comprises a slot offset K 0 , a start length indicator value, SLIV, and a PDSCH mapping type, and wherein the PDSCH configuration information further comprises a mapping relationship between the each of the at least one group of time domain resource indication information and a carrier; wherein the PDSCH configuration information comprises a mapping relationship between a time domain resource assignment, TDRA, index and at least one group of time domain resource indication information, wherein each of the at least one group of time domain resource indication information comprises a slot offset K 0 , a start length indicator value, SLIV, and a PDSCH mapping type, and wherein the PDSCH configuration information further comprises a mapping relationship between the each of the at least one group of time domain resource indication information and a carrier; receiving (S120) downlink control information, DCI, from the second communication node; and determining (S130) scheduling information of a PDSCH on a plurality of carriers according to the PDSCH configuration information and the DCI; receiving the PDSCH on the plurality of carriers according to the scheduling information.
A seal or operculum for closing a container (C), comprising an edge portion , a partially removable central portion and an arc-of-circle shaped groove , wherein said seal or operculum is made of a plastic material and wherein said edge portion is configured to be welded to the edge (B) of the neck (CL) of said container (C), wherein the arc-of-circle shaped groove runs along an arc of circle of less than 360°, preferably greater than 350°, characterized in that the central portion comprises a stem element arranged on the same circumference as the arc-of-circle shaped groove , configured to keep the central portion constantly connected to the edge portion , wherein the central portion comprises a lowered portion and a connection portion with the edge portion , wherein said connection portion has a substantially cylindrical shape and rises from the lowered portion , and wherein one or more annular projections configured to insist against the inner surface of the neck (CL) of the container (C) are arranged on the outer surface of the connection portion .
Loading tooling for thermochemical treatment of parts , the tooling comprising at least first and second loading stages stacked one on the other in separable manner, each loading stage (100; 200) comprising a rack (110; 210) extending in a horizontal plane (P 110 ; P 210 ), the rack being supported by four legs (120, 121, 122, 123; 220, 221, 222, 223) extending in a vertical direction (DV1) with the legs of the second loading stage standing on the legs of the first loading stage , and the rack (110; 210) having a plurality of support arms (130; 230) secured thereto, with the plurality of support arms of the first loading stage presenting an arrangement that is different from the arrangement of the plurality of support arms of the second loading stage ; the tooling being characterized in that the rack of the first loading stage comprises a central crossbar , a first plurality of support arms extending on either side of the central crossbar in a direction parallel to the horizontal plane (P110) of the rack , the arms of the first plurality of support arms each presenting a free end and being spaced apart from one another at a first distance (D130), and wherein the rack of the second loading stage comprises a central crossbar , a second plurality of support arms extending on either side of the central crossbar in a direction parallel to the horizontal plane (P210) of the rack , the arms of the second plurality of support arms each presenting a free arm and being spaced apart from one another by a second distance (D230) different from the first distance (D130).
A communication apparatus, comprising: a processor and a memory storing instructions, the instructions, when executed by the processor , cause the communication apparatus to broadcast a request to send, RTS, frame, wherein the RTS includes a first bandwidth parameter, and the first bandwidth parameter indicates an available bandwidth of an access point; receive a clear to send, CTS, frame from a first station in response to the RTS frame, wherein the CTS includes a second bandwidth parameter, and the second bandwidth parameter is corresponding to bandwidth required by the first station; confirm, based on the receipt of the CTS frame, that an RTS/CTS frame transmission is successful; and send a first trigger frame to the first station, wherein the first trigger frame is used to schedule the first station to send uplink data; when the first bandwidth parameter is greater than the second bandwidth parameter send a second trigger frame to a second station on a channel set corresponding to remaining bandwidth, wherein the second trigger frame is used to schedule the second station to send uplink data. broadcast a request to send, RTS, frame, wherein the RTS includes a first bandwidth parameter, and the first bandwidth parameter indicates an available bandwidth of an access point; receive a clear to send, CTS, frame from a first station in response to the RTS frame, wherein the CTS includes a second bandwidth parameter, and the second bandwidth parameter is corresponding to bandwidth required by the first station; confirm, based on the receipt of the CTS frame, that an RTS/CTS frame transmission is successful; and send a first trigger frame to the first station, wherein the first trigger frame is used to schedule the first station to send uplink data; when the first bandwidth parameter is greater than the second bandwidth parameter send a second trigger frame to a second station on a channel set corresponding to remaining bandwidth, wherein the second trigger frame is used to schedule the second station to send uplink data.