mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, the method comprising: transmitting, by a first device (120; 320), to a server that manages profiles, a first message for triggering enablement of a first profile, upon determining that a communication link between the first device (120; 320) and a second device (110; 310) is disconnected, wherein the communication link is used for the first device (120; 320) to access a mobile communication network via the second device (110; 310) using a second profile while the second profile is enabled on the second device (110; 310); receiving, by the first device (120; 320), from the server, a second message for enabling the first profile in the first device (120; 320), in response to the first message; and enabling, by the first device (120; 320), the first profile, in response to the second message, wherein the first profile comprises first subscriber information which is used to access to the mobile communication network, wherein the second profile comprises second subscriber information which is used to access to the mobile communication network, and wherein the first profile and the second profile comprise an identical subscriber identification number. transmitting, by a first device (120; 320), to a server that manages profiles, a first message for triggering enablement of a first profile, upon determining that a communication link between the first device (120; 320) and a second device (110; 310) is disconnected, wherein the communication link is used for the first device (120; 320) to access a mobile communication network via the second device (110; 310) using a second profile while the second profile is enabled on the second device (110; 310); receiving, by the first device (120; 320), from the server, a second message for enabling the first profile in the first device (120; 320), in response to the first message; and enabling, by the first device (120; 320), the first profile, in response to the second message, wherein the first profile comprises first subscriber information which is used to access to the mobile communication network, wherein the second profile comprises second subscriber information which is used to access to the mobile communication network, and wherein the first profile and the second profile comprise an identical subscriber identification number.
A method for controlling a household appliance , in particular a cooking appliance, for example a cooking hob, comprising the following steps - transmission of an information signal, in particular a command signal, to a control unit and/or a user interface of the household appliance by a user of the household appliance with the help of a remote control device , - starting a time period for waiting for a confirmation signal from the user, - receiving the user's confirmation signal via a confirmation trigger arrangement , processing the information signal by a control unit of the household appliance , wherein the information signal is not processed by the control unit as long as the confirmation signal has not been received and a time interval is predefined, in the space of which the confirmation signal is accepted by the control unit or the user interface , wherein the confirmation signal indicates the user's presence close by the household appliance and ensures a line of sight of the user to the household appliance , the method being characterized in that the time interval is a period with a duration of 1 to 300 seconds, preferably with a duration of 5 to 180 seconds, more preferably with a duration of 10 to 120 seconds, the confirmation signal is a presence detection signal in the form of an infrared signal, a camera signal, a photo sensor signal, a light beam signal or a modulated or unmodulated electromagnetic signal, identifying a user's, presence close by the household appliance . - transmission of an information signal, in particular a command signal, to a control unit and/or a user interface of the household appliance by a user of the household appliance with the help of a remote control device , - starting a time period for waiting for a confirmation signal from the user, - receiving the user's confirmation signal via a confirmation trigger arrangement , processing the information signal by a control unit of the household appliance , wherein the information signal is not processed by the control unit as long as the confirmation signal has not been received and a time interval is predefined, in the space of which the confirmation signal is accepted by the control unit or the user interface , wherein the confirmation signal indicates the user's presence close by the household appliance and ensures a line of sight of the user to the household appliance , the method being characterized in that the time interval is a period with a duration of 1 to 300 seconds, preferably with a duration of 5 to 180 seconds, more preferably with a duration of 10 to 120 seconds, the confirmation signal is a presence detection signal in the form of an infrared signal, a camera signal, a photo sensor signal, a light beam signal or a modulated or unmodulated electromagnetic signal, identifying a user's, presence close by the household appliance .
An apparatus comprising: a processor; a user interface operated by the processor and configured to receive, from a user node , a request for cloud computing resource to be allocated for execution of a computational task; a control node operatively coupled to the user interface, and configured to determine if the request requests for processing capacity in excess of a threshold, and, if said requested capacity is in excess of said threshold, to determine whether a cluster of computing nodes is available for allocation and comprise computational resources sufficient to meet the request, and to allocate the cluster of computing nodes for native execution of the computational task, on determining that the cluster of computing nodes comprises computational resources sufficient to meet the request and available for allocation, wherein the cluster of computing nodes is coupled to other clusters of computing nodes via a data communication network ; and a network/cluster interface operatively coupled to the control node and configured to segment or cause to be segmented the data communication network to isolate the cluster of computing nodes from the other clusters of computing nodes , on allocating the cluster of computer nodes for native execution of the computational task, wherein said segmenting is performed by issuing instructions to operators to physically decouple networking elements in the communication network to physically isolate the cluster of computing nodes from the other clusters of computing nodes . a processor; a user interface operated by the processor and configured to receive, from a user node , a request for cloud computing resource to be allocated for execution of a computational task; a control node operatively coupled to the user interface, and configured to determine if the request requests for processing capacity in excess of a threshold, and, if said requested capacity is in excess of said threshold, to determine whether a cluster of computing nodes is available for allocation and comprise computational resources sufficient to meet the request, and to allocate the cluster of computing nodes for native execution of the computational task, on determining that the cluster of computing nodes comprises computational resources sufficient to meet the request and available for allocation, wherein the cluster of computing nodes is coupled to other clusters of computing nodes via a data communication network ; and a network/cluster interface operatively coupled to the control node and configured to segment or cause to be segmented the data communication network to isolate the cluster of computing nodes from the other clusters of computing nodes , on allocating the cluster of computer nodes for native execution of the computational task, wherein said segmenting is performed by issuing instructions to operators to physically decouple networking elements in the communication network to physically isolate the cluster of computing nodes from the other clusters of computing nodes .
A method for data transmission, comprising determining, by a network device, a numerology used in transmitting data ; sending, by the network device according to the numerology, Downlink Control Information, DCI, configured to schedule the data to a terminal device , wherein the numerology comprises a subcarrier spacing and a signal prefix length, and the subcarrier spacing is a frequency interval, selected from at least one of 15kHz, 30kHz, 60kHz or 120kHz, between adjacent subcarriers, different subcarrier spacings correspond to different DCI formats of DCI, and used for data transmission on different frequency bands, and the signal prefix length indicates whether a Cyclic Prefix, CP, uses a normal CP or an extended CP; and sending, by the network device, the data to the terminal device or receiving the data sent by the terminal device according to the numerology and the DCI , determining, by a network device, a numerology used in transmitting data ; sending, by the network device according to the numerology, Downlink Control Information, DCI, configured to schedule the data to a terminal device , wherein the numerology comprises a subcarrier spacing and a signal prefix length, and the subcarrier spacing is a frequency interval, selected from at least one of 15kHz, 30kHz, 60kHz or 120kHz, between adjacent subcarriers, different subcarrier spacings correspond to different DCI formats of DCI, and used for data transmission on different frequency bands, and the signal prefix length indicates whether a Cyclic Prefix, CP, uses a normal CP or an extended CP; and sending, by the network device, the data to the terminal device or receiving the data sent by the terminal device according to the numerology and the DCI ,
A surfactant formulation for use in chemical enhanced oil recovery, wherein said surfactant formulation comprises at least: i) an anionic salt of an alkyl alkoxylated sulfate, wherein said alkyl alkoxylated sulfate has a molecular structure as shown in [I]: wherein R is a linear, branched or mixture of linear and branched alkyl group having from 10 to 20 carbon atoms, n = 4 − 15 , m = 0 − 10 , M + is an alkali metal ion, an alkanolamine ion, an alkyl amine ion or an ammonium ion; and ii) a non-ionic alcohol ethoxylate, wherein said alcohol ethoxylate has a molecular structure as shown in [II]: wherein R 1 is a linear, branched or mixture of linear and branched alkyl group having from 8 to 24 carbon atoms, 40 < y ≤ 100 , and the weight ratio of i) / ii) is from 6:1 to 1:6. i) an anionic salt of an alkyl alkoxylated sulfate, wherein said alkyl alkoxylated sulfate has a molecular structure as shown in [I]: wherein R is a linear, branched or mixture of linear and branched alkyl group having from 10 to 20 carbon atoms, n = 4 − 15 , m = 0 − 10 , M + is an alkali metal ion, an alkanolamine ion, an alkyl amine ion or an ammonium ion; and R is a linear, branched or mixture of linear and branched alkyl group having from 10 to 20 carbon atoms, n = 4 − 15 , m = 0 − 10 , M + is an alkali metal ion, an alkanolamine ion, an alkyl amine ion or an ammonium ion; and ii) a non-ionic alcohol ethoxylate, wherein said alcohol ethoxylate has a molecular structure as shown in [II]: wherein R 1 is a linear, branched or mixture of linear and branched alkyl group having from 8 to 24 carbon atoms, 40 < y ≤ 100 , and the weight ratio of i) / ii) is from 6:1 to 1:6. R 1 is a linear, branched or mixture of linear and branched alkyl group having from 8 to 24 carbon atoms, 40 < y ≤ 100 , and the weight ratio of i) / ii) is from 6:1 to 1:6.
A method of receiving a physical downlink shared channel, PDSCH, by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S1601), via a first short transmission time interval, sTTI, a physical downlink control channel, PDCCH, that comprises (i) information for scheduling k repetitions of the PDSCH and (ii) rate matching information for the PDSCH; receiving (S1605) the PDSCH repeatedly in the first sTTI and (k-1) second sTTI subsequent to the first sTTI based on the rate matching information; and transmitting, in a third sTTI, Hybrid Automatic Repeat Request - Acknowledgement, HARQ-ACK, for the repeatedly received PDSCH, wherein the rate matching information is commonly applied to each of the first sTTI and the (k-1) second sTTI, wherein the third sTTI for transmitting the HARQ-ACK is determined based on a last of the (k-1) second sTTI in which the PDSCH was repeatedly received, and wherein k is a positive integer, and k is greater than 1. receiving (S1601), via a first short transmission time interval, sTTI, a physical downlink control channel, PDCCH, that comprises (i) information for scheduling k repetitions of the PDSCH and (ii) rate matching information for the PDSCH; receiving (S1605) the PDSCH repeatedly in the first sTTI and (k-1) second sTTI subsequent to the first sTTI based on the rate matching information; and transmitting, in a third sTTI, Hybrid Automatic Repeat Request - Acknowledgement, HARQ-ACK, for the repeatedly received PDSCH, wherein the rate matching information is commonly applied to each of the first sTTI and the (k-1) second sTTI, wherein the third sTTI for transmitting the HARQ-ACK is determined based on a last of the (k-1) second sTTI in which the PDSCH was repeatedly received, and wherein k is a positive integer, and k is greater than 1.
A vehicle body structure comprising: a left side floor member and a right side floor member having tilted portions tilted to a vehicle outer side from a vehicle front side toward a vehicle rear side in a top view; and a brace portion connecting a left tilted portion which is the tilted portion of the left side floor member and a right tilted portion which is the tilted portion of the right side floor member . the vehicle body structure being characterized in that the brace portion includes a first brace member in which left and right ends respectively fixed to the left tilted portion and the right tilted portion are tilted toward the vehicle rear side from a central portion, a second brace member which is provided closer to the vehicle rear side than the first brace member and which has left and right ends respectively fixed to the left tilted portion and the right tilted portion, and a cross-shaped third brace member which links the left end of the first brace member and the right end of the second brace member and links the right end of the first brace member and the left end of the second brace member . a left side floor member and a right side floor member having tilted portions tilted to a vehicle outer side from a vehicle front side toward a vehicle rear side in a top view; and a brace portion connecting a left tilted portion which is the tilted portion of the left side floor member and a right tilted portion which is the tilted portion of the right side floor member . the vehicle body structure being characterized in that the brace portion includes a first brace member in which left and right ends respectively fixed to the left tilted portion and the right tilted portion are tilted toward the vehicle rear side from a central portion, a second brace member which is provided closer to the vehicle rear side than the first brace member and which has left and right ends respectively fixed to the left tilted portion and the right tilted portion, and a cross-shaped third brace member which links the left end of the first brace member and the right end of the second brace member and links the right end of the first brace member and the left end of the second brace member .
An all-in-one electrode stack unit comprising: a first electrode , a second electrode , and a separation layer interposed between the first electrode and the second electrode , wherein the separation layer is a photocured PSA (pressure sensitive adhesive) coating layer integrally formed on the first electrode , wherein the separation layer has a strength of 30 to 50 MPa, and an adhesive force to the second electrode of 70gf/20mm to 90gf/20mm, and wherein the first electrode , the separation layer , and the second electrode are laminated, wherein the photocured PSA coating layer is a polymer coating layer containing ceramic particles, wherein the photocured PSA coating layer is obtained by curing a PSA solvent-free ink containing: • 10 to 30% by weight of the ceramic particles, • 45 to 65% by weight of a monofunctional monomer, • 10 to 15% by weight of a polyfunctional monomer, • 5 to 10% by weight of an oligomer, and • 0.1 to 0.8% by weight of an initiator, wherein the monomers and oligomer are chosen from acrylate-based or epoxy-based monomers or oligomer, wherein the adhesive force is determined as described on p.12, wherein the strength is determined as described on p.12-13. a first electrode , a second electrode , and a separation layer interposed between the first electrode and the second electrode , wherein the separation layer is a photocured PSA (pressure sensitive adhesive) coating layer integrally formed on the first electrode , wherein the separation layer has a strength of 30 to 50 MPa, and an adhesive force to the second electrode of 70gf/20mm to 90gf/20mm, and wherein the first electrode , the separation layer , and the second electrode are laminated, wherein the photocured PSA coating layer is a polymer coating layer containing ceramic particles, wherein the photocured PSA coating layer is obtained by curing a PSA solvent-free ink containing: • 10 to 30% by weight of the ceramic particles, • 45 to 65% by weight of a monofunctional monomer, • 10 to 15% by weight of a polyfunctional monomer, • 5 to 10% by weight of an oligomer, and • 0.1 to 0.8% by weight of an initiator, • 10 to 30% by weight of the ceramic particles, • 45 to 65% by weight of a monofunctional monomer, • 10 to 15% by weight of a polyfunctional monomer, • 5 to 10% by weight of an oligomer, and • 0.1 to 0.8% by weight of an initiator, wherein the monomers and oligomer are chosen from acrylate-based or epoxy-based monomers or oligomer, wherein the adhesive force is determined as described on p.12, wherein the strength is determined as described on p.12-13.
A sample holder for use in an ion milling apparatus for milling a sample by an ion beam, said sample holder comprising: a shield member for shielding the sample from that ion beam when installed in the ion milling apparatus except for a portion to be milled, the shield member having an edge portion for determining a milling position on or in the sample ; and a sample locking member that cooperates with the shield member such that the sample is sandwiched and held therebetween; wherein the sample locking member has a support portion which is disposed downstream of the edge portion in the direction of that ion beam and which cooperates with the edge portion to support the milled portion therebetween; and wherein the support portion has a first surface making contact with the sample and a second surface making a given angle to the first surface , the given angle being equal to or less than 90°, characterized in that said sample and said sample locking member are arranged to be simultaneously milled by that ion beam when installed in the ion milling apparatus . a shield member for shielding the sample from that ion beam when installed in the ion milling apparatus except for a portion to be milled, the shield member having an edge portion for determining a milling position on or in the sample ; and a sample locking member that cooperates with the shield member such that the sample is sandwiched and held therebetween; wherein the sample locking member has a support portion which is disposed downstream of the edge portion in the direction of that ion beam and which cooperates with the edge portion to support the milled portion therebetween; and wherein the support portion has a first surface making contact with the sample and a second surface making a given angle to the first surface , the given angle being equal to or less than 90°, characterized in that said sample and said sample locking member are arranged to be simultaneously milled by that ion beam when installed in the ion milling apparatus .
An oral care implement comprising: a head (120; 120a; 120b) extending along a longitudinal axis (A-A) and having a bristle bearing surface (123; 123a), a rear surface (124; 124a) opposite the bristle bearing surface (123; 123a), and a side surface extending between the bristle bearing surface (123; 123a) and the rear surface (124; 124a); a central bristle tuft (130; 130a; 130b) extending from a central portion of the bristle bearing surface (123; 123a); and a plurality of perimetric bristle tufts (160; 160a) arranged to circumferentially surround the central bristle tuft (130; 130a; 130b), each of the plurality of perimetric bristle tufts (160; 160a) comprising an inclined distal surface (165; 165a) that slopes downward toward the central bristle tuft (130; 130a; 130b); characterized in that the central bristle tuft (130; 130a; 130b) terminates in a domed distal surface (132; 132a); no individual one of the central bristle tuft (130; 130a; 130b) and the plurality of perimetric bristle tufts (160; 160a) occupies more than 9% of a total surface area of the bristle bearing surface (123; 123a); and the central bristle tuft (130; 130a; 130b) and the plurality of perimetric bristle tufts (160; 160a) collectively occupy at least 50% of a total surface area of the bristle bearing surface (123; 123a). a head (120; 120a; 120b) extending along a longitudinal axis (A-A) and having a bristle bearing surface (123; 123a), a rear surface (124; 124a) opposite the bristle bearing surface (123; 123a), and a side surface extending between the bristle bearing surface (123; 123a) and the rear surface (124; 124a); a central bristle tuft (130; 130a; 130b) extending from a central portion of the bristle bearing surface (123; 123a); and a plurality of perimetric bristle tufts (160; 160a) arranged to circumferentially surround the central bristle tuft (130; 130a; 130b), each of the plurality of perimetric bristle tufts (160; 160a) comprising an inclined distal surface (165; 165a) that slopes downward toward the central bristle tuft (130; 130a; 130b); characterized in that the central bristle tuft (130; 130a; 130b) terminates in a domed distal surface (132; 132a); no individual one of the central bristle tuft (130; 130a; 130b) and the plurality of perimetric bristle tufts (160; 160a) occupies more than 9% of a total surface area of the bristle bearing surface (123; 123a); and the central bristle tuft (130; 130a; 130b) and the plurality of perimetric bristle tufts (160; 160a) collectively occupy at least 50% of a total surface area of the bristle bearing surface (123; 123a).
Fence intended to surround a surface of land, comprising: a frame of pickets installed vertically, arranged in parallel and at a distance from each other and fixed by means of one or more cross-slats ; wherein a series of slats is foreseen between the said pickets and wherein one or more slats are supported by a fixing element , of which said fixing element comprises a suspension hookable to said cross-slat and said fixing element comprises a support foot at a lower end of a slat , said support foot being equipped with an elastically deformable lip , which can be inserted in an internal space at the lower end of a slat , characterised in that said elastically deformable lip is made with a curved part for fixing a slat .