mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by an access node of a region from a plurality of regions in a cellular network to control access to the cellular network, the method comprising: - generating an access information table, AIT; - sending the AIT to a plurality of communication devices, wherein the AIT is associated with the region to which the access node belongs, and the AIT comprises an indicator and a group of entries, the indicator indicating the AIT of the region, and each entry of the group indicating one or more parameters for controlling access of communication devices to the cellular network; - sending a first signature sequence to the plurality of communication devices, wherein the first signature sequence is further mapped to the indicator; and - sending a second signature sequence to the plurality of communication devices, wherein the second signature sequence is associated with the access node and is further mapped to an identifier indicating an entry of the AIT. - generating an access information table, AIT; - sending the AIT to a plurality of communication devices, wherein the AIT is associated with the region to which the access node belongs, and the AIT comprises an indicator and a group of entries, the indicator indicating the AIT of the region, and each entry of the group indicating one or more parameters for controlling access of communication devices to the cellular network; - sending a first signature sequence to the plurality of communication devices, wherein the first signature sequence is further mapped to the indicator; and - sending a second signature sequence to the plurality of communication devices, wherein the second signature sequence is associated with the access node and is further mapped to an identifier indicating an entry of the AIT.
An cyanate transporter family protein variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein aspartic acid, which is an amino acid corresponding to position 259 of SEQ ID NO: 3, is substituted with asparagine.
A method for rotating a rotatable part about at least one axis of rotation of a machine for processing plastics and other plasticizable materials, in particular an injection molding machine, having at least one movable segment for the manufacture of at least one molded part, wherein movement of the at least one segment is at least partly overlapped by movement of the rotatable part , characterized in that the movement of the rotatable part is started when the spacing between the at least one segment and the rotatable part is greater than a molded part height of a molded part that is to be manufactured on the machine , and the rotatable part is mounted on and/or on top of a movable table , and movement of the table is at least partly overlapped by the movement of the at least one segment and/or the movement of the rotatable part and the movements of the at least one segment , the movable table and/or the rotatable part are at least partly coupled to one another and that the movements of the segment , the movable table and/or the rotatable part are dependent on each other.
A holder for an aerosol generating article , comprising: a mouthpiece having a mouth end and a distal end and defining a passage extending from the mouth end to the distal end, wherein the passage is configured to receive the aerosol generating article inserted in a direction from the distal end towards the mouth end; a cage extending from the mouthpiece and configured to surround at least a portion of a heat source of the aerosol generating article and configured to allow air to access the heat source, wherein the cage is slidable about the mouthpiece; and a seal extending from an inner surface of the cage, wherein the seal is arranged to surround and contact the aerosol generating article downstream of the heat source, wherein the mouthpiece defines a flange and the cage defines a stop configured to engage the flange as the cage is distally advanced over the mouthpiece. a mouthpiece having a mouth end and a distal end and defining a passage extending from the mouth end to the distal end, wherein the passage is configured to receive the aerosol generating article inserted in a direction from the distal end towards the mouth end; a cage extending from the mouthpiece and configured to surround at least a portion of a heat source of the aerosol generating article and configured to allow air to access the heat source, wherein the cage is slidable about the mouthpiece; and a seal extending from an inner surface of the cage, wherein the seal is arranged to surround and contact the aerosol generating article downstream of the heat source, wherein the mouthpiece defines a flange and the cage defines a stop configured to engage the flange as the cage is distally advanced over the mouthpiece.
A user equipment, comprising means configured for receiving a first message from a first network node as an encrypted message dedicated to the user equipment, the first message indicating information for at least one network slice in one or more radio network areas, wherein the information of the first message indicates, for each of the one or more radio network areas, how a given network slice is indexed in a second message in a given radio network area; receiving a second message from a second network node as a broadcasted message, the second message indicating configuration information for one or more network slices, wherein the configuration information of the second message indicates a mapping between different configurations and different network slices, wherein each network slice is identified in the second message by an index specific to the radio network area where the second message is received, and the configuration information of the second message indicates a random access configuration for a given network slice in the radio network area where the second message is received; determining a configuration to be used for a given network slice based on the first and second messages. receiving a first message from a first network node as an encrypted message dedicated to the user equipment, the first message indicating information for at least one network slice in one or more radio network areas, wherein the information of the first message indicates, for each of the one or more radio network areas, how a given network slice is indexed in a second message in a given radio network area; receiving a second message from a second network node as a broadcasted message, the second message indicating configuration information for one or more network slices, wherein the configuration information of the second message indicates a mapping between different configurations and different network slices, wherein each network slice is identified in the second message by an index specific to the radio network area where the second message is received, and the configuration information of the second message indicates a random access configuration for a given network slice in the radio network area where the second message is received; determining a configuration to be used for a given network slice based on the first and second messages.
A cell stack comprising a plurality of single cells , wherein each single cell comprises a membrane electrode assembly having a cathode , an anode , and an interposed membrane , as well as an anode gas diffusion layer arranged on the exposed side of the anode having a first thickness gradient in the transverse machine direction (y) or a sintered titanium component and a cathode gas diffusion layer arranged on the exposed side of the cathode having a second thickness gradient in the transverse machine direction (y), wherein a) in a single cell , the anode gas diffusion layer and the cathode gas diffusion layer are arranged in relation to one another such that the first thickness gradient of the anode gas diffusion layer and the second thickness gradient of the cathode gas diffusion layer run opposite to one another or b) in two or more single cells , the anode gas diffusion layers are arranged in relation to one another such that an overall thickness gradient of these anode gas diffusion layers is minimized and/or wherein in two or more single cells , the cathode gas diffusion layers are arranged in relation to one another such that an overall thickness gradient of these cathode gas diffusion layers is minimized. a) in a single cell , the anode gas diffusion layer and the cathode gas diffusion layer are arranged in relation to one another such that the first thickness gradient of the anode gas diffusion layer and the second thickness gradient of the cathode gas diffusion layer run opposite to one another or b) in two or more single cells , the anode gas diffusion layers are arranged in relation to one another such that an overall thickness gradient of these anode gas diffusion layers is minimized and/or wherein in two or more single cells , the cathode gas diffusion layers are arranged in relation to one another such that an overall thickness gradient of these cathode gas diffusion layers is minimized.
A respirator comprising: a mask body ; a harness attached to the mask body ; and an exhalation valve comprising a valve seat and a flexible flap that is in engagement with the valve seat , characterized in that the flexible flap comprises a band shifting film. comprising: a mask body ; a harness attached to the mask body ; and an exhalation valve comprising a valve seat and a flexible flap that is in engagement with the valve seat , characterized in that the flexible flap comprises a band shifting film.
A vaccine comprising a) H5 protein of influenza virus, wherein the H5 protein consists of or comprises any one of the sequences as set forth in SEQ ID NOs: 2 to 12, or 35 or 36 or 40; b) a pharmaceutical acceptable carrier and/or excipient. a) H5 protein of influenza virus, wherein the H5 protein consists of or comprises any one of the sequences as set forth in SEQ ID NOs: 2 to 12, or 35 or 36 or 40; b) a pharmaceutical acceptable carrier and/or excipient.
A midsole for an article of footwear, the midsole comprising: a midsole body having a first side and a second side , which face away from one another, and a medial side and a lateral side ; a plurality of sipes incised into the first side and extending at least partially through the midsole body; and a plurality of grooves constructed into an outermost surface of the second side , such that a portion of the outermost surface is omitted at positions corresponding with the plurality of grooves , wherein a cross-sectional reference plane extends from the medial side to the lateral side and generally perpendicular with the first side and the second side , and wherein, in the cross-sectional reference plane, the portion of the outermost surface that is omitted comprises a percentage of the outermost surface in a range of 20 percent to 50 percent.
An organic light-emitting display panel, comprising: a substrate including a plurality of sub-pixels (SP), each sub-pixel (SP) comprising: an emission portion, a non-emission portion, and a first electrode disposed in at least the emission portion; a bank disposed in the non-emission portions; a first common layer disposed on the first electrodes in the emission portions and on the bank ; an auxiliary pattern disposed on the first common layer , only above the bank between the emission portions of at least two adjacent of the sub-pixels and in direct contact with the first common layer , the auxiliary pattern having an electron transport property; a second common layer disposed on the auxiliary pattern and the first common layer , wherein the auxiliary pattern is in direct contact with the second common layer ; and the sub-pixels (SP) comprising a light-emitting layer disposed on the second common layer ; wherein the first common layer and the second common layer have hole transport properties and wherein the first common layer and the second common layer are in direct contact in the emission portion. a substrate including a plurality of sub-pixels (SP), each sub-pixel (SP) comprising: an emission portion, a non-emission portion, and a first electrode disposed in at least the emission portion; a bank disposed in the non-emission portions; a first common layer disposed on the first electrodes in the emission portions and on the bank ; an auxiliary pattern disposed on the first common layer , only above the bank between the emission portions of at least two adjacent of the sub-pixels and in direct contact with the first common layer , the auxiliary pattern having an electron transport property; a second common layer disposed on the auxiliary pattern and the first common layer , wherein the auxiliary pattern is in direct contact with the second common layer ; and the sub-pixels (SP) comprising a light-emitting layer disposed on the second common layer ; wherein the first common layer and the second common layer have hole transport properties and wherein the first common layer and the second common layer are in direct contact in the emission portion.
A computer-implemented method for generating a digital signature for a participant entity of a secure communications network system comprising a central signing service in a public network, the method performed by the central signing service and comprising the steps of: receiving an endpoint signature request from the participant entity for an endpoint of a domain associated with the participant entity, the endpoint signature request comprising a domain name and an access token of the participant entity; validating the access token and looking up the domain name in a data store of the central signing service; retrieving a domain name system, DNS, signature of the participant entity from a data store in a DNS; and validating the DNS signature using a private key of a key pair of the central signing service, where on successful validation of the DNS signature, the method further comprises the steps of: retrieving a configuration of the endpoint; generating an endpoint signature from the configuration of the endpoint; and sending the endpoint signature to the participant entity. receiving an endpoint signature request from the participant entity for an endpoint of a domain associated with the participant entity, the endpoint signature request comprising a domain name and an access token of the participant entity; validating the access token and looking up the domain name in a data store of the central signing service; retrieving a domain name system, DNS, signature of the participant entity from a data store in a DNS; and validating the DNS signature using a private key of a key pair of the central signing service, where on successful validation of the DNS signature, the method further comprises the steps of: retrieving a configuration of the endpoint; generating an endpoint signature from the configuration of the endpoint; and sending the endpoint signature to the participant entity. retrieving a configuration of the endpoint; generating an endpoint signature from the configuration of the endpoint; and sending the endpoint signature to the participant entity.
A method of bonding an optical member and a holder that holds the optical member , comprising: applying a surface treatment (S101) to at least a part of a surface (S) of at least one of the optical member and the holder to change contact characteristics of the at least the part of the surface (S) with a liquid; and bonding the optical member and the holder to each other (S104) after applying the surface treatment to the at least a part of the surface (S) of the at least one of the optical member and the holder wherein the method further comprises, after the applying the surface treatment: applying (S102) an antireflection paint in a liquid state to the at least the part of the surface (S); characterized by slipping (S103) the antireflection paint applied to a predetermined surface-treated portion of the at least the part of the surface (S); wherein the predetermined surface-treated portion includes a sliding angle (α) of the antireflection paint in a liquid state that is less than 10 degrees, so as to circle an optically used area of the optical member , and wherein the optical member and the holder are bonded to each other with an O-ring therebetween, so that the O-ring comes in contact with the predetermined surface-treated portion. applying a surface treatment (S101) to at least a part of a surface (S) of at least one of the optical member and the holder to change contact characteristics of the at least the part of the surface (S) with a liquid; and bonding the optical member and the holder to each other (S104) after applying the surface treatment to the at least a part of the surface (S) of the at least one of the optical member and the holder wherein the method further comprises, after the applying the surface treatment: applying (S102) an antireflection paint in a liquid state to the at least the part of the surface (S); characterized by slipping (S103) the antireflection paint applied to a predetermined surface-treated portion of the at least the part of the surface (S); wherein the predetermined surface-treated portion includes a sliding angle (α) of the antireflection paint in a liquid state that is less than 10 degrees, so as to circle an optically used area of the optical member , and wherein the optical member and the holder are bonded to each other with an O-ring therebetween, so that the O-ring comes in contact with the predetermined surface-treated portion. applying (S102) an antireflection paint in a liquid state to the at least the part of the surface (S); characterized by slipping (S103) the antireflection paint applied to a predetermined surface-treated portion of the at least the part of the surface (S); wherein the predetermined surface-treated portion includes a sliding angle (α) of the antireflection paint in a liquid state that is less than 10 degrees, so as to circle an optically used area of the optical member , and wherein the optical member and the holder are bonded to each other with an O-ring therebetween, so that the O-ring comes in contact with the predetermined surface-treated portion.
A synthetic resin container comprising a mouth as a dispensing spout for a content medium, a trunk extending contiguous to the mouth via a shoulder , and a bottom closing a lower end of the trunk , wherein the trunk is provided with a plurality of reduced pressure absorbing panels that is formed as a plurality of ribs extending in a vertical direction while twisting in a circumferential direction about a central axis (S) of the trunk and that is arranged side by side in the circumferential direction of the trunk , wherein an angle of the twist of a lower end with respect to an upper end of each of the reduced pressure absorbing panels about the central axis (S) is 50 degrees or more, wherein the reduced pressure absorbing panels each have a depth ( dp ) of at least 2 mm and not more than 3 mm in a radial direction of the trunk , chracterised in that the reduced pressure absorbing panels each have a width ( wp ) of at least 7 mm and not more than 10 mm in the circumferential direction of the trunk .
A coil assembly for magnetic resonance imaging, wherein the coil assembly is a local transmit-receive coil , wherein the coil assembly comprises: - a transmit amplifier ; - one or more coil elements (50 1 , 50 n ), wherein the one or more coil elements are connected to the transmit amplifier; - a preamplifer configured to receive magnetic resonance signals from the one or more coil elements, wherein the preamplifier is configured to send the magnetic resonance signals to a magnetic resonance imaging system wirelessly; - a waveform generator connected to the transmit amplifier, wherein the waveform generator is configured to receive commands wirelessly from the magnetic resonance imaging system; - a clock configured to synchronize the timing of the preamplifier and the waveform generator, wherein the clock is operable as a master clock for the magnetic resonance imaging system; - a peak power storage device configured to power the transmit amplifier; and - a coil power supply configured to supply power to the peak power storage device, the waveform generator, the clock, and the preamplifier, wherein the coil power supply is a rechargeable battery; - a recharging system configured to recharge the coil power supply; and - a trickle charger configured to charge the peak power storage device using the power supply . - a transmit amplifier ; - one or more coil elements (50 1 , 50 n ), wherein the one or more coil elements are connected to the transmit amplifier; - a preamplifer configured to receive magnetic resonance signals from the one or more coil elements, wherein the preamplifier is configured to send the magnetic resonance signals to a magnetic resonance imaging system wirelessly; - a waveform generator connected to the transmit amplifier, wherein the waveform generator is configured to receive commands wirelessly from the magnetic resonance imaging system; - a clock configured to synchronize the timing of the preamplifier and the waveform generator, wherein the clock is operable as a master clock for the magnetic resonance imaging system; - a peak power storage device configured to power the transmit amplifier; and - a coil power supply configured to supply power to the peak power storage device, the waveform generator, the clock, and the preamplifier, wherein the coil power supply is a rechargeable battery; - a recharging system configured to recharge the coil power supply; and - a trickle charger configured to charge the peak power storage device using the power supply .
A coated cutting tool, comprising: a substrate; and a coating layer formed on at least part of a surface of the substrate, wherein, the coating layer includes at least one composite nitride layer having a composition represented by formula below: (Ti x Aly)N wherein, x denotes an atomic ratio of a Ti element based on a total of the Ti element and an Al element, y denotes an atomic ratio of the Al element based on a total of the Ti element and the Al element, and 0.10 ≤ x ≤ 0.50, 0.50 ≤ y ≤ 0.90, and x + y = 1 are satisfied; wherein the composite nitride layer has a phase having a lattice constant of from 0.400 nm or more to 0.430 nm or less, and a phase having a lattice constant of from 0.755 nm or more to 0.810 nm or less, and wherein the composite nitride layer has an average thickness of from 1.5 μm or more to 12.0 μm or less. a substrate; and a coating layer formed on at least part of a surface of the substrate, wherein, the coating layer includes at least one composite nitride layer having a composition represented by formula below: (Ti x Aly)N wherein, x denotes an atomic ratio of a Ti element based on a total of the Ti element and an Al element, y denotes an atomic ratio of the Al element based on a total of the Ti element and the Al element, and 0.10 ≤ x ≤ 0.50, 0.50 ≤ y ≤ 0.90, and x + y = 1 are satisfied; wherein the composite nitride layer has a phase having a lattice constant of from 0.400 nm or more to 0.430 nm or less, and a phase having a lattice constant of from 0.755 nm or more to 0.810 nm or less, and wherein the composite nitride layer has an average thickness of from 1.5 μm or more to 12.0 μm or less.