mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a traffic processing unit for handling traffic in a communication network when the traffic is distributed across a set of traffic processing units, the method comprising: - receiving (2:1, 300) a packet of a traffic flow distributed to said traffic processing unit, - assigning (2:2, 302) a packet class to the received packet, out of a set of predefined classes, based on information derived from the received packet, wherein the packet class is detected (2:3, 304) as being active or inactive in the traffic processing unit based on an activity indicator of the packet class maintained in the traffic processing unit, - obtaining (2:4A/B, 306) state information pertaining to said assigned packet class, such that if the packet class is detected as active the state information is retrieved (2:4A) from a local storage in the traffic processing unit, and if the packet class is detected as inactive the state information is fetched (2:4B) from a central storage where state information of different packet classes is maintained, and - performing (2:5, 308) stateful packet processing of the received packet based on the obtained state information. - receiving (2:1, 300) a packet of a traffic flow distributed to said traffic processing unit, - assigning (2:2, 302) a packet class to the received packet, out of a set of predefined classes, based on information derived from the received packet, wherein the packet class is detected (2:3, 304) as being active or inactive in the traffic processing unit based on an activity indicator of the packet class maintained in the traffic processing unit, - obtaining (2:4A/B, 306) state information pertaining to said assigned packet class, such that if the packet class is detected as active the state information is retrieved (2:4A) from a local storage in the traffic processing unit, and if the packet class is detected as inactive the state information is fetched (2:4B) from a central storage where state information of different packet classes is maintained, and - performing (2:5, 308) stateful packet processing of the received packet based on the obtained state information.
A turbine , comprising: a downstream rotor member and an upstream rotor member , both rotor members being configured to rotate due to the expansion of hot burned gas flowing into a hot gas flow path channel (F), wherein each rotor member comprises a rotor wheel , a plurality of blades and a spacer arranged between two adjacent blades of the downstream rotor member and the facing upstream rotor member , the spacer having an upper surface facing a hot gas ingestion flow (F), and being configured to avoid the ingested gas flow (F', F′′′) from the hot gas flow path channel (F) to reach a wheel space between the facing downstream and upstream rotor members ; and a purging system to introduce purging air (P) in the turbine , wherein the purging air passes through the wheel space , to reach the hot gas flow path channel (F), characterized in that the upstream rotor member comprises a deflector , configured to deflect the ingested gas flow, wherein the deflector has a lower surface spaced apart from the spacer and an upper surface , configured to deflect the possible gas ingestion from the hot gas flow path (F), toward the upper surface of the spacer ; a gap between the lower surface of the deflector and the spacer being configured to allow purging air to flow out of the wheel space ; and wherein the spacer is arranged at a downward angle towards a rotation axis from the upstream rotor member to the downstream rotor member . a downstream rotor member and an upstream rotor member , both rotor members being configured to rotate due to the expansion of hot burned gas flowing into a hot gas flow path channel (F), wherein each rotor member comprises a rotor wheel , a plurality of blades and a spacer arranged between two adjacent blades of the downstream rotor member and the facing upstream rotor member , the spacer having an upper surface facing a hot gas ingestion flow (F), and being configured to avoid the ingested gas flow (F', F′′′) from the hot gas flow path channel (F) to reach a wheel space between the facing downstream and upstream rotor members ; and a purging system to introduce purging air (P) in the turbine , wherein the purging air passes through the wheel space , to reach the hot gas flow path channel (F), characterized in that the upstream rotor member comprises a deflector , configured to deflect the ingested gas flow, wherein the deflector has a lower surface spaced apart from the spacer and an upper surface , configured to deflect the possible gas ingestion from the hot gas flow path (F), toward the upper surface of the spacer ; a gap between the lower surface of the deflector and the spacer being configured to allow purging air to flow out of the wheel space ; and wherein the spacer is arranged at a downward angle towards a rotation axis from the upstream rotor member to the downstream rotor member .
Composition comprising I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and the monohydric alcohol comprises 1 to 15 carbon atoms, and II. at least one reaction product between a sugar alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and wherein the sugar alcohol contains 4 to 12 carbon atoms and 4 to 10 hydroxy groups, and wherein not more than one hydroxy group is attached to each carbon atom, and wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a sugar alcohol and an aldehyde or ketone (group II) is between 20:1 and 1:20, and wherein the reaction products I. and II. are hemiacetals and/or acetals. I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and the monohydric alcohol comprises 1 to 15 carbon atoms, and II. at least one reaction product between a sugar alcohol and an aldehyde or ketone, wherein the aldehyde or ketone contains 1 to 4 carbon atoms, and wherein the sugar alcohol contains 4 to 12 carbon atoms and 4 to 10 hydroxy groups, and wherein not more than one hydroxy group is attached to each carbon atom, and wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a sugar alcohol and an aldehyde or ketone (group II) is between 20:1 and 1:20, and wherein the reaction products I. and II. are hemiacetals and/or acetals. wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a sugar alcohol and an aldehyde or ketone (group II) is between 20:1 and 1:20, and wherein the reaction products I. and II. are hemiacetals and/or acetals.
A method for transmitting and receiving information with a base Station, BS, by a User Equipment, UE, in a wireless communication system, the method comprising: receiving, via a primary cell as a licensed band, uplink grant scheduling of a Physical Uplink Shared CHannel, PUSCH, for an unlicensed band and - receiving from the BS an activation message comprising information on a starting position of the PUSCH, wherein the activation message is received after the uplink grant is received; performing a carrier sensing on the unlicensed band for a time duration; and transmitting the PUSCH through the unlicensed band based on the uplink grant and the information on the starting position of the PUSCH, wherein the PUSCH is transmitted on the unlicensed band based on the unlicensed band being sensed to be idle during the time duration. receiving, via a primary cell as a licensed band, uplink grant scheduling of a Physical Uplink Shared CHannel, PUSCH, for an unlicensed band and - receiving from the BS an activation message comprising information on a starting position of the PUSCH, wherein the activation message is received after the uplink grant is received; - receiving from the BS an activation message comprising information on a starting position of the PUSCH, wherein the activation message is received after the uplink grant is received; performing a carrier sensing on the unlicensed band for a time duration; and transmitting the PUSCH through the unlicensed band based on the uplink grant and the information on the starting position of the PUSCH, wherein the PUSCH is transmitted on the unlicensed band based on the unlicensed band being sensed to be idle during the time duration.
A method for wireless communication performed at a network access device, comprising: receiving , from a user equipment, UE, during a random access procedure performed by the UE, precoder selection signals from at least two antennas of the UE, at least one of the precoder selection signals comprising a first measurement reference signal, MRS, from a first antenna of the UE and a second MRS from a second antenna of the UE, the first MRS configured as a first sounding reference signal, SRS, and the second MRS configured as a second SRS; determining a refined precoding setting based at least in part on the first MRS, the second MRS, and the received precoder selection signals, in which the refined precoding setting includes a precoding setting applied by the UE to at least one transmission in the random access procedure; and transmitting an indication of the refined precoding setting to the UE. receiving , from a user equipment, UE, during a random access procedure performed by the UE, precoder selection signals from at least two antennas of the UE, at least one of the precoder selection signals comprising a first measurement reference signal, MRS, from a first antenna of the UE and a second MRS from a second antenna of the UE, the first MRS configured as a first sounding reference signal, SRS, and the second MRS configured as a second SRS; determining a refined precoding setting based at least in part on the first MRS, the second MRS, and the received precoder selection signals, in which the refined precoding setting includes a precoding setting applied by the UE to at least one transmission in the random access procedure; and transmitting an indication of the refined precoding setting to the UE.
Electric drive axle of a vehicle having a parking lock and having at least one electric drive (EM) with a drive gear of a drive shaft , wherein the drive gear is coupled via at least one intermediate gear of an intermediate shaft to an output gear of a differential gear mechanism to drive at least one output shaft , wherein, to decouple the electric drive (EM), at least one claw shifting element is assigned to the drive shaft and/or the intermediate shaft in such a way that the claw shifting element is arranged upstream of the parking lock in the power flow direction starting from the electric drive (EM) to the differential gear mechanism , characterized in that an axially displaceable shifting claw of the claw shifting element is arranged coaxially with the drive shaft and can be brought into engagement with driver toothing of the drive shaft , and a parking lock gear of the parking lock is designed as an idler gear of the drive shaft and can be brought into operative connection with the locking pawl of the parking lock, and in that the intermediate gear is designed as a fixed gear of the intermediate shaft .
Method of installing a subsea support system , wherein the subsea support system comprises: - a foundation assembly ; - a conductor housing for supporting a wellhead ; - a connection arrangement between the foundation assembly and the conductor housing ; wherein the method comprises the steps of: - prior to installing the subsea support system subsea, releasably connecting the conductor housing to the foundation assembly thereby fixing the conductor housing relative the foundation assembly ; - installing the subsea support system subsea in one run; - after installation of the subsea support system , releasing the connection arrangement such as to release the conductor housing from the foundation assembly thereby allowing parallel movement of the conductor housing along a longitudinal direction of a through-going opening of the conductor housing . - a foundation assembly ; - a conductor housing for supporting a wellhead ; - a connection arrangement between the foundation assembly and the conductor housing ; - prior to installing the subsea support system subsea, releasably connecting the conductor housing to the foundation assembly thereby fixing the conductor housing relative the foundation assembly ; - installing the subsea support system subsea in one run; - after installation of the subsea support system , releasing the connection arrangement such as to release the conductor housing from the foundation assembly thereby allowing parallel movement of the conductor housing along a longitudinal direction of a through-going opening of the conductor housing .
Method for passive access control using a mobile device used as a key and an interaction unit, wherein the mobile device and the interaction unit each have at least one data communication device for interchanging authorization information, having the steps of: - carrying out an electronic distance measurement between the mobile device and the interaction unit , wherein the electronic distance measurement is based on a propagation time measurement of a radio signal; and - allowing access and/or interaction only when the distance between the mobile device and the interaction unit is within a permitted distance , wherein the mobile device and the interaction unit each measure the distance , and wherein access and/or interaction is/are allowed only when a difference between the two measured distances is zero or less than a predefined limit value. - carrying out an electronic distance measurement between the mobile device and the interaction unit , wherein the electronic distance measurement is based on a propagation time measurement of a radio signal; and - allowing access and/or interaction only when the distance between the mobile device and the interaction unit is within a permitted distance , wherein the mobile device and the interaction unit each measure the distance , and wherein access and/or interaction is/are allowed only when a difference between the two measured distances is zero or less than a predefined limit value.
Luminous device for a motor vehicle , said device comprising a plurality of light sources and an optical system configured to produce an output beam from light rays generated by at least some of the plurality of light sources, and comprising - a first luminous module comprising a row of first illuminating units each configured to produce a slope-comprising unitary beam that is formed by a first unitary beam having a first-unitary-beam shape comprising an upper segment endowed with a first lateral edge comprising a slope extending to a top of the upper segment of the first unitary beam so that a widthwise dimension of the upper segment tends to decrease towards the top; - a second luminous module comprising a row of second illuminating units each configured to produce a second unitary beam having a second-unitary-beam shape comprising a rectangular upper segment; and characterized in that each of the first unitary beams is associated with one of the second unitary beams so that an upper corner of the upper segment of the second unitary beam of said one of the second unitary beams coincides with the top of the upper segment of the associated first unitary beam and so that the upper segment of the second unitary beam extends laterally from said upper corner away from the slope of the associated first unitary beam . - a first luminous module comprising a row of first illuminating units each configured to produce a slope-comprising unitary beam that is formed by a first unitary beam having a first-unitary-beam shape comprising an upper segment endowed with a first lateral edge comprising a slope extending to a top of the upper segment of the first unitary beam so that a widthwise dimension of the upper segment tends to decrease towards the top; - a second luminous module comprising a row of second illuminating units each configured to produce a second unitary beam having a second-unitary-beam shape comprising a rectangular upper segment;
A conjugate, comprising a mesoporous nanoparticle having a plurality of pores, wherein the mesoporous nanoparticle is positively charged, wherein an active agent is kanamycin and the kanamycin is disposed in the pore; a plurality of metal nanoclusters, wherein the metal nanocluster has a negative charge, wherein a gate agent is lysozyme and the lysozyme_is attached to the metal nanocluster; wherein an electrostatic interaction causes the metal nanoclusters to seal in the active agent in the pore, wherein the gate agent is positioned on the outside surface of the conjugate so that it interacts with a gate target, wherein the active agent moves out of the pore upon removal of the metal nanocluster. a mesoporous nanoparticle having a plurality of pores, wherein the mesoporous nanoparticle is positively charged, wherein an active agent is kanamycin and the kanamycin is disposed in the pore; a plurality of metal nanoclusters, wherein the metal nanocluster has a negative charge, wherein a gate agent is lysozyme and the lysozyme_is attached to the metal nanocluster; wherein an electrostatic interaction causes the metal nanoclusters to seal in the active agent in the pore, wherein the gate agent is positioned on the outside surface of the conjugate so that it interacts with a gate target, wherein the active agent moves out of the pore upon removal of the metal nanocluster.
A magnetic tunnel junction (MTJ) device , comprising: two magnetic tunnel junction elements arranged side by side at a first direction (X1) in a dielectric layer and connected to first metal lines ; and a metal interconnection disposed between the two magnetic tunnel junction elements in the dielectric layer and directly contacting a second metal line , wherein the metal interconnection comprises a contact plug part and a metal part stacked from bottom to top, the contact plug part has a first long shape (S1) at a top view, and the first long shape has a length (L1) at a second direction (X2) larger than a width (W1) at the first direction (X1), wherein the second direction (X2) is orthogonal to the first direction (X1), wherein the metal part has a second long shape (S2) at the top view, and the second long shape (S2) has a length (L4) at the second direction larger than a width (W3) at the first direction, and the first long shape (S1) has an oval shape while the second long shape (S2) has a rectangular shape, wherein an extension of a line passing through the width (W1) of the contact plug part along the first direction (X1) passes through the two magnetic tunnel junction elements . two magnetic tunnel junction elements arranged side by side at a first direction (X1) in a dielectric layer and connected to first metal lines ; and a metal interconnection disposed between the two magnetic tunnel junction elements in the dielectric layer and directly contacting a second metal line , wherein the metal interconnection comprises a contact plug part and a metal part stacked from bottom to top, the contact plug part has a first long shape (S1) at a top view, and the first long shape has a length (L1) at a second direction (X2) larger than a width (W1) at the first direction (X1), wherein the second direction (X2) is orthogonal to the first direction (X1), wherein the metal part has a second long shape (S2) at the top view, and the second long shape (S2) has a length (L4) at the second direction larger than a width (W3) at the first direction, and the first long shape (S1) has an oval shape while the second long shape (S2) has a rectangular shape, wherein an extension of a line passing through the width (W1) of the contact plug part along the first direction (X1) passes through the two magnetic tunnel junction elements .
A method of a user equipment, UE , for controlling uplink power in a wireless communication system, the method comprising: establishing a first link with a first base station, BS and receiving first power headroom report, PHR, related control information of the first BS comprising a periodic timer of the first BS, a prohibit timer of the first BS, and a first power headroom change threshold for the first BS; establishing a second link with a second BS and receiving second PHR related control information of the second BS comprising a periodic timer of the second BS, a prohibit timer of the second BS, and a second power headroom change threshold for the second BS, wherein the first BS and second BS are configured in a dual connectivity for the UE ; in response to detecting a first trigger event that the periodic timer of the second BS expires, transmitting a PHR of the UE to the second BS through an uplink resource allocated by the second BS ; and in response to detecting a second trigger event that a power change of the second BS is greater than the second power headroom change threshold for the second BS, transmitting a PHR of the UE to the first BS through an uplink resource allocated by the first BS and transmitting a PHR of the UE to the second BS through an uplink resource allocated by the second BS , wherein the first PHR related control information is received from the first BS based on a radio resource control, RRC, signaling, and wherein the second PHR related control information is received from the second BS based on a RRC signaling. establishing a first link with a first base station, BS and receiving first power headroom report, PHR, related control information of the first BS comprising a periodic timer of the first BS, a prohibit timer of the first BS, and a first power headroom change threshold for the first BS; establishing a second link with a second BS and receiving second PHR related control information of the second BS comprising a periodic timer of the second BS, a prohibit timer of the second BS, and a second power headroom change threshold for the second BS, wherein the first BS and second BS are configured in a dual connectivity for the UE ; in response to detecting a first trigger event that the periodic timer of the second BS expires, transmitting a PHR of the UE to the second BS through an uplink resource allocated by the second BS ; and in response to detecting a second trigger event that a power change of the second BS is greater than the second power headroom change threshold for the second BS, transmitting a PHR of the UE to the first BS through an uplink resource allocated by the first BS and transmitting a PHR of the UE to the second BS through an uplink resource allocated by the second BS , wherein the first PHR related control information is received from the first BS based on a radio resource control, RRC, signaling, and wherein the second PHR related control information is received from the second BS based on a RRC signaling.