mhurhangee/patent-ind-claim-en huggingface dataset:
A link state packet transmission method, wherein the method is applied to a tree topology, and the tree topology comprises an intermediate routing node, and a root routing node; and the method comprises: receiving (S201), by the intermediate routing node, an updated link state packet sent by a child routing node of the intermediate routing node; sending (S202), by the intermediate routing node, the updated link state packet to the root routing node, wherein the root routing node is configured to aggregate updated received link state packets to obtain a link state packet set (S203); receiving (S204), by the intermediate routing node, the link state packet set sent by the root routing node; and sending (S206), by the intermediate routing node, the link state packet set to the child routing node of the intermediate routing node. receiving (S201), by the intermediate routing node, an updated link state packet sent by a child routing node of the intermediate routing node; sending (S202), by the intermediate routing node, the updated link state packet to the root routing node, wherein the root routing node is configured to aggregate updated received link state packets to obtain a link state packet set (S203); receiving (S204), by the intermediate routing node, the link state packet set sent by the root routing node; and sending (S206), by the intermediate routing node, the link state packet set to the child routing node of the intermediate routing node.
A method of handling user traffic in an integrated access backhaul (IAB) node (104-112) in a network, the method characterised by : configuring data counters for two or more of a plurality of user equipment (UE) bearers handled by the IAB node (104-112); receiving data corresponding to the two or more UE bearers of the plurality of UE bearers; selecting a first UE bearer , the first UE bearer being the UE bearer having the lowest data counter value of the two or more UE bearers ; providing data corresponding to the first UE bearer to a mobile terminal (MT) in the IAB node (104-112); and increasing the data counter for the first UE bearer by a total size of the transferred data; wherein the two or more UE bearers are carried by a same logical channel on a backhaul link in the network. configuring data counters for two or more of a plurality of user equipment (UE) bearers handled by the IAB node (104-112); receiving data corresponding to the two or more UE bearers of the plurality of UE bearers; selecting a first UE bearer , the first UE bearer being the UE bearer having the lowest data counter value of the two or more UE bearers ; providing data corresponding to the first UE bearer to a mobile terminal (MT) in the IAB node (104-112); and increasing the data counter for the first UE bearer by a total size of the transferred data; wherein the two or more UE bearers are carried by a same logical channel on a backhaul link in the network.
A power transfer device for transferring external power to a rotary body of the power transfer device, wherein the rotary body is coupled to one side of a main body of the power transfer device, comprising a push unit installed in the main body and provided with at least one pusher protruding toward the rotary body , characterized in that said power transfer device comprises: - at least one double-action interlocking cylinder mounted to a rear surface of the rotary body and provided with a rod protruding toward the main body ; - a bearing capable of transferring a load in the axial opposite directions and disposed between the pusher of the push unit and the rod of the interlocking cylinder and configured to allow relative rotation of the pusher and the rod and to transfer power between the pusher and the rod . - at least one double-action interlocking cylinder mounted to a rear surface of the rotary body and provided with a rod protruding toward the main body ; - a bearing capable of transferring a load in the axial opposite directions and disposed between the pusher of the push unit and the rod of the interlocking cylinder and configured to allow relative rotation of the pusher and the rod and to transfer power between the pusher and the rod .
A display system comprising: a continuous flexible display comprising a first portion, a second portion and a central segment , the central segment being located between the first portion and the second portion; a support frame comprising first and second display supports coupled by a hinge , to be rotatable between a configuration for maintaining the flexible display in a closed position and a planar configuration for maintaining the flexible display in an open position, the first display support supporting the first portion of the flexible display and the second display support supporting the second portion of the flexible display ; a first slider element being connected with the second portion of the flexible display, and being slidably mounted on the second display support ; a first spring being connected with the first slider element , and configured to bias the central segment of the flexible display away from the hinge to maintain the display segment in a flat configuration when in the open position , wherein during movement of the flexible display from the open position to the closed position, movement of the first slider element is limited by an end stop formed by an abutment on the second display support , and wherein the spring is configured to enable the central segment of the flexible display in the closed position to be positioned with its curved end part at a distance from the hinge. a continuous flexible display comprising a first portion, a second portion and a central segment , the central segment being located between the first portion and the second portion; a support frame comprising first and second display supports coupled by a hinge , to be rotatable between a configuration for maintaining the flexible display in a closed position and a planar configuration for maintaining the flexible display in an open position, the first display support supporting the first portion of the flexible display and the second display support supporting the second portion of the flexible display ; a first slider element being connected with the second portion of the flexible display, and being slidably mounted on the second display support ; a first spring being connected with the first slider element , and configured to bias the central segment of the flexible display away from the hinge to maintain the display segment in a flat configuration when in the open position , wherein during movement of the flexible display from the open position to the closed position, movement of the first slider element is limited by an end stop formed by an abutment on the second display support , and wherein the spring is configured to enable the central segment of the flexible display in the closed position to be positioned with its curved end part at a distance from the hinge.
Method for deploying an object , such as an off-shore wind turbine foundation or subsea installation, from a vessel , the method comprising: - providing a vessel comprising an elongate submersible cargo deck amidships, between a bow and a stern and a single heavy lift crane , wherein the heavy lift crane is located on a forecastle at the bow, which extends across the full width of the vessel and has a forecastle deck reachable by the heavy lift crane over its entire area, wherein the object is present on the cargo deck; - submerging the cargo deck to a position below a level of the water, wherein the bow remains unsubmerged; - lifting the object from the submerged cargo deck using the heavy lift crane and moving it to a desired position overboard, at least partially below the level of the water; and - releasing the object at the desired position. - providing a vessel comprising an elongate submersible cargo deck amidships, between a bow and a stern and a single heavy lift crane , wherein the heavy lift crane is located on a forecastle at the bow, which extends across the full width of the vessel and has a forecastle deck reachable by the heavy lift crane over its entire area, wherein the object is present on the cargo deck; - submerging the cargo deck to a position below a level of the water, wherein the bow remains unsubmerged; - lifting the object from the submerged cargo deck using the heavy lift crane and moving it to a desired position overboard, at least partially below the level of the water; and - releasing the object at the desired position.
A shroud comprising a frame with a main opening delimited by a main wall and at least one secondary opening , delimited by a secondary wall , for the passage of a cooling air flow, a ventilator mounting system associated with the frame to support the ventilator at the main opening , a panel for closing the secondary opening , connected to the frame and movable, by rotation, between a lowered position and a raised position, hinge means which operate between the frame and the panel to allow rotation of the panel between the raised and lowered positions, the hinge means being defined by first engagement means associated with the frame and second engagement means associated with the panel , the shroud being characterized in that the first engagement means comprise a single pin which defines the axis of rotation (R) of the hinge means, extends through the secondary opening and has a first and a second end respectively connected to a first and a second section of the secondary wall , opposite each other, the second engagement means being connectable to the single pin .
A luminescent particle comprising a nanoparticle of formula: A 1-x Ln x VO 4(1-y) (PO 4 ) y (I) in which: . A is selected from yttrium (Y), gadolinium (Gd), lanthanum (La), and mixtures thereof; . Ln is selected from europium (Eu), dysprosium (Dy), samarium (Sm), neodymium (Nd), erbium (Er), ytterbium (Yb), and mixtures thereof; . 0 < x < 1; and . 0 ≤ y < 1; characterized in that the nanoparticle has, at the surface, tetraalkylammonium cations in an amount such that said nanoparticle has a zeta potential, ζ, of less than or equal to -28 mV in an aqueous medium with a pH ≥ 5, more particularly with a pH ≥ 5.5, and with an ionic conductivity of strictly less than 100 μS.cm -1 . . A is selected from yttrium (Y), gadolinium (Gd), lanthanum (La), and mixtures thereof; . Ln is selected from europium (Eu), dysprosium (Dy), samarium (Sm), neodymium (Nd), erbium (Er), ytterbium (Yb), and mixtures thereof; . 0 < x < 1; and . 0 ≤ y < 1;
Scanning microscope, having a detector apparatus , which is configured to receive light and to generate electrical signals, with a housing and a detector arranged in the housing , wherein a passive cooling component is arranged in the housing , wherein the passive cooling component electrically insulates the detector with respect to the housing or wherein the passive cooling component is at least part of an insulation that electrically insulates the detector with respect to the housing , wherein a. a further, active cooling component is provided in the housing and b. a light path for the light to be detected is defined and passes through the passive cooling component and the further, active cooling component , a. a further, active cooling component is provided in the housing and b. a light path for the light to be detected is defined and passes through the passive cooling component and the further, active cooling component ,
A method of transmitting a session key in a satellite system comprising a satellite and a device arranged to receive signals from the satellite, the method comprising: obtaining the session key at the satellite ; protecting the session key at the satellite , based on a private key of the satellite and a public key of the device ; and transmitting the protected session key from the satellite to the device , wherein transmitting the protected session key comprises transmitting the protected session key through a data stream including a plurality of predefined parts, by inserting a predetermined number of bytes of the protected session key into each one of the plurality of predefined parts. obtaining the session key at the satellite ; protecting the session key at the satellite , based on a private key of the satellite and a public key of the device ; and transmitting the protected session key from the satellite to the device , wherein transmitting the protected session key comprises transmitting the protected session key through a data stream including a plurality of predefined parts, by inserting a predetermined number of bytes of the protected session key into each one of the plurality of predefined parts.
A method for handling data on a mobile device , comprising: enabling access to a secure virtual environment on the mobile device , the secure virtual environment configured with a security policy; enabling only trusted applications to operate within the secure virtual environment according to the security policy; presenting a user interface with only the trusted applications; enabling a user to manipulate data with a trusted application in the secure virtual environment ; encrypting manipulated data with the secure virtual environment before data exits the secure virtual environment ; storing encrypted data according to the security policy; receiving a delete command from a remote corporate entity and permanently locking the secure virtual environment in response to said delete command. enabling access to a secure virtual environment on the mobile device , the secure virtual environment configured with a security policy; enabling only trusted applications to operate within the secure virtual environment according to the security policy; presenting a user interface with only the trusted applications; enabling a user to manipulate data with a trusted application in the secure virtual environment ; encrypting manipulated data with the secure virtual environment before data exits the secure virtual environment ; storing encrypted data according to the security policy; receiving a delete command from a remote corporate entity and permanently locking the secure virtual environment in response to said delete command.
A curable composition, comprising: (A) an organopolysiloxane containing at least two silicon-bonded aliphatically unsaturated groups per molecule; (B) an organohydrogensiloxane containing at least two silicon-bonded hydrogen atoms per molecule; (C) a hydrosilylation-reaction catalyst comprising platinum; (D) a hydrosilylation-reaction inhibitor; and (E) a catalyst different from component (C) and capable of deactivating the (D) hydrosilylation-reaction inhibitor at an elevated temperature of from 50 to 120 °C such that components (A) and (B) react in the presence of at least component (C) at the elevated temperature; wherein component (E) comprises said metal-ligand complex, having general formula (i) [YML 1 L 2 L 3 ] + [X] - or (ii) [YML 3 L 2 L 1 L 1 L 2 L 3 MY] 2+ [X] 2- where Y is a substituted or unsubstituted cyclopentadienyl group of formula C 5 R 10 R 11 R 13 R 13 R 14 , where each of R 10 -R 14 is independently selected from H, substituted or unsubstituted hydrocarbyl groups, silyl groups, siloxy groups, and alkoxy groups; M is a metal selected from Rh, Pt, Fe, Co, Ni, Ti, Y, Pd, Au and Ru; each of L 1 -L 3 is an independently selected ligand; and X is an anion; and wherein in general formula (ii), two or more ligands may form a single bridge complexed with each M. (A) an organopolysiloxane containing at least two silicon-bonded aliphatically unsaturated groups per molecule; (B) an organohydrogensiloxane containing at least two silicon-bonded hydrogen atoms per molecule; (C) a hydrosilylation-reaction catalyst comprising platinum; (D) a hydrosilylation-reaction inhibitor; and (E) a catalyst different from component (C) and capable of deactivating the (D) hydrosilylation-reaction inhibitor at an elevated temperature of from 50 to 120 °C such that components (A) and (B) react in the presence of at least component (C) at the elevated temperature;
A method for sending a data file made up of a plurality of file segments from a sending computer system to a receiving computer system via a communications network that connects the sending computer system to the receiving computer system, the method comprising: sending the plurality of file segments from the sending computer system to the receiving computer system via the communications network with the transmission of each of the plurality of file segments spaced out in time with a wait period occurring after the transmission of each of the plurality of file segments; for each file segment transmission, determining , by the receiving computer system, an actual transfer rate at which the file segment was sent from the sending computer system to the receiving computer system characterized by : for each file segment transmission, determining , by the receiving computer system, the wait period occurring immediately after the file segment transmission based in part on the actual transfer rate determined for the file segment transmission; and for each file segment transmission, waiting, by the receiving computer system, for the wait period determined for the file segment transmission before transmitting a segment acknowledgement to the sending computer system. sending the plurality of file segments from the sending computer system to the receiving computer system via the communications network with the transmission of each of the plurality of file segments spaced out in time with a wait period occurring after the transmission of each of the plurality of file segments; for each file segment transmission, determining , by the receiving computer system, an actual transfer rate at which the file segment was sent from the sending computer system to the receiving computer system characterized by : for each file segment transmission, determining , by the receiving computer system, the wait period occurring immediately after the file segment transmission based in part on the actual transfer rate determined for the file segment transmission; and for each file segment transmission, waiting, by the receiving computer system, for the wait period determined for the file segment transmission before transmitting a segment acknowledgement to the sending computer system. for each file segment transmission, determining , by the receiving computer system, the wait period occurring immediately after the file segment transmission based in part on the actual transfer rate determined for the file segment transmission; and for each file segment transmission, waiting, by the receiving computer system, for the wait period determined for the file segment transmission before transmitting a segment acknowledgement to the sending computer system.
A communication method, comprising: determining , by a first session management function entity based on information of a terminal group, one or more user plane function entities accessed by one or more terminals in the terminal group; determining , by the first session management function entity, a target user plane function entity based on the one or more user plane function entities, wherein the target user plane function entity is used to perform communication between a first terminal and a second terminal in the terminal group based on local routing information, wherein the communication passes through the target user plane function entity and one of a base station accessed by the second terminal or a user plane function entity accessed by the second terminal, and does not pass through a data network; and sending, by the first session management function entity, the local routing information to the target user plane function entity; wherein the determining, by the first session management function entity, the target user plane function entity based on the one or more user plane function entities comprises: selecting, by the first session management function entity, the target user plane function entity from the one or more user plane function entities accessed by the terminals. determining , by a first session management function entity based on information of a terminal group, one or more user plane function entities accessed by one or more terminals in the terminal group; determining , by the first session management function entity, a target user plane function entity based on the one or more user plane function entities, wherein the target user plane function entity is used to perform communication between a first terminal and a second terminal in the terminal group based on local routing information, wherein the communication passes through the target user plane function entity and one of a base station accessed by the second terminal or a user plane function entity accessed by the second terminal, and does not pass through a data network; and sending, by the first session management function entity, the local routing information to the target user plane function entity; wherein the determining, by the first session management function entity, the target user plane function entity based on the one or more user plane function entities comprises: selecting, by the first session management function entity, the target user plane function entity from the one or more user plane function entities accessed by the terminals.
A method for processing video data, comprising: down-sampling (S110) temporally an image sequence to form a plurality of subsequences; encoding (S120) the plurality of subsequences separately to form a plurality of encoded subsequences;and selecting (S130) frames for transmission according to a size of each frame in the plurality of encoded subsequences and a channel bandwidth, wherein selecting the frames for transmission comprises: finding an earliest frame from each of the plurality of encoded subsequences, and combining the frames to form a group; repeating the operation successively to form a plurality of groups; and selecting frames for transmission in each group according to a size of each frame in each group and the channel bandwidth. down-sampling (S110) temporally an image sequence to form a plurality of subsequences; encoding (S120) the plurality of subsequences separately to form a plurality of encoded subsequences;and selecting (S130) frames for transmission according to a size of each frame in the plurality of encoded subsequences and a channel bandwidth, wherein selecting the frames for transmission comprises: finding an earliest frame from each of the plurality of encoded subsequences, and combining the frames to form a group; repeating the operation successively to form a plurality of groups; and selecting frames for transmission in each group according to a size of each frame in each group and the channel bandwidth. finding an earliest frame from each of the plurality of encoded subsequences, and combining the frames to form a group; repeating the operation successively to form a plurality of groups; and selecting frames for transmission in each group according to a size of each frame in each group and the channel bandwidth.