mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: generating, by a first artificial intelligence, AI, protocol layer of a core network element, an AI parameter, wherein the first AI protocol layer of the core network element is the protocol layer above a next generation application protocol, NGAP, protocol layer of the core network element; sending, by the core network element, the AI parameter to a first access network device, wherein the AI parameter is for indicating AI data that needs to be obtained and an obtaining manner of the AI data; and receiving, by the core network element, the AI data from the first access network device; characterized in that after the generating, by a first artificial intelligence AI protocol layer of a core network element, an AI parameter, the communication method further comprises: encapsulating, by the first AI protocol layer of the core network element, the AI parameter into a first AI protocol data unit, AI PDU; and sending, by the first AI protocol layer of the core network element, the first AI PDU to the NGAP protocol layer of the core network element. generating, by a first artificial intelligence, AI, protocol layer of a core network element, an AI parameter, wherein the first AI protocol layer of the core network element is the protocol layer above a next generation application protocol, NGAP, protocol layer of the core network element; sending, by the core network element, the AI parameter to a first access network device, wherein the AI parameter is for indicating AI data that needs to be obtained and an obtaining manner of the AI data; and receiving, by the core network element, the AI data from the first access network device; characterized in that after the generating, by a first artificial intelligence AI protocol layer of a core network element, an AI parameter, the communication method further comprises: encapsulating, by the first AI protocol layer of the core network element, the AI parameter into a first AI protocol data unit, AI PDU; and sending, by the first AI protocol layer of the core network element, the first AI PDU to the NGAP protocol layer of the core network element. encapsulating, by the first AI protocol layer of the core network element, the AI parameter into a first AI protocol data unit, AI PDU; and sending, by the first AI protocol layer of the core network element, the first AI PDU to the NGAP protocol layer of the core network element.
Apparatus comprising: a magnetic functional device comprising: a layer of magnetostrictive material configured such that magnetic anisotropy is perpendicular to the layer, wherein the layer has a length and includes first and second domains (41, 42) divided, along the length, by a domain wall; and means (7, 10) for imparting in-plane strain to the magnetostrictive material layer; and a source configured to drive a current along the length of the magnetostrictive material layer so as to cause the domain wall to move along the length of the layer. a magnetic functional device comprising: a layer of magnetostrictive material configured such that magnetic anisotropy is perpendicular to the layer, wherein the layer has a length and includes first and second domains (41, 42) divided, along the length, by a domain wall; and means (7, 10) for imparting in-plane strain to the magnetostrictive material layer; and a layer of magnetostrictive material configured such that magnetic anisotropy is perpendicular to the layer, wherein the layer has a length and includes first and second domains (41, 42) divided, along the length, by a domain wall; and means (7, 10) for imparting in-plane strain to the magnetostrictive material layer; and a source configured to drive a current along the length of the magnetostrictive material layer so as to cause the domain wall to move along the length of the layer.
A method comprising: receiving a packet and a segment ID stack at a first segment routing enabled node in a first area of a subdivided segment routing enabled network; wherein the segment ID stack comprises a plurality of segment IDs; wherein at least a first segment ID of the plurality of segment IDs comprises an area segment ID corresponding to a second area (402, 406) of the subdivided segment routing enabled network; wherein at least a second segment ID of the plurality of segment IDs corresponds to a multi-hop path to a node in the subdivided segment routing enabled network; selecting a next hop egress interface of the first segment routing enabled node based on the first segment ID; forwarding the packet and the segment ID stack via the selected next hop egress interface, wherein forwarding the packet via the selected next hop egress interface comprises forwarding the packet toward an area border node connected to the first area and the second area of the subdivided segment routing enabled network. receiving a packet and a segment ID stack at a first segment routing enabled node in a first area of a subdivided segment routing enabled network; wherein the segment ID stack comprises a plurality of segment IDs; wherein at least a first segment ID of the plurality of segment IDs comprises an area segment ID corresponding to a second area (402, 406) of the subdivided segment routing enabled network; wherein at least a second segment ID of the plurality of segment IDs corresponds to a multi-hop path to a node in the subdivided segment routing enabled network; wherein the segment ID stack comprises a plurality of segment IDs; wherein at least a first segment ID of the plurality of segment IDs comprises an area segment ID corresponding to a second area (402, 406) of the subdivided segment routing enabled network; wherein at least a second segment ID of the plurality of segment IDs corresponds to a multi-hop path to a node in the subdivided segment routing enabled network; selecting a next hop egress interface of the first segment routing enabled node based on the first segment ID; forwarding the packet and the segment ID stack via the selected next hop egress interface, wherein forwarding the packet via the selected next hop egress interface comprises forwarding the packet toward an area border node connected to the first area and the second area of the subdivided segment routing enabled network.
A three-dimensional additive manufacturing system for manufacturing a three-dimensional article comprising: a chassis defining an internal process chamber, the chassis defining a vertical opening surrounded by a peripheral seal and a plurality of latches arranged around the peripheral seal, the latches individually including a hook; and a vertical door that is mounted to the chassis by a linkage, the linkage allows the door to translate between open and closed positions, the door including a plurality of laterally extending pins that individually correspond to the latches, the pins having locations along the door to be individually engaged by the latches when the door is positioned in the closed position; the latches are individually configured to rotate the hooks around a second lateral axis to engage the pins when the door is positioned in the closed position with the door closing over the opening to secure the door with respect to a first lateral axis that perpendicular to the second lateral axis. a chassis defining an internal process chamber, the chassis defining a vertical opening surrounded by a peripheral seal and a plurality of latches arranged around the peripheral seal, the latches individually including a hook; and a vertical door that is mounted to the chassis by a linkage, the linkage allows the door to translate between open and closed positions, the door including a plurality of laterally extending pins that individually correspond to the latches, the pins having locations along the door to be individually engaged by the latches when the door is positioned in the closed position; the latches are individually configured to rotate the hooks around a second lateral axis to engage the pins when the door is positioned in the closed position with the door closing over the opening to secure the door with respect to a first lateral axis that perpendicular to the second lateral axis.
An arrangement for a motor vehicle seat for receiving vehicle tools and the like, wherein the arrangement forms a tool carrier made of at least one elastically deformable material which has a plurality of cavities (4, 4') with an insertion opening in each case for inserting a portion of a vehicle tool into a receiving space of the cavity, the cavities (4, 4') can be moved from a storage position (starting position) into an insertion or removal position (displacement position), owing to their elasticity and wherein in each case a pair of two spaced-apart cavities (4, 4') is provided for a plurality of the vehicle tools, the insertion openings of which are oriented relative to each other at an angle of between 0° and 90° and the pairs of cavities (4, 4') are oriented in the longitudinal direction of the seat.
A protection device (2, 3) making it possible to cap at least part of the top of a construction, in particular a wall, such as a roof or roof deck acroterion, said protection device comprising: - a U-shaped profile, called cap, formed by a folded blank, the branches of which form first and second longitudinal wings (31, 32) able to extend on either side of said construction, - at least one U-shaped hook able to be covered by said cap and designed to be fixed straddling the construction, between said construction and the cap, the longitudinal free edge of a first wing of the cap being folded toward the inside of the U, to form a return which, in the state with the hook covered by the cap, prevents the lifting of the cap relative to the first branch of the hook, the second wing of the cap having a longitudinal groove open on the side of the inside of the U formed by the cap, the second branch of the U formed by the or each hook having a boss, preferably of the rib or bead type, protruding toward the outside of the U of the hook, able to be housed inside the corresponding groove of the second wing of the cap in the state with the hook covered by the cap, characterized in that said groove of the second wing of the cap is separated from the longitudinal free edge of said second wing by a part of said second wing of the folded blank forming a flat bearing surface able to be pressed against a face of the construction below the hook. - a U-shaped profile, called cap, formed by a folded blank, the branches of which form first and second longitudinal wings (31, 32) able to extend on either side of said construction, - at least one U-shaped hook able to be covered by said cap and designed to be fixed straddling the construction, between said construction and the cap,
A method of calibrating inertial sensors of working equipment, the method including: capturing data from one or more inertial sensors and one or more temperature sensors located proximate the one or more inertial sensors while the working equipment is not in operation; and updating a thermal bias error model for the one or more inertial sensors with the data captured from the one or more inertial sensors and the one or more temperature sensors; and wherein a sensor subsystem having the one or more inertial sensors and one or more temperature sensors is periodically powered up to capture the data while the working equipment is not in operation. capturing data from one or more inertial sensors and one or more temperature sensors located proximate the one or more inertial sensors while the working equipment is not in operation; and updating a thermal bias error model for the one or more inertial sensors with the data captured from the one or more inertial sensors and the one or more temperature sensors; and wherein a sensor subsystem having the one or more inertial sensors and one or more temperature sensors is periodically powered up to capture the data while the working equipment is not in operation.
Method for detection of a binding event between a binding agent on a solid support and an analyte binding to said binding agent, comprising simultaneous but separate addition of a first enhancement reagent having affinity for said analyte and a second enhancement reagent having affinity for said first enhancement reagent, wherein the first enhancement reagent binds to the analyte and the second affinity agent binds to the first enhancement reagent, and wherein the first and second enhancement reagents have more than one binding site so that they also able to bind to each other to thereby amplify a detectable signal from the binding event, wherein the detection technique comprises surface plasmon resonance; and wherein the first and second enhancement reagents are simultaneously injected to the solid support via a flow channel system where the first and second enhancement reagents have undergone mixing before entering the detection area of the biosensor surface, wherein the detection is performed in a flow cell and the flow cell comprises a detection area with immobilized ligand, and an inlet which via a junction is connected to first and second conduits, and wherein the first and second enhancement reagents mixing comprises flowing the reagent solutions in respective conduits so that the two fluids mix at the junction of the flow cell inlet conduit and the mixed fluids pass through the flow cell over the detection area, wherein the sample is a complex biological fluid, and wherein the method comprises addition of the analyte together with the second enhancement reagent.
A method for determining an internal resistance of a battery that is used to power a card reader, comprising: causing, by a processor, the battery to be exposed to a first load to maintain the card reader at a first rate of power consumption by executing, by the processor, computer-readable instructions at a first clock rate, wherein the computer-readable instructions maintain the battery at the first rate of power consumption; measuring, by the processor, a first voltage across the battery; causing, by the processor, the battery to be exposed to a second load to maintain the card reader at a second rate of power consumption by executing, by the processor, the computer-readable instructions at a second clock rate, wherein the computer-readable instructions maintain the battery at the second rate of power consumption and wherein the second clock rate is different from the first clock rate; measuring a second voltage across the battery; and determining an internal resistance of the battery based at least in part on the first rate of power consumption, the first voltage, the second rate of power consumption, and the second voltage. causing, by a processor, the battery to be exposed to a first load to maintain the card reader at a first rate of power consumption by executing, by the processor, computer-readable instructions at a first clock rate, wherein the computer-readable instructions maintain the battery at the first rate of power consumption; measuring, by the processor, a first voltage across the battery; causing, by the processor, the battery to be exposed to a second load to maintain the card reader at a second rate of power consumption by executing, by the processor, the computer-readable instructions at a second clock rate, wherein the computer-readable instructions maintain the battery at the second rate of power consumption and wherein the second clock rate is different from the first clock rate; measuring a second voltage across the battery; and determining an internal resistance of the battery based at least in part on the first rate of power consumption, the first voltage, the second rate of power consumption, and the second voltage.
A ply transporting and compacting apparatus comprising: a rigid frame; a top-layer sheet of flexible rubber material fastened to the frame; characterized by a bottom-layer sheet of perforated flexible rubber material having openings; and a middle-layer sheet of flow media material disposed in a first plenum area that is defined between the top and bottom layer sheets (204, 208). a rigid frame; a top-layer sheet of flexible rubber material fastened to the frame; characterized by a bottom-layer sheet of perforated flexible rubber material having openings; and a middle-layer sheet of flow media material disposed in a first plenum area that is defined between the top and bottom layer sheets (204, 208).
- A complex comprising: - cellulose nano crystals; - at least one β-cyclodextrin molecule; - at least one curcumin molecule, for use in the treatment of any type of peripheral neuropathies. - cellulose nano crystals; - at least one β-cyclodextrin molecule; - at least one curcumin molecule,
A system for use with a subterranean well, the system comprising: a tubular string having an inflatable packer assembly connected therein, so that a flow passage of the tubular string extends longitudinally through the inflatable packer assembly, the inflatable packer assembly being configured to block flow through an annulus surrounding the tubular string in response to inflation of a seal element of the inflatable packer assembly, in which the seal element separates an upper section of the annulus from a lower section of the annulus in a set configuration of the inflatable packer assembly; and the inflatable packer assembly including a flow restrictor between first and second sections (36a, b) of the flow passage, a first selectively openable and closeable flow path between the first flow passage section and an inflation chamber of the seal element, and a second selectively openable and closeable flow path between the second flow passage section and the inflation chamber, characterized by the upper annulus section being in communication with the second flow passage section in a deflate configuration of the inflatable packer assembly. a tubular string having an inflatable packer assembly connected therein, so that a flow passage of the tubular string extends longitudinally through the inflatable packer assembly, the inflatable packer assembly being configured to block flow through an annulus surrounding the tubular string in response to inflation of a seal element of the inflatable packer assembly, in which the seal element separates an upper section of the annulus from a lower section of the annulus in a set configuration of the inflatable packer assembly; and the inflatable packer assembly including a flow restrictor between first and second sections (36a, b) of the flow passage, a first selectively openable and closeable flow path between the first flow passage section and an inflation chamber of the seal element, and a second selectively openable and closeable flow path between the second flow passage section and the inflation chamber, characterized by the upper annulus section being in communication with the second flow passage section in a deflate configuration of the inflatable packer assembly.
A resource allocation method operable by a base station, the base station comprising a Central Unit, CU, and a Distributed Unit, DU, connected to the CU, wherein the method comprises: determining, by the DU, a Sidelink, SL, resource allocation mode; and allocating, by the DU, SL resource for a UE according to the determined resource allocation mode and User Equipment, LTE, context information, characterized in that the SL resource allocation mode determined by the DU is a resource allocation mode scheduled by a network; the step of allocating, by the DU, the SL resource for the UE according to the determined resource allocation mode and the UE context information, comprises: acquiring, by the DU, Semi-Persistent Scheduling, SPS, assistance information that is related to UE V2X context information and transmitted by the CU; generating, by the DU, SPS configuration information according to the UE V2X context information and the SPS assistance information, and transmitting, by the DU, the SPS configuration information to the CU; and after the CU notifies the UE of the SPS configuration information, notifying, by the DU, the UE of SPS resource configuration information. determining, by the DU, a Sidelink, SL, resource allocation mode; and allocating, by the DU, SL resource for a UE according to the determined resource allocation mode and User Equipment, LTE, context information, characterized in that the SL resource allocation mode determined by the DU is a resource allocation mode scheduled by a network; the step of allocating, by the DU, the SL resource for the UE according to the determined resource allocation mode and the UE context information, comprises: acquiring, by the DU, Semi-Persistent Scheduling, SPS, assistance information that is related to UE V2X context information and transmitted by the CU; generating, by the DU, SPS configuration information according to the UE V2X context information and the SPS assistance information, and transmitting, by the DU, the SPS configuration information to the CU; and after the CU notifies the UE of the SPS configuration information, notifying, by the DU, the UE of SPS resource configuration information.
A cross-flow fan comprising a plurality of vane portions provided to be circumferentially spaced apart from each other, each having an inner edge portion arranged on a radially inner side to/from which air flows in/out and an outer edge portion arranged on a radially outer side to/from which air flows in/out, wherein said vane portion has a blade surface extending between said inner edge portion and said outer edge portion and including a pressure surface arranged on a rotation direction side of the cross-flow fan and a suction surface arranged on a back side of said pressure surface, said vane portion has such a blade cross-sectional shape that a concave portion (56, 57, 76, 77) is formed at said pressure surface and said suction surface when said vane portion is cut along a plane orthogonal to a rotation axis of the cross-flow fan, characterized in that a plurality of said concave portions are formed at at least one of said pressure surface and said suction surface, and the number of said concave portions formed at said pressure surface is greater than the number of said concave portions formed at said suction surface.
A method comprising: receiving data on a plurality of threats from a plurality of security devices; aggregating the threats from the security devices; displaying an aggregated representation of the threats; selecting one or more user interface elements from the aggregated representation; and in response to selecting the user interface elements, displaying a filtered representation of the threats wherein the filtered representation of the threats include representations of one or more proposed changes to security policies associated with one or more security devices, the proposed changes generated in response to the threats. receiving data on a plurality of threats from a plurality of security devices; aggregating the threats from the security devices; displaying an aggregated representation of the threats; selecting one or more user interface elements from the aggregated representation; and in response to selecting the user interface elements, displaying a filtered representation of the threats wherein the filtered representation of the threats include representations of one or more proposed changes to security policies associated with one or more security devices, the proposed changes generated in response to the threats.