mhurhangee/ep-ind-claims huggingface dataset:
An application protection method, comprising: sending an application download request for a target application to an application management server, wherein the application download request carries terminal identification information which identify a unique terminal; receiving the compiled application installation package sent by the application management server, wherein the application installation package is compiled according to the terminal identification information carried in the application downloads request; and installing, according to the compiled application installation package, the target application in a runtime environment that is based on the terminal identification information, wherein the runtime environment is obtained by compiling a preset intermediate file according to the terminal identification information, and the preset intermediate file comprises a runtime file and a framework file wherein the compiled preset intermediate file constitutes the runtime environment that is based on the terminal identification information, wherein the compiling the preset intermediate file according to the terminal identification information preset in an architecture solution comprises: obtaining a hash value of the terminal identification information; and compiling the preset intermediate file according to the hash value, and generating an application binary interface, ABI, corresponding to the hash value. sending an application download request for a target application to an application management server, wherein the application download request carries terminal identification information which identify a unique terminal; receiving the compiled application installation package sent by the application management server, wherein the application installation package is compiled according to the terminal identification information carried in the application downloads request; and installing, according to the compiled application installation package, the target application in a runtime environment that is based on the terminal identification information, wherein the runtime environment is obtained by compiling a preset intermediate file according to the terminal identification information, and the preset intermediate file comprises a runtime file and a framework file wherein the compiled preset intermediate file constitutes the runtime environment that is based on the terminal identification information, wherein the compiling the preset intermediate file according to the terminal identification information preset in an architecture solution comprises: obtaining a hash value of the terminal identification information; and compiling the preset intermediate file according to the hash value, and generating an application binary interface, ABI, corresponding to the hash value. obtaining a hash value of the terminal identification information; and compiling the preset intermediate file according to the hash value, and generating an application binary interface, ABI, corresponding to the hash value.
A method of operating a wind park comprising a plurality of wind turbines, which method comprises - determining a grid condition indicator indicative of the condition of a grid (N1, N2) into which the wind park feeds; - determining a first maximum power value (P_WP) of the wind park on the basis of the grid condition indicator, wherein the first maximum power (P_WP) is the maximum active power (P_WP) that is allowed to be transferred by all the wind turbines to the grid (N1, N2); - determining a reactive current margin (I margin) of a wind turbine on the basis of the grid condition indicator; - determining a second maximum power value (P_WT_n) on the basis of the reactive current margin (I margin), wherein the second maximum power value (P_WT_n) is the power limit for a wind turbine; and, - when the grid condition indicator is indicative of a weak grid, curtailing the active power output of the wind turbines of the wind park, wherein a wind turbine is curtailed according to the first maximum power value (P_WP) when it can maintain the reactive current margin (I margin), or to the second maximum power value (P_WT_n) when the reactive current margin (I margin) exceeds a current reserve of that wind turbine, such that the active power output of the wind park is curtailed to the lowest maximum power value associated with stable operation of the wind park. - determining a grid condition indicator indicative of the condition of a grid (N1, N2) into which the wind park feeds; - determining a first maximum power value (P_WP) of the wind park on the basis of the grid condition indicator, wherein the first maximum power (P_WP) is the maximum active power (P_WP) that is allowed to be transferred by all the wind turbines to the grid (N1, N2); - determining a reactive current margin (I margin) of a wind turbine on the basis of the grid condition indicator; - determining a second maximum power value (P_WT_n) on the basis of the reactive current margin (I margin), wherein the second maximum power value (P_WT_n) is the power limit for a wind turbine; and, - when the grid condition indicator is indicative of a weak grid, curtailing the active power output of the wind turbines of the wind park, wherein a wind turbine is curtailed according to the first maximum power value (P_WP) when it can maintain the reactive current margin (I margin), or to the second maximum power value (P_WT_n) when the reactive current margin (I margin) exceeds a current reserve of that wind turbine, such that the active power output of the wind park is curtailed to the lowest maximum power value associated with stable operation of the wind park.
A front pillar structure comprising: a front side pillar frame member and a rear side pillar frame member that structure a front pillar (20 and a transparent member that spans between the front side pillar frame member and the rear side pillar frame member and structures the front pillar; characterised in that the front pillar structure comprises a first joining portion at which an upper end portion of the front side pillar frame member is joined to a roof side rail that is disposed at a vehicle width direction outer side of a roof panel; and a second joining portion at which an upper end portion of the rear side pillar frame member is joined to the roof side rail, wherein the first joining portion and the second joining portion are formed at respective positions on the roof side rail that overlap with each other along the vehicle front-and-rear direction and are at the vehicle rear side relative to a front end portion of the roof panel. a front side pillar frame member and a rear side pillar frame member that structure a front pillar (20 and a transparent member that spans between the front side pillar frame member and the rear side pillar frame member and structures the front pillar; characterised in that the front pillar structure comprises a first joining portion at which an upper end portion of the front side pillar frame member is joined to a roof side rail that is disposed at a vehicle width direction outer side of a roof panel; and a second joining portion at which an upper end portion of the rear side pillar frame member is joined to the roof side rail, wherein the first joining portion and the second joining portion are formed at respective positions on the roof side rail that overlap with each other along the vehicle front-and-rear direction and are at the vehicle rear side relative to a front end portion of the roof panel.
A device for incising tissue in the human body, comprising: a tissue-penetrating percutaneous needle (104, 502, 606, 802, 830, 844, 908), movably coupled to a housing (108, 804) between a first position and a second position, the tissue-penetrating percutaneous needle (104, 502, 606, 802, 830, 844, 908) being configured so as to penetrate the skin of a patient and the underlying tissue and comprising a distal end, and a lumen extending along a length of the needle (104, 502, 606, 802, 830, 844, 908), a cutting element (102, 302, 506, 608), which is configured as a sharp blade extending orthogonally to the axis of the needle and is slidingly received within the lumen of the needle (104, 502, 606, 802, 830, 844), and a mechanism (106, 504, 803, 808, 902) for moving the percutaneous needle (104, 502, 606, 802, 830, 844, 908) relative to the cutting element (102, 302, 506, 608) and the housing (108, 804) between the first position, where the cutting element (102, 302, 506, 608) is sheathed within the tissue-penetrating percutaneous needle (104, 502, 606, 802, 830, 844, 908), and the second position, where the percutaneous needle (104, 502, 606, 802, 830, 844, 908) is retracted relative to the cutting element (102, 302, 506, 608), so as to expose said cutting element (102, 202, 302, 506, 608), in such a way that the cutting element (102, 302, 506, 608) can cut tissue structures. a tissue-penetrating percutaneous needle (104, 502, 606, 802, 830, 844, 908), movably coupled to a housing (108, 804) between a first position and a second position, the tissue-penetrating percutaneous needle (104, 502, 606, 802, 830, 844, 908) being configured so as to penetrate the skin of a patient and the underlying tissue and comprising a distal end, and a lumen extending along a length of the needle (104, 502, 606, 802, 830, 844, 908), a cutting element (102, 302, 506, 608), which is configured as a sharp blade extending orthogonally to the axis of the needle and is slidingly received within the lumen of the needle (104, 502, 606, 802, 830, 844), and a mechanism (106, 504, 803, 808, 902) for moving the percutaneous needle (104, 502, 606, 802, 830, 844, 908) relative to the cutting element (102, 302, 506, 608) and the housing (108, 804) between the first position, where the cutting element (102, 302, 506, 608) is sheathed within the tissue-penetrating percutaneous needle (104, 502, 606, 802, 830, 844, 908), and the second position, where the percutaneous needle (104, 502, 606, 802, 830, 844, 908) is retracted relative to the cutting element (102, 302, 506, 608), so as to expose said cutting element (102, 202, 302, 506, 608), in such a way that the cutting element (102, 302, 506, 608) can cut tissue structures.
A method operable by a mobile entity in a wireless system, the method comprising: receiving system information that includes a Dynamic Adaptive Streaming over HTTP, DASH, media presentation description, MPD, and parameters outside of the MPD for reception of data segments for multiple representations of content via at least one of broadcast transmission, unicast transmission, or a combination thereof; determining an appropriate transport protocol for the reception of the data segments from at least one of the broadcast transmission or the unicast transmission based on the parameters; selecting one representation among the multiple representations of the content based on the parameters and a criteria of the mobile entity; and receiving data segments for the selected one representation according to the appropriate transport protocol. receiving system information that includes a Dynamic Adaptive Streaming over HTTP, DASH, media presentation description, MPD, and parameters outside of the MPD for reception of data segments for multiple representations of content via at least one of broadcast transmission, unicast transmission, or a combination thereof; determining an appropriate transport protocol for the reception of the data segments from at least one of the broadcast transmission or the unicast transmission based on the parameters; selecting one representation among the multiple representations of the content based on the parameters and a criteria of the mobile entity; and receiving data segments for the selected one representation according to the appropriate transport protocol.
A method of forming a post-tensioned concrete member comprising: positioning a post-tensioning tendon within a concrete form, the post-tensioning tendon including a tension member, fixed anchor, and a stressing end anchor, the tension member including a strand; positioning a pocket former comprising a key way former between the stressing end anchor and the concrete form, the pocket former coupled to the stressing end anchor, the stressing end anchor having a stressing end anchor body; pouring concrete into the concrete form thereby forming a concrete member; encasing the post-tensioning tendon and pocket former in the concrete member; forming a cavity in the concrete by removing the pocket former, the cavity corresponding to the outer shape of the pocket former, the cavity having a cavity surface; and removing the keyway former from the concrete member leaving a keyway in the cavity corresponding to the outer shape of the keyway former, the keyway having a keyway surface; the method being characterized by coupling a pocket cap to the cavity surface; and coupling an extension of the pocket cap to the keyway surface (102"). positioning a post-tensioning tendon within a concrete form, the post-tensioning tendon including a tension member, fixed anchor, and a stressing end anchor, the tension member including a strand; positioning a pocket former comprising a key way former between the stressing end anchor and the concrete form, the pocket former coupled to the stressing end anchor, the stressing end anchor having a stressing end anchor body; pouring concrete into the concrete form thereby forming a concrete member; encasing the post-tensioning tendon and pocket former in the concrete member; forming a cavity in the concrete by removing the pocket former, the cavity corresponding to the outer shape of the pocket former, the cavity having a cavity surface; and removing the keyway former from the concrete member leaving a keyway in the cavity corresponding to the outer shape of the keyway former, the keyway having a keyway surface; the method being characterized by coupling a pocket cap to the cavity surface; and coupling an extension of the pocket cap to the keyway surface (102").
A method for beamforming at a network node configured to communicate with a plurality of wireless device, WDs, the network node having a microphone array, the method comprising: triggering a WD to transmit at least one acoustic pulse; determining a direction of arrival of the at least one acoustic pulse received from the WD via the microphone array; determining a radio frequency, RF, beam for communication with the WD based at least in part on the determined direction of arrival; and transmitting to the WD on the determined RF beam. triggering a WD to transmit at least one acoustic pulse; determining a direction of arrival of the at least one acoustic pulse received from the WD via the microphone array; determining a radio frequency, RF, beam for communication with the WD based at least in part on the determined direction of arrival; and transmitting to the WD on the determined RF beam.
A C1orf54 polypeptide for use in treating a muscle-related disorder in a subject, wherein the treatment comprises administering to the subject an effective amount of a polypeptide selected from: a. a polypeptide consisting of amino acid sequence SEQ ID NO: 2, 3, or 4; b. a polypeptide comprising an amino acid sequence of SEQ ID NO: 2, 3, or 4; c. a polypeptide consisting of an amino acid sequence having at least 95% amino acid sequence identity to SEQ ID NOs: 2, 3, or 4; d. a polypeptide comprising an amino acid sequence having at least 95% amino acid sequence identity to SEQ ID NOs: 2, 3, or 4; and wherein said C1 orf54 polypeptide has myokine activity and wherein said muscle-related disorder is a disorder selected from or caused by muscle atrophy, orthopedic injury, muscle injury, muscle weakness, heart failure, chemotherapy, post-stroke, secondary muscle loss, sarcopenia, obesity or metabolic syndrome. a. a polypeptide consisting of amino acid sequence SEQ ID NO: 2, 3, or 4; b. a polypeptide comprising an amino acid sequence of SEQ ID NO: 2, 3, or 4; c. a polypeptide consisting of an amino acid sequence having at least 95% amino acid sequence identity to SEQ ID NOs: 2, 3, or 4; d. a polypeptide comprising an amino acid sequence having at least 95% amino acid sequence identity to SEQ ID NOs: 2, 3, or 4; and
A method of making an electrode for use in an electrochemical impedance spectroscopy technique, which method comprises: (a) attaching photopolymerisable betaine monomers to the planar surface of a substrate, thereby obtaining a modified surface having a layer of photopolymerisable betaine monomers disposed thereon; then (b) contacting said modified surface with further photopolymerisable betaine monomers, and optionally crosslinking monomers, and photochemically polymerising the monomers, thereby generating an electrode comprising polymers disposed on said planar surface; wherein attachment of the layer of photopolymerisable betaine monomers in step (a) is substantially complete before the modified surface is contacted with further photopolymerisable betaine monomers, and optionally crosslinking monomers, and the photochemical polymerisation is carried out, in step (b). (a) attaching photopolymerisable betaine monomers to the planar surface of a substrate, thereby obtaining a modified surface having a layer of photopolymerisable betaine monomers disposed thereon; then (b) contacting said modified surface with further photopolymerisable betaine monomers, and optionally crosslinking monomers, and photochemically polymerising the monomers, thereby generating an electrode comprising polymers disposed on said planar surface;
A refrigerating air-conditioning apparatus constructed by connecting a heat-source side unit and a load-side unit with an existing refrigerant pipeline (13,14), wherein the heat source side unit comprises an accumulator provided with a function to separate and collect a foreign material in an existing pipeline, and a collecting container for collecting the foreign material separated by the accumulator, and further comprises, an oil return pipeline for returning refrigerating machine oil to a compressor via a flow amount adjusting means, at a lower portion of the accumulator, and wherein at a time of ordinary cooling or heating operation, the refrigerating machine oil is caused to flow into the oil return pipeline, and at a time of pipeline cleaning and foreign material-collecting operations, the flow amount adjusting means is fully closed, characterized in that the refrigeration air-conditioning apparatus further comprising a low-pressure side circuit constructed by connecting a four-way valve, the accumulator and the compressor in the order, in an inside of the heat-source side unit, and a low-pressure side pressure sensor provided in a pathway from the four-way valve to the compressor, a temperature sensor provided in the accumulator-inlet side refrigerant pipeline, and a means for calculating a superheat of a refrigerant at the accumulator-inlet side, wherein the refrigerating air-conditioning apparatus is adapted to perform a control for a superheat at the accumulator-inlet side to be kept in a plus-area, and a control for a liquid refrigerant in the accumulator to be evaporated.
Method for transporting a fibre web from a crosslapper to a downstream machine, wherein the fibre web is deposited in folded form by a lapper on a delivery belt and is transported from there to a buffer table having an endless belt which receives the folded fibre web at a pulsed speed (v 22) from the delivery belt and delivers it at a constant speed (v 23) to the downstream machine for further processing or bonding, wherein, in order to compensate for the differences in speed between the entry and the exit of the buffer table, the folded fibre web is buffered in a slack portion of the belt which is arranged in an upper run of the belt, wherein the transport speed of the folded fibre web at the entry of the buffer table is coupled with the movement and with the speed profile of the lapper, characterised in that the maximum speed (v 22) of the folded fibre web at the entry of the buffer table is lower than the maximum speed (v 15) on the delivery belt.
A compound of Formula I: wherein: R 1 is hydrogen, NH 2, or fluoro; R 2 and R 3 are methyl or hydrogen; or R 2 is methyl, ethyl, 1-hydroxyethyl, 1-methyoxyethyl, fluoromethyl, 1-fluoroethyl, or 1-methylethyl, and R 3 is hydrogen; R 4 is methyl or fluoromethyl; R 5 is hydrogen, ethyl, or -CH 2 -cyclopropyl; or a pharmaceutically acceptable salt thereof. R 1 is hydrogen, NH 2, or fluoro; R 2 and R 3 are methyl or hydrogen; or R 2 is methyl, ethyl, 1-hydroxyethyl, 1-methyoxyethyl, fluoromethyl, 1-fluoroethyl, or 1-methylethyl, and R 3 is hydrogen; R 4 is methyl or fluoromethyl; R 5 is hydrogen, ethyl, or -CH 2 -cyclopropyl;
A method comprising: importing a route target for a remote Virtual Routing and Forwarding instance, VRF, at a leaf node in an overlay network with multiple tenants, the leaf node comprising at least one local VRF configured thereon, the overlay network comprising a plurality of leaf nodes, each of the leaf nodes being in communication with each of a plurality of spine nodes; processing routes received for the route target at the leaf node; and installing said routes for said remote VRF at said local VRF at the leaf node, to enable inter-VRF communication between isolated VRFs via the leaf node by forwarding traffic directly between leaf nodes, wherein the local VRF is instantiated on the leaf node, and the remote VRF is not instantiated on the leaf node, and a tenant is allocated one or more Virtual Local Area Networks, VLANs, on the leaf node and is associated with the local VRF on the leaf node, each of the local VRF and the remote VRF being associated with a layer 3 segment identifier, the layer 3 segment identifier for the remote VRF being used to forward packets at the leaf node by configuring a core-facing VLAN of the one or more VLANs allocated to the tenant that is mapped to the layer 3 segment identifier corresponding to said remote VRF. importing a route target for a remote Virtual Routing and Forwarding instance, VRF, at a leaf node in an overlay network with multiple tenants, the leaf node comprising at least one local VRF configured thereon, the overlay network comprising a plurality of leaf nodes, each of the leaf nodes being in communication with each of a plurality of spine nodes; processing routes received for the route target at the leaf node; and installing said routes for said remote VRF at said local VRF at the leaf node, to enable inter-VRF communication between isolated VRFs via the leaf node by forwarding traffic directly between leaf nodes, wherein the local VRF is instantiated on the leaf node, and the remote VRF is not instantiated on the leaf node, and a tenant is allocated one or more Virtual Local Area Networks, VLANs, on the leaf node and is associated with the local VRF on the leaf node, each of the local VRF and the remote VRF being associated with a layer 3 segment identifier, the layer 3 segment identifier for the remote VRF being used to forward packets at the leaf node by configuring a core-facing VLAN of the one or more VLANs allocated to the tenant that is mapped to the layer 3 segment identifier corresponding to said remote VRF.