mhurhangee/ep-ind-claims huggingface dataset:
A resource determination method, comprising: receiving a radio resource control, RRC, reconfiguration message, wherein the RRC reconfiguration message comprises dedicated carrier configuration information that includes a carrier, wherein the RRC reconfiguration message indicates to switch to the carrier, and wherein the RRC reconfiguration message does not include configuration of a target semi-persistent scheduling, SPS, resource; and releasing an existing SPS resource according to the RRC reconfiguration message, wherein the existing SPS resource is determined according to first activation downlink control information, DCI, a first SPS cell radio network temporary identifier, C-RNTI, and a first SPS period, and wherein in response to a second activation DCI being received, determining the target SPS resource in the carrier indicated by the dedicated carrier configuration information, wherein the target SPS resource is determined according to the first SPS C-RNTI and the first SPS period. receiving a radio resource control, RRC, reconfiguration message, wherein the RRC reconfiguration message comprises dedicated carrier configuration information that includes a carrier, wherein the RRC reconfiguration message indicates to switch to the carrier, and wherein the RRC reconfiguration message does not include configuration of a target semi-persistent scheduling, SPS, resource; and wherein the RRC reconfiguration message comprises dedicated carrier configuration information that includes a carrier, wherein the RRC reconfiguration message indicates to switch to the carrier, and wherein the RRC reconfiguration message does not include configuration of a target semi-persistent scheduling, SPS, resource; and releasing an existing SPS resource according to the RRC reconfiguration message, wherein the existing SPS resource is determined according to first activation downlink control information, DCI, a first SPS cell radio network temporary identifier, C-RNTI, and a first SPS period, and wherein in response to a second activation DCI being received, determining the target SPS resource in the carrier indicated by the dedicated carrier configuration information, wherein the target SPS resource is determined according to the first SPS C-RNTI and the first SPS period. wherein the existing SPS resource is determined according to first activation downlink control information, DCI, a first SPS cell radio network temporary identifier, C-RNTI, and a first SPS period, and wherein in response to a second activation DCI being received, determining the target SPS resource in the carrier indicated by the dedicated carrier configuration information, wherein the target SPS resource is determined according to the first SPS C-RNTI and the first SPS period.
A method of detecting a PRKC fusion protein or a PRKC gene fusion in a biological sample, wherein the PRKC fusion protein or gene fusion is selected from an IGF2BP3:PRKCA, TANC2:PRKCA, ADCY9:PRKCB, and SPNS1:PRKCB fusion, said method comprising: (a) contacting a biological sample from a mammal with a reagent selected from: (i) an antibody that binds to the PRKC fusion protein, but does not bind to wild-type PRKC, IGF2BP3, TANC2, ADCY9, or SPNS1; and (ii) an oligonucleotide that hybridizes to the fusion junction of the PRKC gene fusion; and (b) detecting binding between the PRKC fusion protein or the PRKC gene fusion and the reagent. (a) contacting a biological sample from a mammal with a reagent selected from: (i) an antibody that binds to the PRKC fusion protein, but does not bind to wild-type PRKC, IGF2BP3, TANC2, ADCY9, or SPNS1; and (ii) an oligonucleotide that hybridizes to the fusion junction of the PRKC gene fusion; and (i) an antibody that binds to the PRKC fusion protein, but does not bind to wild-type PRKC, IGF2BP3, TANC2, ADCY9, or SPNS1; and (ii) an oligonucleotide that hybridizes to the fusion junction of the PRKC gene fusion; and (b) detecting binding between the PRKC fusion protein or the PRKC gene fusion and the reagent.
A slurry comprising amorphous aluminum phosphate particles and a dispersant, wherein the aluminum phosphate concentration is 40 to 70 weight % and the dispersant concentration is less than 3.5 weight % based on total weight of the slurry, wherein the dispersant is selected from a phosphate dispersant selected from tetrasodium pyrophosphate, pentasodium triphosphate, trisodium phosphate dodecahydrate, tetrapotassium pyrophosphate, sodium potassium triphosphate; and a combination thereof.
A method for resolution of values in a computing system containing at least two composition containers, wherein a composition container serves as a host for component instances and as an isolation boundary between the component instances and component instances within another composition container, each composition container having a respective value resolver for resolving requests from components within the composition container for values, wherein the value resolver registers itself with a value resolver service, the method comprising the steps of: the value resolver service receiving a value resolution request from a first value resolver of a first composition container, the first value resolver having at least one value resolution policy which specifies at least one of the following: an order specification specifying a composition container search order for value resolution, a visibility specification specifying whether the respective composition container uses and/or provides values to other composition containers; the value resolver service identifying a second value resolver of a second composition container which has a value resolution policy compatible with the value resolution policy of the first value resolver, and querying the second value resolver for a value sought in the value resolution request; if the value resolution request seeks a single resolved value, supplying, by the value resolver service to the first value resolver a single resolved value which is the initial value received as a query response by the value resolver service; and if the value resolution request seeks multiple resolved values, supplying, by the value resolver service to the first value resolver an aggregated set of multiple resolved values received as query responses by the value resolver service. the value resolver service receiving a value resolution request from a first value resolver of a first composition container, the first value resolver having at least one value resolution policy which specifies at least one of the following: an order specification specifying a composition container search order for value resolution, a visibility specification specifying whether the respective composition container uses and/or provides values to other composition containers; the value resolver service identifying a second value resolver of a second composition container which has a value resolution policy compatible with the value resolution policy of the first value resolver, and querying the second value resolver for a value sought in the value resolution request; if the value resolution request seeks a single resolved value, supplying, by the value resolver service to the first value resolver a single resolved value which is the initial value received as a query response by the value resolver service; and if the value resolution request seeks multiple resolved values, supplying, by the value resolver service to the first value resolver an aggregated set of multiple resolved values received as query responses by the value resolver service.
An apparatus comprising: a back panel; a front panel substantially opposite the back panel; a bottom panel that extends from the back panel to the front panel, the bottom panel comprising a folding bottom board that is coupled to the bottom panel by a hinge, the folding bottom board having an unfolded position where the folding bottom board is proximal an intersection of the front panel and the bottom panel, and a folded position where the folding bottom board is folded about the hinge and distal the intersection of the front panel and the bottom panel; a right side panel that extends from the back panel to the front panel; a left side that extends from the back panel to the front panel, wherein the left side is substantially opposite the right side; a frame member comprising a left longitudinal arm that extends across the left side panel substantially from the back panel to the front panel; a right longitudinal arm that extends across the right side panel substantially from the back panel to the front panel, and a transverse base that extends from the left side panel to the right side panel along the intersection of the front panel and the bottom panel; wherein: the transverse base collapses toward the back panel when the folding bottom board is in the folded position. a back panel; a front panel substantially opposite the back panel; a bottom panel that extends from the back panel to the front panel, the bottom panel comprising a folding bottom board that is coupled to the bottom panel by a hinge, the folding bottom board having an unfolded position where the folding bottom board is proximal an intersection of the front panel and the bottom panel, and a folded position where the folding bottom board is folded about the hinge and distal the intersection of the front panel and the bottom panel; a right side panel that extends from the back panel to the front panel; a left side that extends from the back panel to the front panel, wherein the left side is substantially opposite the right side; a frame member comprising a left longitudinal arm that extends across the left side panel substantially from the back panel to the front panel; a right longitudinal arm that extends across the right side panel substantially from the back panel to the front panel, and a transverse base that extends from the left side panel to the right side panel along the intersection of the front panel and the bottom panel; wherein: the transverse base collapses toward the back panel when the folding bottom board is in the folded position.
A dual check valve, comprising: an axially extending body, comprising: an upper housing defining an inlet port of the check valve, and including a first valve seat; an intermediate housing coupled to the upper housing to define a first cavity, and including a second valve seat; a lower housing defining an outlet port of the check valve, and coupled to the intermediate housing to define a second cavity, wherein the inlet port and the outlet port are axially aligned along a central longitudinal axis of the body; a first disk mounted in the first cavity and configured to selectively contact the first valve seat; and a second disk mounted in the second cavity and configured to selectively contact the second valve seat, wherein when the dual check valve is in an open state, the first disk deflects away from the first valve seat to create a first gap between an upper surface of the first disk and the first valve seat, and the second disk deflects away from the second valve seat to create a second gap between an upper surface of the second disk and the second valve seat, the first gap being smaller than the second gap. an axially extending body, comprising: an upper housing defining an inlet port of the check valve, and including a first valve seat; an intermediate housing coupled to the upper housing to define a first cavity, and including a second valve seat; a lower housing defining an outlet port of the check valve, and coupled to the intermediate housing to define a second cavity, wherein the inlet port and the outlet port are axially aligned along a central longitudinal axis of the body; an upper housing defining an inlet port of the check valve, and including a first valve seat; an intermediate housing coupled to the upper housing to define a first cavity, and including a second valve seat; a lower housing defining an outlet port of the check valve, and coupled to the intermediate housing to define a second cavity, wherein the inlet port and the outlet port are axially aligned along a central longitudinal axis of the body; a first disk mounted in the first cavity and configured to selectively contact the first valve seat; and a second disk mounted in the second cavity and configured to selectively contact the second valve seat, wherein when the dual check valve is in an open state, the first disk deflects away from the first valve seat to create a first gap between an upper surface of the first disk and the first valve seat, and the second disk deflects away from the second valve seat to create a second gap between an upper surface of the second disk and the second valve seat, the first gap being smaller than the second gap.
A mobile telecommunications network including a core and a radio access network having radio means for wireless communication with mobile terminals registered with the network, wherein the radio access network includes control means, characterised in that the control means is operable to control the transfer of data between the mobile terminals and a plurality of distributed data stores, wherein the control means is operable to temporarily store data transmitted from the mobile terminals at the radio means or at the control means, for subsequent transmission to the distributed data stores, wherein the plurality of distributed data stores are at different geographical locations, wherein the control means is operable to control on which of the distributed data stores the data are stored based upon user defined criteria and/or network operator defined criteria and/or criteria defined by the control means, and wherein the control means is operable to predict at least one of the future location of the terminals, radio performance and radio capacity, and to control when uplink data is transmitted to one of the distributed data stores by the terminal in dependence upon the prediction.
A method of forwarding a video-on-demand flow, comprising: receiving, by a Virtual Broadband Remote Access Server, vBRAS, Service Orchestrator, vBRASSO, in a network with virtualization of network functions, user information from a vBRAS in a vBRAS resource pool, wherein the vBRASSO is configured to establish and deploy the vBRAS resource pool and manage vBRASs in the vBRAS pool, and wherein the user information is user information of a first user successfully authenticated on the vBRAS; determining, by the vBRASSO, a first Point Of Presence, POP, switch for forwarding a video-on-demand flow to the first user based on the user information; and notifying, by the vBRASSO, the first POP switch of a route for forwarding the video-on-demand flow to the first user in such a way that the first POP switch advertises the route to a Core Router, CR, in the network with virtualization of network functions, wherein the CR is configured to receive the video-on-demand flow from a video-playing source and send the video-on-demand flow to the first user via the route advertised by the first POP switch without passing through the vBRAS, wherein the CR is connected to a video-playing source through a network without via a vBRAS, a vBRASSO and a POP switch, and configured to receive the video-on-demand flow from the video-playing source via the route advertised by the first POP switch, and send the video-on-demand flow to the first POP switch instead of to the vBRAS, for the first POP to forward the video-on-demand flow to the first user without passing through the vBRAS. receiving, by a Virtual Broadband Remote Access Server, vBRAS, Service Orchestrator, vBRASSO, in a network with virtualization of network functions, user information from a vBRAS in a vBRAS resource pool, wherein the vBRASSO is configured to establish and deploy the vBRAS resource pool and manage vBRASs in the vBRAS pool, and wherein the user information is user information of a first user successfully authenticated on the vBRAS; determining, by the vBRASSO, a first Point Of Presence, POP, switch for forwarding a video-on-demand flow to the first user based on the user information; and notifying, by the vBRASSO, the first POP switch of a route for forwarding the video-on-demand flow to the first user in such a way that the first POP switch advertises the route to a Core Router, CR, in the network with virtualization of network functions, wherein the CR is configured to receive the video-on-demand flow from a video-playing source and send the video-on-demand flow to the first user via the route advertised by the first POP switch without passing through the vBRAS, wherein the CR is connected to a video-playing source through a network without via a vBRAS, a vBRASSO and a POP switch, and configured to receive the video-on-demand flow from the video-playing source via the route advertised by the first POP switch, and send the video-on-demand flow to the first POP switch instead of to the vBRAS, for the first POP to forward the video-on-demand flow to the first user without passing through the vBRAS.
A user device comprising: means (502, 504, 506) for receiving, from a serving access node, a random access update precondition relating to measurements to be fulfilled by the user device for carrying out a conditional handover to at least one handover candidate cell and a configuration with regard to the conditional handover, wherein the configuration indicates the at least one handover candidate cell; means (504, 506) for carrying out measurements according to the configuration, and, if the random access update precondition is fulfilled, means (502, 504, 506) for transmitting a message to the serving access node, the message comprising information obtained by the measurements and indicating at least one beam of the at least one handover candidate cell and/or the at least one handover candidate cell that caused the random access update precondition being fulfilled for obtaining a random access resource configuration for carrying out the conditional handover to the at least one handover candidate cell based on the obtained, from the serving access node, random access resource configuration. means (502, 504, 506) for receiving, from a serving access node, a random access update precondition relating to measurements to be fulfilled by the user device for carrying out a conditional handover to at least one handover candidate cell and a configuration with regard to the conditional handover, wherein the configuration indicates the at least one handover candidate cell; means (504, 506) for carrying out measurements according to the configuration, and, if the random access update precondition is fulfilled, means (502, 504, 506) for transmitting a message to the serving access node, the message comprising information obtained by the measurements and indicating at least one beam of the at least one handover candidate cell and/or the at least one handover candidate cell that caused the random access update precondition being fulfilled for obtaining a random access resource configuration for carrying out the conditional handover to the at least one handover candidate cell based on the obtained, from the serving access node, random access resource configuration.
An automobile headrest, comprising a shell, support arms, and a seat fixing part, wherein the seat fixing part is arranged on the shell for fixing with the fixing rod on the automobile seat; each support arm is provided with a rotating shaft and a sliding shaft; the sliding shaft slides in a slideway inside the shell, and one end of the sliding shaft is rotatably connected to the rotating shaft through a rotating structure; the support arm is slidably installed in the shell through the sliding shaft, and the width between the support arms is adjusted laterally through the sliding shaft, characterized in that the seat fixing part comprises a first fixing buckle and a second fixing buckle, and the fixing rod on the automobile seat is clamped by the first fixing buckle and the second fixing buckle; the first fixing buckle and the second fixing buckle are respectively provided with fixing clamping teeth; a fixing plate is connected to the upper part of the shell; the fixing plate is provided with corresponding clamping teeth, and the corresponding clamping teeth are engaged with the fixing clamping teeth.
A heart valve assembly, comprising: a frame comprising a ball-shaped anchoring section, adapted to be positioned inside the left atrium of a patient's heart, and defined by a plurality of rows of cells, with each cell defined by a plurality of struts that encircle each cell, and two legs (17, 18) extending from two opposite cells of one of the plurality of rows of cells of the anchoring section, wherein the anchoring section has a longitudinal axis extending through the anchoring section, characterized in that each of the two legs (17, 18) begins at a first bend (10, 9) that extends from one of the two opposite cells, and then transitions along a first straight section that extends towards the longitudinal axis to a second bend (11, 12), and then extending vertically along a second straight section to a tip (13, 14), and the assembly further comprises a leaflet assembly having a plurality of leaflets that are stitched to the legs (17, 18). a frame comprising a ball-shaped anchoring section, adapted to be positioned inside the left atrium of a patient's heart, and defined by a plurality of rows of cells, with each cell defined by a plurality of struts that encircle each cell, and two legs (17, 18) extending from two opposite cells of one of the plurality of rows of cells of the anchoring section, wherein the anchoring section has a longitudinal axis extending through the anchoring section, characterized in that each of the two legs (17, 18) begins at a first bend (10, 9) that extends from one of the two opposite cells, and then transitions along a first straight section that extends towards the longitudinal axis to a second bend (11, 12), and then extending vertically along a second straight section to a tip (13, 14), and the assembly further comprises a leaflet assembly having a plurality of leaflets that are stitched to the legs (17, 18).
An analytical device comprising: a sensor; an analytical circuit comprising a regulator; and a power source including: an optical coupler having a light source activated by electrical power and a photovoltaic cell for producing an electromotive force in response to light from the light source, wherein the electromotive force is controlled by an intensity of the light source; a current source for controlling the intensity of the light source; and a power supply for feeding the current source; wherein the regulator is configured to receive the electromotive force from the optical coupler, to condition the electromotive force and to provide a conditioned electromotive force to the sensor; and wherein the regulator is electrically insulated from the light source, the current source and the power supply. a sensor; an analytical circuit comprising a regulator; and a power source including: an optical coupler having a light source activated by electrical power and a photovoltaic cell for producing an electromotive force in response to light from the light source, wherein the electromotive force is controlled by an intensity of the light source; a current source for controlling the intensity of the light source; and a power supply for feeding the current source; an optical coupler having a light source activated by electrical power and a photovoltaic cell for producing an electromotive force in response to light from the light source, wherein the electromotive force is controlled by an intensity of the light source; a current source for controlling the intensity of the light source; and a power supply for feeding the current source; wherein the regulator is configured to receive the electromotive force from the optical coupler, to condition the electromotive force and to provide a conditioned electromotive force to the sensor; and wherein the regulator is electrically insulated from the light source, the current source and the power supply.