mhurhangee/ep-ind-claims huggingface dataset:
A scheduled service processing method, comprising: within a time interval from t 1 to t 2, if a second transport path that can satisfy a service demand is acquired based on an available network resource, reserving, by a network layer controller, the network resource for the second transport path, and reporting, by the network layer controller, the second transport path to an application layer controller, so that the application layer controller can select one path between the second transport path and a first transport path as a target transport path; and receiving, by the network layer controller, the target transport path sent by the application layer controller, and transporting the service by using the target transport path, wherein t 1 is a time at which the application layer controller sends the service demand, t 2 is a time at which the service is started, and the first transport path is a transport path that satisfies the service demand and that is acquired before the second transport path. within a time interval from t 1 to t 2, if a second transport path that can satisfy a service demand is acquired based on an available network resource, reserving, by a network layer controller, the network resource for the second transport path, and reporting, by the network layer controller, the second transport path to an application layer controller, so that the application layer controller can select one path between the second transport path and a first transport path as a target transport path; and receiving, by the network layer controller, the target transport path sent by the application layer controller, and transporting the service by using the target transport path, wherein t 1 is a time at which the application layer controller sends the service demand, t 2 is a time at which the service is started, and the first transport path is a transport path that satisfies the service demand and that is acquired before the second transport path.
An apparatus for outputting a content to a display, the apparatus comprising: a communicator configured to perform a data communication with the display; an input interface configured to receive a Standard Dynamic Range SDR content and metadata associated with the SDR content; and a processor configured to obtain first gamma information applied to the SDR content based on Video Usability Information, VUI, of the metadata, to convert the SDR content into a High Dynamic Range, HDR, content outputtable on the display by changing SDR pixel values of each image frame of the SDR content into HDR pixel values having a characteristic of the HDR content based on a lookup table corresponding to the first gamma information and second gamma information of the display included in Extended Display Identification Data, EDID, received from the display through the communicator, and to control the communicator to output the HDR content to the display. a communicator configured to perform a data communication with the display; an input interface configured to receive a Standard Dynamic Range SDR content and metadata associated with the SDR content; and a processor configured to obtain first gamma information applied to the SDR content based on Video Usability Information, VUI, of the metadata, to convert the SDR content into a High Dynamic Range, HDR, content outputtable on the display by changing SDR pixel values of each image frame of the SDR content into HDR pixel values having a characteristic of the HDR content based on a lookup table corresponding to the first gamma information and second gamma information of the display included in Extended Display Identification Data, EDID, received from the display through the communicator, and to control the communicator to output the HDR content to the display.
Bone screw having two thread halves delimiting an open seat for a connecting element, and fastening element (4, 6, 7, 9), the thread halves being designed for receiving the fastening element, characterised in that at least one fastening member selected from the threads halves and the fastening element has a thread lead-in where threads are only present from the point where their flanks have the full height.
A processing device for a weighing scale, wherein the processing device is configured to: obtain a first axle positioning sensing signal (Pks) indicating when wheels of a vehicle enter a first side of a weighing bridge, wherein the first side is an entering side for the vehicle, determine a first threshold signal ( Th 1) based on the first axle positioning sensing signal ( Pks), determine at least one first transitional time period ( T 1) when wheels of the vehicle enter the first side based on the first axle positioning sensing signal ( Pks) and the first threshold signal ( Th 1); and obtain a second axle positioning sensing signal ( Aks) indicating when wheels of the vehicle leave a second side of the weighing bridge, wherein the second side is a leaving side for the vehicle, determine a second threshold signal based on the second axle positioning sensing signal ( Aks), determine at least one second transitional time period ( T 2) when wheels of the vehicle leave the second side based on the second axle positioning sensing signal ( Aks) and the second threshold signal; obtain samples of a weight signal associated with the first axle positioning sensing signal (Pks) and the second axle positioning sensing signal ( Aks); discard samples of the weight signal based on the first transitional time period; discard samples of the weight signal based on the second transitional time period ( T 2); and compute at least one of an axle weight for the vehicle and a total weight for the vehicle based on the non-discarded samples of the weight signal. obtain a first axle positioning sensing signal (Pks) indicating when wheels of a vehicle enter a first side of a weighing bridge, wherein the first side is an entering side for the vehicle, determine a first threshold signal ( Th 1) based on the first axle positioning sensing signal ( Pks), determine at least one first transitional time period ( T 1) when wheels of the vehicle enter the first side based on the first axle positioning sensing signal ( Pks) and the first threshold signal ( Th 1); and obtain a second axle positioning sensing signal ( Aks) indicating when wheels of the vehicle leave a second side of the weighing bridge, wherein the second side is a leaving side for the vehicle, determine a second threshold signal based on the second axle positioning sensing signal ( Aks), determine at least one second transitional time period ( T 2) when wheels of the vehicle leave the second side based on the second axle positioning sensing signal ( Aks) and the second threshold signal; obtain samples of a weight signal associated with the first axle positioning sensing signal (Pks) and the second axle positioning sensing signal ( Aks); discard samples of the weight signal based on the first transitional time period; discard samples of the weight signal based on the second transitional time period ( T 2); and compute at least one of an axle weight for the vehicle and a total weight for the vehicle based on the non-discarded samples of the weight signal.
A base station for a communication system in which resources can be dynamically allocated at each transmission time interval on a downlink control channel, the base station comprising: means for transmitting control information to perform activation of persistent scheduling, wherein the control information includes information configured to indicate a Modulation and Coding Scheme, MCS, and wherein the information configured to indicate the MCS is set to a specific bit pattern for the activation of the persistent scheduling; and means for performing communication with a user equipment, UE, based on the persistent scheduling. means for transmitting control information to perform activation of persistent scheduling, wherein the control information includes information configured to indicate a Modulation and Coding Scheme, MCS, and wherein the information configured to indicate the MCS is set to a specific bit pattern for the activation of the persistent scheduling; and means for performing communication with a user equipment, UE, based on the persistent scheduling.
A system comprising: means (70, 22) displaying a region selection user interface screen including a representation of a plurality of regions of a body in which the patient experiences pain; means configured to receive a region selection input indicating at least one region from the plurality of regions of the body of the patient in which the patient experiences pain; means configured to receive a therapy input defining an aspect of peripheral nerve field stimulation for the at least one region selected by the user, wherein the means configured to receive the therapy input further comprises means for receiving input indicating a desired therapeutic effect of the peripheral nerve field stimulation; and means configured to determine a therapy program for providing peripheral nerve field stimulation to the at least one region based on the therapy input defining the aspect of peripheral nerve field stimulation for the at least one region and the desired therapeutic effect of the peripheral nerve field stimulation, and wherein the therapy program defines a stimulation frequency or a stimulation frequency range associated with the desired therapeutic effect. means (70, 22) displaying a region selection user interface screen including a representation of a plurality of regions of a body in which the patient experiences pain; means configured to receive a region selection input indicating at least one region from the plurality of regions of the body of the patient in which the patient experiences pain; means configured to receive a therapy input defining an aspect of peripheral nerve field stimulation for the at least one region selected by the user, wherein the means configured to receive the therapy input further comprises means for receiving input indicating a desired therapeutic effect of the peripheral nerve field stimulation; and means configured to determine a therapy program for providing peripheral nerve field stimulation to the at least one region based on the therapy input defining the aspect of peripheral nerve field stimulation for the at least one region and the desired therapeutic effect of the peripheral nerve field stimulation, and wherein the therapy program defines a stimulation frequency or a stimulation frequency range associated with the desired therapeutic effect.
A turbine system comprising a combustor section, in which a plurality of transition ducts is disposed in an annular array about a longitudinal axis, in which at least one of the plurality of transition ducts comprises an inlet, an outlet, and a duct passage extending between the inlet and the outlet, wherein the inlet is located at a fuel nozzle or a plurality of fuel nozzles or at a liner of a combustor of the combustor section, and wherein the outlet of the at least one transition duct is offset from the inlet along the longitudinal axis, a tangential axis and a radial axis, characterized in that the duct passage comprises a plurality of at least two portions (140, 142), which are articulated with respect to each other; that an upstream portion of the plurality of portions extends from the inlet between an inlet end and an aft end and a downstream portion from the outlet between an outlet end and a head end; that a joint couples the aft end of the upstream portion and the head end of the downstream portion together; and that the joint is configured to allow movement of the upstream portion and the downstream portion relative to each other about and along at least two of the longitudinal, the tangential and the radial axis during operation of the turbine system. that the duct passage comprises a plurality of at least two portions (140, 142), which are articulated with respect to each other; that an upstream portion of the plurality of portions extends from the inlet between an inlet end and an aft end and a downstream portion from the outlet between an outlet end and a head end; that a joint couples the aft end of the upstream portion and the head end of the downstream portion together; and that the joint is configured to allow movement of the upstream portion and the downstream portion relative to each other about and along at least two of the longitudinal, the tangential and the radial axis during operation of the turbine system. that a joint couples the aft end of the upstream portion and the head end of the downstream portion together; and that the joint is configured to allow movement of the upstream portion and the downstream portion relative to each other about and along at least two of the longitudinal, the tangential and the radial axis during operation of the turbine system.
A built-in propulsion system, comprising: an engine; a diversion unit comprising a diversion base and an exhaust pipe, said diversion base being located at a bottom end of said engine, said diversion base comprising a water inlet located at a front end thereof, a water outlet located at an opposing rear end thereof, a diversion channel defined therein and having two opposite ends thereof respectively disposed in communication with said water inlet and said water outlet, a shaft hole and an exhaust chamber, said shaft hole being located above said water inlet and communicated with said diversion channel, said exhaust chamber being located behind said shaft hole, said exhaust pipe being provided and fixed with a top end thereof fixed on an outer periphery of said diversion base in a way that said exhaust pipe is in communication with said exhaust chamber of said diversion base; and a propulsion unit comprising a transmission shaft and an impeller connected to said transmission shaft, said transmission shaft being rotatably inserted through said shaft hole of said diversion base and connected to said engine, said impeller being located in said diversion channel of said diversion base above said water inlet of said diversion base; wherein said exhaust pipe is located on an outer side of the diversion base, and said exhaust pipe has a bottom end thereof open downward. an engine; a diversion unit comprising a diversion base and an exhaust pipe, said diversion base being located at a bottom end of said engine, said diversion base comprising a water inlet located at a front end thereof, a water outlet located at an opposing rear end thereof, a diversion channel defined therein and having two opposite ends thereof respectively disposed in communication with said water inlet and said water outlet, a shaft hole and an exhaust chamber, said shaft hole being located above said water inlet and communicated with said diversion channel, said exhaust chamber being located behind said shaft hole, said exhaust pipe being provided and fixed with a top end thereof fixed on an outer periphery of said diversion base in a way that said exhaust pipe is in communication with said exhaust chamber of said diversion base; and a propulsion unit comprising a transmission shaft and an impeller connected to said transmission shaft, said transmission shaft being rotatably inserted through said shaft hole of said diversion base and connected to said engine, said impeller being located in said diversion channel of said diversion base above said water inlet of said diversion base; wherein said exhaust pipe is located on an outer side of the diversion base, and said exhaust pipe has a bottom end thereof open downward.
A nonaqueous electrolyte secondary battery comprising a positive electrode, a negative electrode, and a nonaqueous electrolyte, wherein the positive electrode includes a positive electrode mixture comprising a positive electrode active material and an additive, the positive electrode active material comprises a composite oxide comprising lithium and a transition metal, the additive comprises a particulate base material, and an organic compound group fixed to a surface of the base material by a covalent bond, the covalent bond comprises a X-O-A bond, the element X is bonded to the organic compound group, and is at least one selected from the group consisting of Si and Ti, the element A is an element constituting the base material, and the organic compound group has 2 or more carbon atoms. the positive electrode includes a positive electrode mixture comprising a positive electrode active material and an additive, the positive electrode active material comprises a composite oxide comprising lithium and a transition metal, the additive comprises a particulate base material, and an organic compound group fixed to a surface of the base material by a covalent bond, the covalent bond comprises a X-O-A bond, the element X is bonded to the organic compound group, and is at least one selected from the group consisting of Si and Ti, the element A is an element constituting the base material, and the organic compound group has 2 or more carbon atoms.
A gas expansion power generation system comprising: a heating unit configured to raise the temperature of natural gas; a flow rate adjustment unit configured to adjust a flow rate of the natural gas; and a power generation unit configured to reduce the pressure of the natural gas and concurrently expand the natural gas and configured to generate electric power through energy generated when the natural gas is expanded, wherein the natural gas is sequentially movable to the heating unit, the flow rate adjustment unit, and the power generation unit, characterized in that the heating unit is configured to receive waste heat generated in a natural gas reforming process as a heat source to preheat the natural gas before moving the power generation unit, or to receive waste heat generated in a natural gas reforming process together with waste heat generated in a power generation process through a fuel cell as a heat source to preheat the natural gas before moving the power generation unit. a heating unit configured to raise the temperature of natural gas; a flow rate adjustment unit configured to adjust a flow rate of the natural gas; and a power generation unit configured to reduce the pressure of the natural gas and concurrently expand the natural gas and configured to generate electric power through energy generated when the natural gas is expanded, wherein the natural gas is sequentially movable to the heating unit, the flow rate adjustment unit, and the power generation unit, characterized in that the heating unit is configured to receive waste heat generated in a natural gas reforming process as a heat source to preheat the natural gas before moving the power generation unit, or to receive waste heat generated in a natural gas reforming process together with waste heat generated in a power generation process through a fuel cell as a heat source to preheat the natural gas before moving the power generation unit.
An expression cassette comprising a polynucleotide, said polynucleotide comprising a yeast methanol inducible alcohol oxidase I promotor sequence or a yeast methanol inducible alcohol oxidase II promotor sequence, a modified Pichia alpha signal gene sequence, the modified alpha signal gene sequence being an alpha signal gene sequence devoid of the STE13 protease cleavage site, a nucleic acid sequence encoding clot specific streptokinase and a transcription terminator sequence, wherein the nucleic acid sequence encoding clot specific streptokinase is selected from the group consisting of a nucleotide sequence with 100% identity to the sequence set forth in SEQ ID NO: 2, a nucleotide sequence with 85% identity to the sequence set forth in SEQ ID NO: 4, a nucleotide sequence with 85% identity to the sequence set forth in SEQ ID NO: 6 and a nucleotide sequence with 85% identity to the sequence set forth in SEQ ID NO: 8.
A work machine comprising: an engine; a hydraulic pump driven by the engine; a swing structure; an electric motor for driving the swing structure; a hydraulic motor for driving the swing structure, the hydraulic motor being driven by the hydraulic pump; a swing control lever device that commands the swing structure to be driven; a swing control lever operating stroke detection device that detects a swing operating stroke of the swing control lever device; a swing speed detection device that detects the swing speed of the swing structure; and a control device that operates in either an electric swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a large value relative to torque of the hydraulic motor or a hydraulic swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a small value relative to torque of the hydraulic motor, characterized in that the control device acquires the swing operating stroke of the swing control lever device detected by the swing control lever operating stroke detection device and the swing speed of the swing structure detected by the swing speed detection device, and the control device operates in the electric swing mode when the swing operating stroke of the swing control lever device is smaller than a previously set value and/or the swing speed of the swing structure is lower than a previously set value. an engine; a hydraulic pump driven by the engine; a swing structure; an electric motor for driving the swing structure; a hydraulic motor for driving the swing structure, the hydraulic motor being driven by the hydraulic pump; a swing control lever device that commands the swing structure to be driven; a swing control lever operating stroke detection device that detects a swing operating stroke of the swing control lever device; a swing speed detection device that detects the swing speed of the swing structure; and a control device that operates in either an electric swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a large value relative to torque of the hydraulic motor or a hydraulic swing mode in which the swing structure is driven under the condition that torque of the electric motor is set to be a small value relative to torque of the hydraulic motor, characterized in that the control device acquires the swing operating stroke of the swing control lever device detected by the swing control lever operating stroke detection device and the swing speed of the swing structure detected by the swing speed detection device, and the control device operates in the electric swing mode when the swing operating stroke of the swing control lever device is smaller than a previously set value and/or the swing speed of the swing structure is lower than a previously set value.
Boom arm system for a concrete delivery device, which boom arm system is formed from a plurality of boom arms (A1, A2, A3) which are connected pivotably to one another and are in each case designed as a hollow profile and of which at least one boom arm (A1, A3) in longitudinal extent has a recess (12, 14) which is configured in such a manner that, in a folded-in position of the boom arm system, said recess accommodates an adjacently arranged boom arm having a narrower cross section, wherein pipe holders (R2, R3) of the boom arm (A2, A3) coming to lie in the folded-in position in the recess (12, 14) are positioned in such a manner that they project out of the recess (12, 14), characterized in that the respective pipe holder (R2, R3) is arranged in such a manner that it comes to lie in the folded-in position at an end of the recess (12, 14) remote from the hollow profile of the respective boom arm.