mhurhangee/ep-ind-claims huggingface dataset:
A power-driven system, comprising: a differential, a power output shaft, wherein the power output shaft is configured to be linked to the power input end of the differential; multiple input shafts (101, 102), wherein one input shaft in the multiple input shafts (101, 102) is configured to selectively link to the power output shaft, and the another input shaft in the multiple input shafts (101, 102) is configured to link to the power output shaft; and a first motor generator, wherein the first motor generator is configured to link to the one input shaft of the multiple input shafts (101, 102) characterized in that the differential comprises: a first planet carrier, a first planet gear, and a first ring gear, the first planet gear being disposed on the first planet carrier, and the first planet gear meshing with the first ring gear; and a second planet carrier, a second planet gear, and a second ring gear, the second planet gear being disposed on the second planet carrier, the second planet gear meshing with the second ring gear, and the second planet gear further meshing with the first planet gear, wherein the first ring gear and the second ring gear form two power output ends of the differential, and the first planet carrier and the second planet carrier form a power input end of the differential. a differential, a power output shaft, wherein the power output shaft is configured to be linked to the power input end of the differential; multiple input shafts (101, 102), wherein one input shaft in the multiple input shafts (101, 102) is configured to selectively link to the power output shaft, and the another input shaft in the multiple input shafts (101, 102) is configured to link to the power output shaft; and a first motor generator, wherein the first motor generator is configured to link to the one input shaft of the multiple input shafts (101, 102) characterized in that the differential comprises: a first planet carrier, a first planet gear, and a first ring gear, the first planet gear being disposed on the first planet carrier, and the first planet gear meshing with the first ring gear; and a second planet carrier, a second planet gear, and a second ring gear, the second planet gear being disposed on the second planet carrier, the second planet gear meshing with the second ring gear, and the second planet gear further meshing with the first planet gear, a first planet carrier, a first planet gear, and a first ring gear, the first planet gear being disposed on the first planet carrier, and the first planet gear meshing with the first ring gear; and a second planet carrier, a second planet gear, and a second ring gear, the second planet gear being disposed on the second planet carrier, the second planet gear meshing with the second ring gear, and the second planet gear further meshing with the first planet gear, wherein the first ring gear and the second ring gear form two power output ends of the differential, and the first planet carrier and the second planet carrier form a power input end of the differential.
A method of operating an electronic device to control an image display device, the method comprising: receiving uncompressed audio-visual content information and an enhanced service of content being broadcasted in the image display device, from a management server, wherein the uncompressed audio-visual content information is recognized through an automatic contents recognition, ACR, function; displaying the uncompressed audio-visual content information and the enhanced service on a chat window of a first application, wherein the first application is a messenger application performing a mutual message exchange function; receiving chatting content input into the chat window as a control command for executing the enhanced service displayed on the chat window, through an input unit included in the electronic device, wherein the control command includes a command for executing the enhanced service in the image display device; and displaying the chatting content with the uncompressed audio-visual content information and the enhanced service on the chat window of the first application; and transmitting the control command to the management server. receiving uncompressed audio-visual content information and an enhanced service of content being broadcasted in the image display device, from a management server, wherein the uncompressed audio-visual content information is recognized through an automatic contents recognition, ACR, function; displaying the uncompressed audio-visual content information and the enhanced service on a chat window of a first application, wherein the first application is a messenger application performing a mutual message exchange function; receiving chatting content input into the chat window as a control command for executing the enhanced service displayed on the chat window, through an input unit included in the electronic device, wherein the control command includes a command for executing the enhanced service in the image display device; and displaying the chatting content with the uncompressed audio-visual content information and the enhanced service on the chat window of the first application; and transmitting the control command to the management server.
A gas diffusion electrode for use in a fuel cell, comprising an electrically conductive porous substrate (1, 101) and, on at least one side thereof, a microporous layer containing electrically conductive microparticles and a water-repellent resin, the gas diffusion electrode having a through-thickness gas diffusivity (measured according to the method defined in the description) of hydrogen, air or oxygen of 30% or more, the electrically conductive porous substrate (1, 101) having a sliding-down angle (measured according to the method defined in the description) of 70° or less and a porosity of 80 % or more, the electrically conductive porous substrate (1, 101) is a water repellent treated conductive porous substrate, the electrically conductive porous substrate (1, 101) is a carbon-fiber-containing porous substrate, the microporous layer having a thickness of 10 μm or more and 50 μm or less and a porosity (measured according to the method defined in the description) of 60% or more and 95 % or less, the water-repellent resin is PTFE (polytetrafluoroethylene) or FEP (tetrafluoroethylene-hexafluoropropylene copolymer), and the sticking force (measured according to the method defined in the description) between the electrically conductive porous substrate and the microporous layer being 5 N/cm 2 or more. the gas diffusion electrode having a through-thickness gas diffusivity (measured according to the method defined in the description) of hydrogen, air or oxygen of 30% or more, the electrically conductive porous substrate (1, 101) having a sliding-down angle (measured according to the method defined in the description) of 70° or less and a porosity of 80 % or more, the electrically conductive porous substrate (1, 101) is a water repellent treated conductive porous substrate, the electrically conductive porous substrate (1, 101) is a carbon-fiber-containing porous substrate, the microporous layer having a thickness of 10 μm or more and 50 μm or less and a porosity (measured according to the method defined in the description) of 60% or more and 95 % or less, the water-repellent resin is PTFE (polytetrafluoroethylene) or FEP (tetrafluoroethylene-hexafluoropropylene copolymer), and the sticking force (measured according to the method defined in the description) between the electrically conductive porous substrate and the microporous layer being 5 N/cm 2 or more.
A state machine configurator (302; 402) that facilitates state machine control in an industrial automation system, comprising: an interface component (304; 406) configured to receive configuration data that defines a state machine (200; 702, 704, 706), characterized in that the interface component (304; 406) is further configured to provide an interface for specifying available states and transitions of the state machine, wherein the interface displays selectable transition commands in a transition command row, and the states in a state column of a transition priority matrix, the transition priority matrix allowing a user to select, for each state of the state column, which of the transition commands in a transition command row will trigger a transition from a state in the state column to a destination state associated with the transition command, by entering priority values in fields of the transition priority matrix, wherein priority values entered in the fields of the transition priority matrix for a state of the state column determine which command will be given priority if two or more enabled commands are received simultaneously; and an instruction generation component (306; 410) configured to compile the configuration data to yield a state machine instruction that, in response to execution by a controller, facilitates control of the industrial automation system in accordance with the state machine. an interface component (304; 406) configured to receive configuration data that defines a state machine (200; 702, 704, 706), characterized in that the interface component (304; 406) is further configured to provide an interface for specifying available states and transitions of the state machine, wherein the interface displays selectable transition commands in a transition command row, and the states in a state column of a transition priority matrix, the transition priority matrix allowing a user to select, for each state of the state column, which of the transition commands in a transition command row will trigger a transition from a state in the state column to a destination state associated with the transition command, by entering priority values in fields of the transition priority matrix, wherein priority values entered in the fields of the transition priority matrix for a state of the state column determine which command will be given priority if two or more enabled commands are received simultaneously; and an instruction generation component (306; 410) configured to compile the configuration data to yield a state machine instruction that, in response to execution by a controller, facilitates control of the industrial automation system in accordance with the state machine.
A method for random access by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a threshold value related to determination of a random access type and random access-related information; determining the random access type as one of a two-step random access type and a four-step random access type based on the threshold value and a strength of a reception signal received from the base station; transmitting, to the base station, a signal related to a first preamble for random access based on the determined random access type and the random access-related information, wherein the signal related to the first preamble for random access is transmitted based on a common resource for the two-step random access type and the four-step random access type; in case that the determined random access type is the two-step random access type, identifying, among a message B, Msg B, according to the two-step random access type and a message 2, Msg 2, according to the four-step random access type, a backoff indicator included in the Msg B; in case that the determined random access type is the four-step random access type, identifying, among the Msg B and the Msg 2, a backoff indicator included in the Msg 2; and transmitting, to the base station, a signal related to a second preamble based on the identified backoff indicator. receiving, from a base station, a threshold value related to determination of a random access type and random access-related information; determining the random access type as one of a two-step random access type and a four-step random access type based on the threshold value and a strength of a reception signal received from the base station; transmitting, to the base station, a signal related to a first preamble for random access based on the determined random access type and the random access-related information, wherein the signal related to the first preamble for random access is transmitted based on a common resource for the two-step random access type and the four-step random access type; in case that the determined random access type is the two-step random access type, identifying, among a message B, Msg B, according to the two-step random access type and a message 2, Msg 2, according to the four-step random access type, a backoff indicator included in the Msg B; in case that the determined random access type is the four-step random access type, identifying, among the Msg B and the Msg 2, a backoff indicator included in the Msg 2; and transmitting, to the base station, a signal related to a second preamble based on the identified backoff indicator.
A flexo printing plate comprising: an image portion including a halftone dot portion; and a non-image portion, wherein within a highlight halftone dot portion having a halftone dot area ratio of higher than 0% and equal to or lower than 10%, among small dots constituting the highlight halftone dot portion, at least one small dot adjacent to the non-image portion that continues 10 mm or further in a direction separating from the edge of the highlight halftone dot portion has a height smaller than an average height of the small dots of the highlight halftone dot portion. an image portion including a halftone dot portion; and a non-image portion, wherein within a highlight halftone dot portion having a halftone dot area ratio of higher than 0% and equal to or lower than 10%, among small dots constituting the highlight halftone dot portion, at least one small dot adjacent to the non-image portion that continues 10 mm or further in a direction separating from the edge of the highlight halftone dot portion has a height smaller than an average height of the small dots of the highlight halftone dot portion.
A method for multiple transaction capabilities application part,TCAP, operation code, opcode, screening, the method comprising: receiving a first SS7 signaling message including multiple TCAP opcodes; determining that the first SS7 signaling message requires further processing; in response to determining that the first SS7 signaling message requires further processing, decoding, from the first SS7 signaling message, N TCAP opcodes, where N is an integer of at least two; for each of the N TCAP opcodes, applying a filter and determining that one of the filters indicates that the opcode, alone or in combination with other parameters in the first SS7 signaling message, is not allowed; and in response to determining that the one filter indicates that the opcode alone or in combination with the other parameters is not allowed, performing an SS7 firewall action. receiving a first SS7 signaling message including multiple TCAP opcodes; determining that the first SS7 signaling message requires further processing; in response to determining that the first SS7 signaling message requires further processing, decoding, from the first SS7 signaling message, N TCAP opcodes, where N is an integer of at least two; for each of the N TCAP opcodes, applying a filter and determining that one of the filters indicates that the opcode, alone or in combination with other parameters in the first SS7 signaling message, is not allowed; and in response to determining that the one filter indicates that the opcode alone or in combination with the other parameters is not allowed, performing an SS7 firewall action.
An electromagnetic relay comprising: a fixed iron core; a movable iron core that is disposed opposing to the fixed iron core and can contact-with or separate-from the fixed iron core along an axial direction; a coil that surrounds the fixed iron core and the movable iron core and generates a magnetic force when energized to make the movable iron core attracted by the fixed iron core; a movable contact coupled with the movable iron core; a fixed contact that is disposed opposing to the movable contact and can be contacted-with or distanced-from the movable contact along with a movement of the movable iron core; and a reset spring that is interposed between the fixed iron core and the movable iron core and separates the movable iron core from the fixed iron core when the coil is de-energized, wherein the movable iron core includes a base body and a movable member that is provided independently from the base body, characterized in that the movable member is configured to be moved to the fixed iron core integrally with the base body in the axial direction when the coil is energized, and to move in the axial direction to slide independently from the base body to which an expanding force of the reset spring is applied when the coil is de-energized. a fixed iron core; a movable iron core that is disposed opposing to the fixed iron core and can contact-with or separate-from the fixed iron core along an axial direction; a coil that surrounds the fixed iron core and the movable iron core and generates a magnetic force when energized to make the movable iron core attracted by the fixed iron core; a movable contact coupled with the movable iron core; a fixed contact that is disposed opposing to the movable contact and can be contacted-with or distanced-from the movable contact along with a movement of the movable iron core; and a reset spring that is interposed between the fixed iron core and the movable iron core and separates the movable iron core from the fixed iron core when the coil is de-energized, wherein the movable iron core includes a base body and a movable member that is provided independently from the base body, characterized in that the movable member is configured to be moved to the fixed iron core integrally with the base body in the axial direction when the coil is energized, and to move in the axial direction to slide independently from the base body to which an expanding force of the reset spring is applied when the coil is de-energized.
A method for controlling a hybrid drive system in a working machine, the system comprising: an internal combustion engine; a torque converter having an input shaft operatively coupled to the engine and an output shaft operatively coupled to a gearbox; an energy storage system operatively coupled to the gearbox for providing power to and receiving power from a drive shaft via the gearbox, said drive shaft being operatively coupled to propulsion means of the working machine, and work hydraulics operatively connected to the engine; the method comprising: identifying a repetitive loading cycle of the working machine; detecting a bucket fill action in a repetitive loading cycle; and the method being characterized by, during the bucket fill action, discharging the energy storage system to provide a majority of the energy stored in the energy storage system to the drive shaft for vehicle propulsion. an internal combustion engine; a torque converter having an input shaft operatively coupled to the engine and an output shaft operatively coupled to a gearbox; an energy storage system operatively coupled to the gearbox for providing power to and receiving power from a drive shaft via the gearbox, said drive shaft being operatively coupled to propulsion means of the working machine, and work hydraulics operatively connected to the engine; the method comprising: identifying a repetitive loading cycle of the working machine; detecting a bucket fill action in a repetitive loading cycle; and the method being characterized by, during the bucket fill action, discharging the energy storage system to provide a majority of the energy stored in the energy storage system to the drive shaft for vehicle propulsion. identifying a repetitive loading cycle of the working machine; detecting a bucket fill action in a repetitive loading cycle; and the method being characterized by, during the bucket fill action, discharging the energy storage system to provide a majority of the energy stored in the energy storage system to the drive shaft for vehicle propulsion.
A method carried out by a network support apparatus of a radio communication network for managing resources of the network support apparatus, comprising the steps of: - determining a load at the network support apparatus based on the number of events generated by recordings activated by at least one performance management function in a time period, which triggers a radio measurement; - comparing the determined load with a threshold load smaller than or equal to the maximum load supported by the network support apparatus; and - performing a resource management procedure according to the result of the comparing step, wherein the determining step comprises multiplying the number of events of one recording type by a predetermined parameter associated with the same recording type. - determining a load at the network support apparatus based on the number of events generated by recordings activated by at least one performance management function in a time period, which triggers a radio measurement; - comparing the determined load with a threshold load smaller than or equal to the maximum load supported by the network support apparatus; and - performing a resource management procedure according to the result of the comparing step, wherein the determining step comprises multiplying the number of events of one recording type by a predetermined parameter associated with the same recording type.
A method for forming a cooling circuit in at least one of a combustor panel or liner wall of an aircraft engine, comprising: producing a substrate with the cooling circuit (402b-1) formed in the substrate; inserting a material (404b-1) into the cooling circuit (402b-1) as at least one of an inlay or filler; at least one of coating or plating the cooling circuit (402b-1) on a surface (402b-3) of the substrate to create a wall; wherein the cooling circuit (402b-1) is located in proximity to an aperture associated with the at least one of a panel or liner wall; characterised in that: the surface (402b-3) corresponds to a wall of the substrate that is configured to be opposite to a combustion flowpath of the engine. producing a substrate with the cooling circuit (402b-1) formed in the substrate; inserting a material (404b-1) into the cooling circuit (402b-1) as at least one of an inlay or filler; at least one of coating or plating the cooling circuit (402b-1) on a surface (402b-3) of the substrate to create a wall; wherein the cooling circuit (402b-1) is located in proximity to an aperture associated with the at least one of a panel or liner wall; characterised in that: the surface (402b-3) corresponds to a wall of the substrate that is configured to be opposite to a combustion flowpath of the engine.