mhurhangee/ep-ind-claims huggingface dataset:
An interlocking socket for coupling to a connector of a load, the interlocking socket comprising: a receptacle configured to receive the connector; a microcontroller coupled to the receptacle, the microcontroller operable for testing for one or more faults in the connector, a conductor (621, 622) coupling the load and the connector, or the load; a breaker coupled to the receptacle and the microcontroller; conductors (621, 622) on a receptacle side of the breaker and line conductors (606, 607) on a power line side of the breaker; characterised by further comprising: a signal transformer (652; 662, 664) coupled to the conductors (621, 622) on the receptacle side of the breaker and to the line conductors on the power line side of the breaker, the signal transformer (652; 662; 664) being configured to transmit communication signals between the load and a remote device. a receptacle configured to receive the connector; a microcontroller coupled to the receptacle, the microcontroller operable for testing for one or more faults in the connector, a conductor (621, 622) coupling the load and the connector, or the load; a breaker coupled to the receptacle and the microcontroller; conductors (621, 622) on a receptacle side of the breaker and line conductors (606, 607) on a power line side of the breaker; characterised by further comprising: a signal transformer (652; 662, 664) coupled to the conductors (621, 622) on the receptacle side of the breaker and to the line conductors on the power line side of the breaker, the signal transformer (652; 662; 664) being configured to transmit communication signals between the load and a remote device.
A gas separation method of allowing selective permeation of carbon dioxide as a specific gas from a mixed gas using a laminate comprising a gas separation membrane comprising polydimethylsiloxane and a support membrane comprising a polyimide porous material, the method comprising feeding the mixed gas to one side of the gas separation membrane in the laminate, wherein the gas separation membrane has a film thickness of 1 μm or less, wherein concentration of carbon dioxide as a specific gas in the mixed gas is 10,000 ppm by mass or less, and the selective permeation of the gas with the gas separation membrane in the laminate is carried out under conditions where a pressure difference between both sides of the gas separation membrane is 1 atmosphere or less. the method comprising feeding the mixed gas to one side of the gas separation membrane in the laminate, wherein the gas separation membrane has a film thickness of 1 μm or less, wherein concentration of carbon dioxide as a specific gas in the mixed gas is 10,000 ppm by mass or less, and the selective permeation of the gas with the gas separation membrane in the laminate is carried out under conditions where a pressure difference between both sides of the gas separation membrane is 1 atmosphere or less.
A user equipment, UE, for use in a wireless communication system, the user equipment comprising: a communication module configured to obtain an indication of application specific congestion control for data communication, ACDC, activation, the indication of ACDC activation including: an indication of at least one allowed application class; and characterized in that the indication of ACDC activation further including: an indication that voluntary access barring, VAB, is enabled in the wireless communication system; and the user equipment further comprising a control logic configured to: in response to receiving the indication that VAB is enabled, voluntarily bar access based on an indication from a user of the UE for an application requesting network access, wherein the application is associated with an allowed application class. an indication that voluntary access barring, VAB, is enabled in the wireless communication system; and the user equipment further comprising a control logic configured to: in response to receiving the indication that VAB is enabled, voluntarily bar access based on an indication from a user of the UE for an application requesting network access, wherein the application is associated with an allowed application class.
A thermally conductive polymer compound, comprising: (a) polyamide, (b) pitch-based carbon fiber, (c) boron nitride, and (d) a non-halogenated organic phosphinate, wherein the compound has an in-plane thermal conductivity of more than 8 W/mK as measured using ASTM E1461. (a) polyamide, (b) pitch-based carbon fiber, (c) boron nitride, and (d) a non-halogenated organic phosphinate,
A configuration method for a synchronization network, comprising: determining at least the following information: topology of the synchronization network, and the number of external clocks enabled by the synchronization network; and performing clock configuration for the synchronization network according to the determined information, wherein: if the synchronization network comprises a ring having an external clock injected at a single point, configuring the synchronization network comprises: performing the clock configuration for the ring in a ring manner by: for a node having external clock injection in the ring, configuring an extracted external clock; and for each node having no external clock injection in the ring, configuring two chains for extracting clocks from adjacent nodes at both sides of the node, and configuring an extracted clock in an extraction direction being the same as a preset extraction direction of an operation clock of the ring, as an operation clock, the extraction direction of the operation clock of the ring being clockwise or counter clockwise. determining at least the following information: topology of the synchronization network, and the number of external clocks enabled by the synchronization network; and performing clock configuration for the synchronization network according to the determined information, wherein: if the synchronization network comprises a ring having an external clock injected at a single point, configuring the synchronization network comprises: performing the clock configuration for the ring in a ring manner by: for a node having external clock injection in the ring, configuring an extracted external clock; and for each node having no external clock injection in the ring, configuring two chains for extracting clocks from adjacent nodes at both sides of the node, and configuring an extracted clock in an extraction direction being the same as a preset extraction direction of an operation clock of the ring, as an operation clock, the extraction direction of the operation clock of the ring being clockwise or counter clockwise. for a node having external clock injection in the ring, configuring an extracted external clock; and for each node having no external clock injection in the ring, configuring two chains for extracting clocks from adjacent nodes at both sides of the node, and configuring an extracted clock in an extraction direction being the same as a preset extraction direction of an operation clock of the ring, as an operation clock, the extraction direction of the operation clock of the ring being clockwise or counter clockwise.
A method of operating a robot (200, 300), the method comprising: electronically receiving images, wherein the received images are captured by an imaging device (218, 219, 262, 272) disposed on the robot (200, 300); augmenting the images by overlaying a representation of the robot on the images, the robot representation comprising user-selectable portions corresponding to movable portions of the robot (200, 300); electronically displaying the augmented images; receiving an indication of a selection of at least one user-selectable portion of the robot representation; electronically displaying an intent to command the selected at least one user-selectable portion of the robot representation; receiving an input representative of a user interaction including a selection of a displayed object displayed in a different part of the image than the robot representation; determining at least one movement parameter of at least one movable portion of the robot (200, 300) using inverse kinematics based on the received input; and issuing a command to the robot (200, 300) based on the at least one movement parameter. electronically receiving images, wherein the received images are captured by an imaging device (218, 219, 262, 272) disposed on the robot (200, 300); augmenting the images by overlaying a representation of the robot on the images, the robot representation comprising user-selectable portions corresponding to movable portions of the robot (200, 300); electronically displaying the augmented images; receiving an indication of a selection of at least one user-selectable portion of the robot representation; electronically displaying an intent to command the selected at least one user-selectable portion of the robot representation; receiving an input representative of a user interaction including a selection of a displayed object displayed in a different part of the image than the robot representation; determining at least one movement parameter of at least one movable portion of the robot (200, 300) using inverse kinematics based on the received input; and issuing a command to the robot (200, 300) based on the at least one movement parameter.
A method for peer-to-peer wireless local area network, Wi-Fi, ranging, comprising: communicating, from a first device (104(a)) to a second device (104(b)) using near field communication, NFC, a request for a Wi-Fi ranging operation, said request comprising a preferred mode of Wi-Fi operation and first device state information; receiving, via said NFC, at the first device from the second device, a reply comprising acceptance of the request for Wi-Fi ranging operation indicating that the second device has accepted the first device's preferred mode of Wi-Fi operation; communicating, from the first device to the second device via said NFC, wireless information to enable the Wi-Fi ranging operation between the first device and the second device. communicating, from a first device (104(a)) to a second device (104(b)) using near field communication, NFC, a request for a Wi-Fi ranging operation, said request comprising a preferred mode of Wi-Fi operation and first device state information; receiving, via said NFC, at the first device from the second device, a reply comprising acceptance of the request for Wi-Fi ranging operation indicating that the second device has accepted the first device's preferred mode of Wi-Fi operation; communicating, from the first device to the second device via said NFC, wireless information to enable the Wi-Fi ranging operation between the first device and the second device.
A system for tracking a location of a medical personnel comprising: one or more processors (108, 126) to activate one or more electronic devices when a medical personnel (402, 500, 600) enters a patient room and to obtain image data acquired by the one or more electronic devices that captures the medical personnel; one or more light sources placed adjacent the patient room to generate a visual identification pattern assigned to the medical personnel on determination that the medical personnel has entered the patient room; an input to acquire, from the one or more electronic devices, image data that captures the visual identification pattern; logic (108, 126) to analyze the acquired image data to determine an identity of the medical personnel based on the captured visual identification pattern; and a database (138, 142) for storing a record of a location of the medical personal. one or more processors (108, 126) to activate one or more electronic devices when a medical personnel (402, 500, 600) enters a patient room and to obtain image data acquired by the one or more electronic devices that captures the medical personnel; one or more light sources placed adjacent the patient room to generate a visual identification pattern assigned to the medical personnel on determination that the medical personnel has entered the patient room; an input to acquire, from the one or more electronic devices, image data that captures the visual identification pattern; logic (108, 126) to analyze the acquired image data to determine an identity of the medical personnel based on the captured visual identification pattern; and a database (138, 142) for storing a record of a location of the medical personal.
A receiving device (301, 104 1, 104 2, 104 3...104 n) configured to communicate with a transmitting device (801, 102 1, 102 2), the receiving device comprising: a processor (118 1, 118 2, 118 3...118n); and, a memory (120 1, 120 2, 120 3...120n) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the receiving device is operable to monitor up to N radio blocks (402, 502, 602a, 602b, 602c, 602d) received from the transmitting device, wherein N is based on a coverage class of the receiving device; to attempt to decode an original radio block by combining the monitored radio blocks; to determine if the original radio block is successfully decoded; and, when the original radio block is determined to be successfully decoded, to stop monitoring a remainder of radio blocks in a repetition period, wherein the repetition period comprises a set of radio blocks each of which corresponds to the original radio block, characterized in that the repetition period is indicated by an indicator (404, 504, 604a, 604b, 604c, 604d) in each of the monitored radio blocks. a processor (118 1, 118 2, 118 3...118n); and, a memory (120 1, 120 2, 120 3...120n) that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the receiving device is operable to monitor up to N radio blocks (402, 502, 602a, 602b, 602c, 602d) received from the transmitting device, wherein N is based on a coverage class of the receiving device; to attempt to decode an original radio block by combining the monitored radio blocks; to determine if the original radio block is successfully decoded; and, when the original radio block is determined to be successfully decoded, to stop monitoring a remainder of radio blocks in a repetition period, wherein the repetition period comprises a set of radio blocks each of which corresponds to the original radio block, characterized in that the repetition period is indicated by an indicator (404, 504, 604a, 604b, 604c, 604d) in each of the monitored radio blocks.
A closure system for closing an opening of a container, comprising a stopper member made of an elastic material and having a plug portion configured to fit into the opening of the container and a cover portion configured to abut a boundary surface adjacent to the opening of the container, and a cage member configured to be mounted to the container, wherein the closure system is configured to be in an assembled state in which the plug portion of the stopper member is fitted into the opening of the container, the cover portion of the stopper member abuts the boundary surface of the container and the cage member is mounted to the container to hold the stopper member, characterized by further comprising a spring member wherein the cage member and the spring member are configured to position the spring member between the cover portion of the stopper member and the cage member such that the spring member is arranged to push the cage member away from the cover portion of the stopper member, when the closure system is in the assembled state. a stopper member made of an elastic material and having a plug portion configured to fit into the opening of the container and a cover portion configured to abut a boundary surface adjacent to the opening of the container, and a cage member configured to be mounted to the container, wherein the closure system is configured to be in an assembled state in which the plug portion of the stopper member is fitted into the opening of the container, the cover portion of the stopper member abuts the boundary surface of the container and the cage member is mounted to the container to hold the stopper member, characterized by further comprising a spring member wherein the cage member and the spring member are configured to position the spring member between the cover portion of the stopper member and the cage member such that the spring member is arranged to push the cage member away from the cover portion of the stopper member, when the closure system is in the assembled state.
A conduit length adjustment device comprising: a. a female body; b. a male body, axially movably arranged within the female body along a longitudinal axis of the conduit length adjustment device; and c. a locking clip; wherein d. in an open position the locking clip is not in engagement with the male body in order to allow the axial movement of the male body with respect to the female body; and e. in a locked position the locking clip engages with the male body in order to prevent the axial movement of the male body with respect to the female body; characterised in that f. the locking clip is mounted in a guide channel of the female body; wherein g. the locking clip is rotatably arranged on the surface of the female body such that the locking clip is slidably rotatable within the guide channel with respect to the female body around the longitudinal axis from the open position to the locked position; h. the locking clip comprises a snap-latch having a locking lug which engages in the locked position a locking socket arranged on the outside of the female body for preventing the locking clip from accidentally rotating back from the locked position to the open position; i. wherein the snap-latch can be lifted for disengagement such that the locking clip can be rotated back into its open position. a. a female body; b. a male body, axially movably arranged within the female body along a longitudinal axis of the conduit length adjustment device; and c. a locking clip; wherein d. in an open position the locking clip is not in engagement with the male body in order to allow the axial movement of the male body with respect to the female body; and e. in a locked position the locking clip engages with the male body in order to prevent the axial movement of the male body with respect to the female body; characterised in that f. the locking clip is mounted in a guide channel of the female body; wherein g. the locking clip is rotatably arranged on the surface of the female body such that the locking clip is slidably rotatable within the guide channel with respect to the female body around the longitudinal axis from the open position to the locked position; h. the locking clip comprises a snap-latch having a locking lug which engages in the locked position a locking socket arranged on the outside of the female body for preventing the locking clip from accidentally rotating back from the locked position to the open position; i. wherein the snap-latch can be lifted for disengagement such that the locking clip can be rotated back into its open position.
An oil flow enhancer bearing assembly for a turbine engine, the assembly comprising: a housing configured to receive a shaft and having at least one scavenge passage between an outer housing portion and an inner housing portion, the scavenge passage being configured to provide a lubricant flow; characterized by a slinger disk configured to be received in at least a portion of the housing and positioned about the shaft, the slinger disk being defined by an inner perimeter and an outer perimeter, the slinger disk having a plurality of flow guides including protrusions interposed between a first wall and a second wall and extending from the first wall and between the inner perimeter and the outer perimeter, the plurality of flow guides being configured to direct the lubricant flow toward the at least one scavenge passage; and a bearing configured to be received in at least a portion of the housing and positioned about the shaft and adjacent the slinger disk, wherein the slinger disk is configured to direct lubricant flow toward the at least one scavenge passage thereby forcing lubricant flow through the bearing. a housing configured to receive a shaft and having at least one scavenge passage between an outer housing portion and an inner housing portion, the scavenge passage being configured to provide a lubricant flow; characterized by a slinger disk configured to be received in at least a portion of the housing and positioned about the shaft, the slinger disk being defined by an inner perimeter and an outer perimeter, the slinger disk having a plurality of flow guides including protrusions interposed between a first wall and a second wall and extending from the first wall and between the inner perimeter and the outer perimeter, the plurality of flow guides being configured to direct the lubricant flow toward the at least one scavenge passage; and a bearing configured to be received in at least a portion of the housing and positioned about the shaft and adjacent the slinger disk, wherein the slinger disk is configured to direct lubricant flow toward the at least one scavenge passage thereby forcing lubricant flow through the bearing.
A photodetector comprising: a waveguide (120,220) on a substrate; and a photodetection portion (130,230) configured to receive light incident from the waveguide, the photodetection portion including a graphene (133,233), the photodetection portion being connected to the waveguide (120,220) a first electrode (141,241) and a second electrode (142,242) electrically connected to the graphene (133,233); characterised in that the photodetection portion (130,230) includes a first semiconductor layer (131,231) contacting the waveguide (120,220), the graphene (133,233) being on the first semiconductor layer, and a second semiconductor layer (135,235) on the graphene (133,233); wherein the first semiconductor layer (1311,231) has a first ridge portion extending from a lower portion of the waveguide, the graphene (133,233) is formed on at least an upper surface of the first ridge portion, the second semiconductor layer (135,235) includes a second ridge portion formed on the graphene, the second ridge portion contacting an upper portion of the waveguide;.and wherein the first electrode (141,241) and the second electrode (142,242) are separated from the first ridge portion. a waveguide (120,220) on a substrate; and a photodetection portion (130,230) configured to receive light incident from the waveguide, the photodetection portion including a graphene (133,233), the photodetection portion being connected to the waveguide (120,220) a first electrode (141,241) and a second electrode (142,242) electrically connected to the graphene (133,233); characterised in that the photodetection portion (130,230) includes a first semiconductor layer (131,231) contacting the waveguide (120,220), the graphene (133,233) being on the first semiconductor layer, and a second semiconductor layer (135,235) on the graphene (133,233); wherein the first semiconductor layer (1311,231) has a first ridge portion extending from a lower portion of the waveguide, the graphene (133,233) is formed on at least an upper surface of the first ridge portion, the second semiconductor layer (135,235) includes a second ridge portion formed on the graphene, the second ridge portion contacting an upper portion of the waveguide;.and wherein the first electrode (141,241) and the second electrode (142,242) are separated from the first ridge portion.