mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless device, for handling a mobility procedure in a communication network, which communication network comprises a first network and a second network, which first network is associated with a core network node, and which first network is further associated with a first Radio Access Network, RAN, node and wherein the second network is associated with a second RAN node, wherein the first RAN node and the second RAN node each support a set of cells wherein the first and the second network further comprise partitioned sets of functionalities, wherein a first set of functionalities belongs to a first network slice supporting the wireless device, and which first set of functionalities is separated from another set of functionalities out of a total set of functionalities in the first network and in the second network, wherein the wireless device is associated with the first network and the first network slice in a first cell of the first RAN node, and wherein the network slices and corresponding network slice identities are un-coordinated between the first and the second network, the method characterized by comprising: - receiving, from the core network node, a message comprising an indication of one or more combinations of networks and network slices equivalent to the first network slice associated with the wireless device in the first network, by enhancing the equivalent combinations of networks to also provide slice support information; and - determining a cell from the second set of cells supported by the second RAN node, which cell supports an equivalent of the first slice associated with the wireless device, based on the indication received from the core network node. - receiving, from the core network node, a message comprising an indication of one or more combinations of networks and network slices equivalent to the first network slice associated with the wireless device in the first network, by enhancing the equivalent combinations of networks to also provide slice support information; and - determining a cell from the second set of cells supported by the second RAN node, which cell supports an equivalent of the first slice associated with the wireless device, based on the indication received from the core network node.
A compound of Formula 1 wherein R 1 represents hydrogen, halo, a C 1-4 alkyl group, a C 1-4 alkylhalide group, a (C 1-4 alkoxy)(C 2-4 alkyl) group, a C 2-4 alkenyl group, a C 2-4 alkynyl group or a C 3 - 7 cycloalkyl group; R 2 represents or a tautomer thereof; and R 3 represents hydrogen, a C 1-4 alkyl group, a (C 1-4 alkoxy)(C 2-4 alkyl) group or a C 3 - 7 cycloalkyl group; or a pharmaceutically acceptable salt or solvate thereof. wherein R 1 represents hydrogen, halo, a C 1-4 alkyl group, a C 1-4 alkylhalide group, a (C 1-4 alkoxy)(C 2-4 alkyl) group, a C 2-4 alkenyl group, a C 2-4 alkynyl group or a C 3 - 7 cycloalkyl group; R 2 represents or a tautomer thereof; and R 3 represents hydrogen, a C 1-4 alkyl group, a (C 1-4 alkoxy)(C 2-4 alkyl) group or a C 3 - 7 cycloalkyl group;
Axial bearing (57,59) comprising a first part (32;56) and a second part (30;36) that presses with an axial load against the first part and can rotate around a rotation axis relative to the first part, the axial bearing being between the first part and the second part and further comprising a circular or arc-shaped ridge (67,68) on the first part centered around the rotation axis, a pressure source for providing pressurized hydraulic fluid on a first side of the circular or arc-shaped ridge, an adjustable gap between the circular or arc shaped ridge and a bearing surface on the second part, wherein the pressurized hydraulic fluid flows through the adjustable gap to a second side of the circular or arc-shaped ridge, characterized in that the circular or arc-shaped ridge (67,68,69) and/or the bearing surface comprise(s) a ridge chamber between a low-pressure side rim and a high-pressure side rim of the ridge for locally creating a larger adjustable gap between the circular or arc-shaped ridge and the bearing surface than at said low-pressure side and high-pressure side rims (71, 72) and wherein the pressure of the hydraulic fluid in the ridge chamber is lower than the pressure of the pressure source, wherein the ridge chamber communicates with the pressure source through a restriction (73, 75).
A method for wireless communication, comprising: receiving wide area network, WAN, scheduling information from downlink signals received at a first device from an entity of a WAN when the first device is configured for a first mode of communication; determining a mesh network schedule based on the WAN scheduling information; configuring a radio air interface of the first device in accordance with the WAN scheduling information, wherein configuring the radio air interface includes selecting between the first mode of communication and a second mode of communication that spreads data over frequency-domain resources; if the radio air interface is configured for the first mode of communication, transmitting data wirelessly from the first device at a first power level over time-domain resources to the entity of the WAN; and if the radio air interface is configured for the second mode of communication: (a) transmitting data wirelessly from the first device at a second power level lower than the first power level over frequency-domain resources to a second device in accordance with the mesh network schedule; and (b) selecting the second power level to be less than a power level calculated to cause the entity of the WAN to ignore data transmissions by the first device in the second mode of communication if received by the entity of the WAN. receiving wide area network, WAN, scheduling information from downlink signals received at a first device from an entity of a WAN when the first device is configured for a first mode of communication; determining a mesh network schedule based on the WAN scheduling information; configuring a radio air interface of the first device in accordance with the WAN scheduling information, wherein configuring the radio air interface includes selecting between the first mode of communication and a second mode of communication that spreads data over frequency-domain resources; if the radio air interface is configured for the first mode of communication, transmitting data wirelessly from the first device at a first power level over time-domain resources to the entity of the WAN; and if the radio air interface is configured for the second mode of communication: (a) transmitting data wirelessly from the first device at a second power level lower than the first power level over frequency-domain resources to a second device in accordance with the mesh network schedule; and (b) selecting the second power level to be less than a power level calculated to cause the entity of the WAN to ignore data transmissions by the first device in the second mode of communication if received by the entity of the WAN. (a) transmitting data wirelessly from the first device at a second power level lower than the first power level over frequency-domain resources to a second device in accordance with the mesh network schedule; and (b) selecting the second power level to be less than a power level calculated to cause the entity of the WAN to ignore data transmissions by the first device in the second mode of communication if received by the entity of the WAN.
A powered oral care apparatus comprising: a handle having a motor and a driveshaft coupled to the motor; a head assembly having an arm portion, a coupling portion structured to enable the head assembly to be disposed on the driveshaft, and an oral care assembly provided at a distal end of the arm portion, wherein the oral care assembly includes a fluid capsule member structured to hold a fluid, wherein the oral care assembly comprises the fluid capsule member provided on a first side of the distal end of the arm portion, the capsule member including an upper portion and a bottom generally planar wall portion defining a reservoir, the bottom wall portion having a number of first openings provided therethrough, wherein the oral care assembly further comprises an outer wall portion defining a planar wall portion, the planar wall portion having a number of second openings provided therethrough, the first openings being generally aligned with the second openings, and wherein the oral care assembly is structured to dispense the fluid from the reservoir and out of the oral care assembly through the number of first openings and the number of second openings in response to motion imparted by the motor. a handle having a motor and a driveshaft coupled to the motor; a head assembly having an arm portion, a coupling portion structured to enable the head assembly to be disposed on the driveshaft, and an oral care assembly provided at a distal end of the arm portion, wherein the oral care assembly includes a fluid capsule member structured to hold a fluid, wherein the oral care assembly comprises the fluid capsule member provided on a first side of the distal end of the arm portion, the capsule member including an upper portion and a bottom generally planar wall portion defining a reservoir, the bottom wall portion having a number of first openings provided therethrough, wherein the oral care assembly further comprises an outer wall portion defining a planar wall portion, the planar wall portion having a number of second openings provided therethrough, the first openings being generally aligned with the second openings, and wherein the oral care assembly is structured to dispense the fluid from the reservoir and out of the oral care assembly through the number of first openings and the number of second openings in response to motion imparted by the motor.
A bowed rotor start mitigation system comprising: a gas turbine engine comprising an air turbine starter; a variable position starter valve fluidly connected to the air turbine starter; and a controller configured to dynamically adjust the variable position starter valve to deliver a starter air supply to the air turbine starter to drive rotation of a starting spool of the gas turbine engine according to a dry motoring profile that continuously increases a rotor speed of the starting spool to approach a critical rotor speed gradually while bowed rotor start mitigation is active, wherein the critical rotor speed refers to a major resonance speed of the starting spool, wherein the controller monitors the rotor speed and dynamically adjusts a valve angle of the variable position starter valve to maintain the rotor speed along a target rotor speed profile defined in the dry motoring profile that drives the rotor speed to a set value and accelerates the rotor speed through the critical rotor speed; and wherein the target rotor speed profile in the dry motoring profile maintains a positive slope while bowed rotor start mitigation is active. a gas turbine engine comprising an air turbine starter; a variable position starter valve fluidly connected to the air turbine starter; and a controller configured to dynamically adjust the variable position starter valve to deliver a starter air supply to the air turbine starter to drive rotation of a starting spool of the gas turbine engine according to a dry motoring profile that continuously increases a rotor speed of the starting spool to approach a critical rotor speed gradually while bowed rotor start mitigation is active, wherein the critical rotor speed refers to a major resonance speed of the starting spool, wherein the controller monitors the rotor speed and dynamically adjusts a valve angle of the variable position starter valve to maintain the rotor speed along a target rotor speed profile defined in the dry motoring profile that drives the rotor speed to a set value and accelerates the rotor speed through the critical rotor speed; and wherein the target rotor speed profile in the dry motoring profile maintains a positive slope while bowed rotor start mitigation is active.
A method of processing test calls from elevator emergency telephones, characterized in comprising: receiving, at an elevator emergency call receiver unit, an incoming call attempt from an elevator emergency telephone (310a, 310b), the call attempt including caller line identification, CLI, information; detecting, by the elevator emergency call receiver unit, the CLI information included in the received call attempt, and performing one of: a) disconnecting (15a, 16a), by the elevator emergency call receiver unit, the call attempt to complete the test call processing; and b) in response to detecting, by the elevator emergency call receiver unit, the call attempt being released (18a, 19a) by the elevator emergency telephone within a predetermined time period, determining, by the elevator emergency call receiver unit, that the test call processing is completed. receiving, at an elevator emergency call receiver unit, an incoming call attempt from an elevator emergency telephone (310a, 310b), the call attempt including caller line identification, CLI, information; detecting, by the elevator emergency call receiver unit, the CLI information included in the received call attempt, and performing one of: a) disconnecting (15a, 16a), by the elevator emergency call receiver unit, the call attempt to complete the test call processing; and b) in response to detecting, by the elevator emergency call receiver unit, the call attempt being released (18a, 19a) by the elevator emergency telephone within a predetermined time period, determining, by the elevator emergency call receiver unit, that the test call processing is completed. a) disconnecting (15a, 16a), by the elevator emergency call receiver unit, the call attempt to complete the test call processing; and b) in response to detecting, by the elevator emergency call receiver unit, the call attempt being released (18a, 19a) by the elevator emergency telephone within a predetermined time period, determining, by the elevator emergency call receiver unit, that the test call processing is completed.
A free stroke device for a bicycle, the bicycle comprising a frame, a rear wheel, a suspension system of the rear wheel with respect to the frame that allows a predetermined relative displacement between them, a drivetrain system for transmitting the motion from a crankset to the rear wheel, where the drivetrain system comprises a crankset fixed to the frame, a hub and pinion assembly fixed to the rear wheel that is rotatable about a common pivot axis thereof, and a drive chain placed to connect them directly to each other, where the crankset and the hub and pinion assembly are subjected to reciprocal displacement by the action of the suspension system, where the free stroke device is configured to be placed to allow both a forward and backward free angular stroke of the chain with respect to the respective pivot axes (X, x1) of at least a crankset and/or of at least a hub and pinion assembly, where the angular stroke is limited by a predetermined angle of entity related to said relative movement between wheel and frame, wherein: - said forward stroke is the one that occurs both in the passage from an extended position to a compressed position of the suspension, and at the start of the pedalling in extended position of the suspension, said free stroke device (40, 140, 240) comprises first damper means (70, 60a, 60b, 60c) that act for the entire forward angular stroke, opposing it, and characterized in that - said free stroke device (40, 140, 240) comprises additional damper means (85, 185, 285) that act only in a final stretch of forward angular stroke, opposing it. - said forward stroke is the one that occurs both in the passage from an extended position to a compressed position of the suspension, and at the start of the pedalling in extended position of the suspension, said free stroke device (40, 140, 240) comprises first damper means (70, 60a, 60b, 60c) that act for the entire forward angular stroke, opposing it, and characterized in that - said free stroke device (40, 140, 240) comprises additional damper means (85, 185, 285) that act only in a final stretch of forward angular stroke, opposing it.
A position controller that performs position control by outputting a drive signal to a control valve of a hydraulic actuator that changes an operation position of a transmission element that changes a transmission ratio of a continuously variable transmission in accordance with a position change of the transmission element, the position control comprising: a position acquisition unit that acquires an actual value of an operation position of the transmission element; a position control unit that calculates an operation command value for the control valve by closed-loop control so as to reduce a deviation between a target value of the operation position of the transmission element and the actual value; and a vibration wave application unit that applies a vibration wave to a signal of the closed-loop control so that the operation command value vibrates at a predetermined frequency at start of the closed-loop control. a position acquisition unit that acquires an actual value of an operation position of the transmission element; a position control unit that calculates an operation command value for the control valve by closed-loop control so as to reduce a deviation between a target value of the operation position of the transmission element and the actual value; and a vibration wave application unit that applies a vibration wave to a signal of the closed-loop control so that the operation command value vibrates at a predetermined frequency at start of the closed-loop control.
A time synchronization method, applied to a first network device, comprising: inserting, at a physical layer, a Synchronization Timing block, ST, into a signal to be sent, wherein the signal to be sent is a bit sequence to be sent, the ST comprises a synchronization byte and a timing byte, the synchronization byte is used for positioning the ST, and the timing byte is used for carrying synchronization information for a second network device to perform time synchronization; and sending the signal to be sent, in which the ST is inserted, to a second network device. inserting, at a physical layer, a Synchronization Timing block, ST, into a signal to be sent, wherein the signal to be sent is a bit sequence to be sent, the ST comprises a synchronization byte and a timing byte, the synchronization byte is used for positioning the ST, and the timing byte is used for carrying synchronization information for a second network device to perform time synchronization; and sending the signal to be sent, in which the ST is inserted, to a second network device.
A microfluidic device, comprising: a first layer defining a first cavity; a first channel arranged to provide fluid entry to the first cavity; a second layer defining a second cavity; a second channel arranged to provide fluid entry to the second cavity; and at least one separating material providing fluid separation between the first cavity and the second cavity, wherein compression of the first and second layers relative to one another causes sealing of the first channel and the second channel resulting in obstruction of the first cavity and the second cavity from further fluid entry, wherein manipulation of the at least one separating material causes removal of the fluid separation allowing for fluid communication between the first cavity and second cavity, wherein compression of the first and second layers relative to one another causes substantial filling of the first and second channels with a sealing material, and wherein the at least one separating material comprises the sealing material. a first layer defining a first cavity; a first channel arranged to provide fluid entry to the first cavity; a second layer defining a second cavity; a second channel arranged to provide fluid entry to the second cavity; and at least one separating material providing fluid separation between the first cavity and the second cavity, wherein compression of the first and second layers relative to one another causes sealing of the first channel and the second channel resulting in obstruction of the first cavity and the second cavity from further fluid entry, wherein manipulation of the at least one separating material causes removal of the fluid separation allowing for fluid communication between the first cavity and second cavity, wherein compression of the first and second layers relative to one another causes substantial filling of the first and second channels with a sealing material, and wherein the at least one separating material comprises the sealing material.
A microscope apparatus (31, 57) comprising: a light source configured to emit a coherent illuminating light; an optical system (32, 58) configured to irradiate a specimen (43, 63) with the illumination light; and a detector (49, 67) configured to form an image based on a light generated from the specimen by the illumination light that irradiates the specimen, wherein the optical system is configured to project a plurality of focal points of the illumination light on the specimen, and allow the plurality of focal points to interfere with each other while changing phases of the plurality of focal points, the optical system is configured to form an area of the illumination light in the specimen, the area being smaller than the focal point, by changing the phases of adjacent focal points of the plurality of focal points and allowing the adjacent focal points to interfere with each other, the optical system (32, 58) includes a pinhole array that includes a plurality of pinholes and generates the plurality of illumination lights by passing the illumination light from the light source through the pinhole array, and the optical system further includes a condenser lens that transmits the plurality of illumination lights and projects the plurality of focal points on the specimen, wherein the microscope apparatus further comprises: a slit ring that is disposed on an outer periphery of a pupil diameter of the condenser lens. a light source configured to emit a coherent illuminating light; an optical system (32, 58) configured to irradiate a specimen (43, 63) with the illumination light; and a detector (49, 67) configured to form an image based on a light generated from the specimen by the illumination light that irradiates the specimen, wherein the optical system is configured to project a plurality of focal points of the illumination light on the specimen, and allow the plurality of focal points to interfere with each other while changing phases of the plurality of focal points, the optical system is configured to form an area of the illumination light in the specimen, the area being smaller than the focal point, by changing the phases of adjacent focal points of the plurality of focal points and allowing the adjacent focal points to interfere with each other, the optical system (32, 58) includes a pinhole array that includes a plurality of pinholes and generates the plurality of illumination lights by passing the illumination light from the light source through the pinhole array, and the optical system further includes a condenser lens that transmits the plurality of illumination lights and projects the plurality of focal points on the specimen, wherein the microscope apparatus further comprises: a slit ring that is disposed on an outer periphery of a pupil diameter of the condenser lens.
A flux for brazing aluminum-based materials, the flux consisting of, expressed in mol%, 20 mol%≤CsF≤49 mol%, 1 mol%≤LiF≤58 mol%, 19 mol%≤AlF 3 ≤41 mol%, and 0.01 mol%≤NaF and/or KF≤19 mol%, and unavoidable impurities.