mhurhangee/ep-ind-claims huggingface dataset:
An optical body comprising: a base material, wherein the base material propagates light injected in the inside of the base material from a side surface of the base material, wherein the injected light internally propagates through the inside of the base material while repeating total reflection at two surfaces (10A, 10B) of the base material; a light extraction unit that is formed on at least one surface of the two surfaces (10A, 10B) of the base material and that extracts, to an outside of the base material, the light that is injected in the inside of the base material from the side surface of the base material; and wherein the light extraction unit is formed of a convex microlens array, and a maximum inclination angle of the convex microlens array substantially coincides with a maximum propagation angle of the internally propagating light characterized by an antireflection structure that is formed in regions of the two surfaces (10A, 10B) of the base material where the light extraction unit is not formed. a base material, wherein the base material propagates light injected in the inside of the base material from a side surface of the base material, wherein the injected light internally propagates through the inside of the base material while repeating total reflection at two surfaces (10A, 10B) of the base material; a light extraction unit that is formed on at least one surface of the two surfaces (10A, 10B) of the base material and that extracts, to an outside of the base material, the light that is injected in the inside of the base material from the side surface of the base material; and wherein the light extraction unit is formed of a convex microlens array, and a maximum inclination angle of the convex microlens array substantially coincides with a maximum propagation angle of the internally propagating light characterized by an antireflection structure that is formed in regions of the two surfaces (10A, 10B) of the base material where the light extraction unit is not formed.
A modular trailer comprising: a tubular central chassis spine constructed from at least one cross-shaped tubular section, wherein two of the limbs of the cross-shaped tubular section extend axially and the other two limbs extend transversely, each of the limbs being provided with connection sections at their ends; a plurality of tubular sections connected to the connection sections of the transversely extending limbs of the at least one cross-shaped tubular structure, wherein at least two of the tubular sections are provided with wheels; a tubular T-shaped end section connected to the connection section of one of the axially extending limbs of the central chassis spine; and a towing connection connected to the connection section at the opposite end of the central chassis spine from that of the end T-shaped tubular end section, wherein the tubular sections are readily removable from the connection sections of the central chassis spine; and characterised in that the length of the modular trailer spine is extendible by attaching further cross-shaped tubular sections to the connection sections of the axial limbs of the tubular central chassis spine. a tubular central chassis spine constructed from at least one cross-shaped tubular section, wherein two of the limbs of the cross-shaped tubular section extend axially and the other two limbs extend transversely, each of the limbs being provided with connection sections at their ends; a plurality of tubular sections connected to the connection sections of the transversely extending limbs of the at least one cross-shaped tubular structure, wherein at least two of the tubular sections are provided with wheels; a tubular T-shaped end section connected to the connection section of one of the axially extending limbs of the central chassis spine; and a towing connection connected to the connection section at the opposite end of the central chassis spine from that of the end T-shaped tubular end section,
Method for inserting a weft thread (4, 5) into a shed of an airjet weaving machine comprising a main nozzle device and at least one set of relay nozzles (11 to 19), wherein - a standard setting for a supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is determined, - the standard setting for the supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is adjusted in order to reduce the supply of compressed air, - a stability of the weft insertions with the adjusted standard setting is observed, and - the standard setting for the supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is adjusted such that the supply of compressed air to the at least one set of relay nozzles (11 to 19) is decreased until a weft insertion becomes unstable, characterized in that if a weft thread insertion becomes unstable when an adjusted standard setting for the supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is applied, the supply of compressed air to the main nozzle device is decreased, in order to avoid the instability. - a standard setting for a supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is determined, - the standard setting for the supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is adjusted in order to reduce the supply of compressed air, - a stability of the weft insertions with the adjusted standard setting is observed, and - the standard setting for the supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is adjusted such that the supply of compressed air to the at least one set of relay nozzles (11 to 19) is decreased until a weft insertion becomes unstable, if a weft thread insertion becomes unstable when an adjusted standard setting for the supply of compressed air to the main nozzle device and to the at least one set of relay nozzles (11 to 19) is applied, the supply of compressed air to the main nozzle device is decreased, in order to avoid the instability.
A flywheel (1, 1a, 1b) for securing to a crankshaft of an internal combustion engine, comprising a disk part (2, 2b) which can be rotated about a rotational axis (d) and which comprises a centrifugal pendulum (8, 8a) that faces the internal combustion engine, said centrifugal pendulum comprising pendulum masses which are arranged in an oscillating manner with respect to the disk part (2, 2b) in the centrifugal field of the disk part that rotates about the rotational axis (d) and which are distributed over the circumference, wherein rollers (13, 13a) are arranged between first tracks (22, 22a, 22b) of the disk part (2, 2b) and second tracks of the pendulum masses, characterised in that to allow the formation of pendulum masses with less mass and less surface pressure, the disk part (2, 2b) has an annular protrusion on the outer circumference thereof, the first tracks (22, 22a, 22b) being arranged on the inner circumference thereof and the second tracks being arranged radially outwards on the pendulum masses, wherein the rollers (13, 13a) are provided between the tracks (22, 22a, 22b, 23) in a movable manner to a limited degree with respect to the disk part (2, 2b) so as to correspond to the pendulum movement of the pendulum masses.
A drive system for rotating a wheel of an aircraft landing gear, the drive system including a motor operable to rotate a drive pinion, and a driven gear adapted to be mounted to the wheel, wherein the drive system has a first configuration in which the drive pinion is capable of meshing with the driven gear to permit the motor to drive the driven gear and a second configuration in which the drive pinion is not capable of meshing with the driven gear, and the drive system further comprises a linear positioning actuator for moving the drive pinion relative to the driven gear, wherein the positioning actuator has a first end and a second end, the first end having a pivotal connection with a pivot axis spaced at a fixed distance from an axis of rotation of the driven gear, and the second end having a pivotal connection with a pivot axis spaced at a fixed distance from an axis of rotation of the drive pinion, further comprising a locking device external to the positioning actuator for locking the drive system in the second configuration characterised in that the locking device includes a mechanical locking lever, wherein the locking device includes a hook pivotally mounted on the aircraft landing gear and a pin spaced at a fixed distance from the axis of rotation of the drive pinion, wherein the hook is moveable between a locked position in which the pin is held captive by the hook, and an unlocked position in which the pin moves relative to the hook.
A control information format processing method, comprising: determining a control information format of downlink control information; when the control information format of the downlink control information is determined to be a first control information format, setting a first field comprised in the downlink control information corresponding to the first control information format to indicate a valid setting, wherein the first field comprises a transport block size, TBS field or a modulation and coding scheme, MCS field, and wherein the downlink control information corresponding to the first control information format carries grant information; or when the control information format of the downlink control information is determined to be a second control information format, setting a second field comprised in the downlink control information corresponding to the second control information format to indicate an invalid setting, wherein the second field comprises a reserved bit field, and wherein the downlink control information corresponding to the second control information format carries control channel command information; and sending the downlink control information to user equipment, UE. determining a control information format of downlink control information; when the control information format of the downlink control information is determined to be a first control information format, setting a first field comprised in the downlink control information corresponding to the first control information format to indicate a valid setting, wherein the first field comprises a transport block size, TBS field or a modulation and coding scheme, MCS field, and wherein the downlink control information corresponding to the first control information format carries grant information; or when the control information format of the downlink control information is determined to be a second control information format, setting a second field comprised in the downlink control information corresponding to the second control information format to indicate an invalid setting, wherein the second field comprises a reserved bit field, and wherein the downlink control information corresponding to the second control information format carries control channel command information; and sending the downlink control information to user equipment, UE.
A capability exposure implementation method, comprising: a) obtaining (301, 302; 401, 402; 501, 502), by a first mobile edge platform of a first Mobile Edge Computing, MEC, server, capability information of a radio access network device, configuring an application programming interface, API, and setting (303; 403, 503) a use time limit of the API, wherein the API is used by the first mobile edge platform to provide the capability information for a second mobile edge platform of a second Mobile Edge Computing, MEC, server, first mobile edge platform being disposed on a radio access network side and the second mobile edge platform being disposed on an upper-layer node of the radio access network; b) triggering (304, 404), by the first mobile edge platform, a registration function to send registration information to the second mobile edge platform, wherein the registration information comprises an identifier of the API; c) receiving (313; 414), by the first mobile edge platform, an API request from the second mobile edge platform, wherein the API request comprises the identifier of the API, and the API request is used to request the capability information from the first mobile edge platform; d) detecting (314; 415), by the first mobile edge platform, whether the use time limit of the API expires; and e) when the use time limit of the API does not expire, sending (318, 419), by the first mobile edge platform, an API response to the second mobile edge platform by using the API, wherein the API response comprises the capability information. a) obtaining (301, 302; 401, 402; 501, 502), by a first mobile edge platform of a first Mobile Edge Computing, MEC, server, capability information of a radio access network device, configuring an application programming interface, API, and setting (303; 403, 503) a use time limit of the API, wherein the API is used by the first mobile edge platform to provide the capability information for a second mobile edge platform of a second Mobile Edge Computing, MEC, server, first mobile edge platform being disposed on a radio access network side and the second mobile edge platform being disposed on an upper-layer node of the radio access network; b) triggering (304, 404), by the first mobile edge platform, a registration function to send registration information to the second mobile edge platform, wherein the registration information comprises an identifier of the API; c) receiving (313; 414), by the first mobile edge platform, an API request from the second mobile edge platform, wherein the API request comprises the identifier of the API, and the API request is used to request the capability information from the first mobile edge platform; d) detecting (314; 415), by the first mobile edge platform, whether the use time limit of the API expires; and e) when the use time limit of the API does not expire, sending (318, 419), by the first mobile edge platform, an API response to the second mobile edge platform by using the API, wherein the API response comprises the capability information.
A method to generate a clearance request to deviate from a flight plan, the method comprising: receiving input from at least one of an altimeter, a traffic-alert and collision avoidance system, a weather radar system and a flight management computer at a predictive CPDLC clearance processor located in an airborne vehicle; determining a revised flight route based on the received input at the predictive CPDLC clearance processor; generating a preconfigured clearance request message to deviate from the flight plan for a flight crew user based on the determining at the predictive CPDLC clearance processor; prompting the flight crew user for one of approval and rejection of the clearance request to deviate from the flight plan; and when an approval of the clearance request to deviate from the flight plan is received from the flight crew user, downlinking the preconfigured clearance request message. receiving input from at least one of an altimeter, a traffic-alert and collision avoidance system, a weather radar system and a flight management computer at a predictive CPDLC clearance processor located in an airborne vehicle; determining a revised flight route based on the received input at the predictive CPDLC clearance processor; generating a preconfigured clearance request message to deviate from the flight plan for a flight crew user based on the determining at the predictive CPDLC clearance processor; prompting the flight crew user for one of approval and rejection of the clearance request to deviate from the flight plan; and when an approval of the clearance request to deviate from the flight plan is received from the flight crew user, downlinking the preconfigured clearance request message.
A method of manufacturing a shaped product including carbon fibers and a thermoplastic resin, the method comprising: a process of preparing a random mat which includes the carbon fibers including carbon fiber bundles with an average fiber length of 5 mm to 100 mm and the thermoplastic resin; a process of impregnating the thermoplastic resin into the carbon fiber bundles by heating and pressurizing the random mat up to a temperature of a melting point of the thermoplastic resin or more and less than a decomposition temperature of the thermoplastic resin in a case where the thermoplastic resin is crystalline, or up to a temperature of a glass transition temperature of the thermoplastic resin or more and less than a decomposition temperature of the thermoplastic resin in a case where the thermoplastic resin is amorphous, before or after arranging the random mat within a mold; a process of pressurizing and molding the random mat in which the thermoplastic resin is impregnated into the carbon fiber bundles within the mold at a pressure ranging from 0.1 MPa to 20 MPa; and a process of taking out the shaped product obtained from the mold, wherein the processes to are performed in this order, in the random mat, the carbon fibers have a fiber areal weight ranging from 25 g/m 2 to 10,000 g/m 2, characterized in that, in the process of preparing the random mat, carbon fibers are sprayed to be randomly oriented in a plane direction, and the carbon fiber bundles include carbon fiber bundles having the carbon fibers of not less than a critical number of single fiber defined by equation, and carbon fibers having the carbon fibers of less than the critical number of single fiber, in which a ratio of the carbon fiber bundles is 20 Vol% or more and less than 99 Vol% based on a total amount of the carbon fibers in the random mat: Critical number of single fiber = 600 / D wherein, D represents an average fiber diameter (μm) of single carbon fiber. a process of preparing a random mat which includes the carbon fibers including carbon fiber bundles with an average fiber length of 5 mm to 100 mm and the thermoplastic resin; a process of impregnating the thermoplastic resin into the carbon fiber bundles by heating and pressurizing the random mat up to a temperature of a melting point of the thermoplastic resin or more and less than a decomposition temperature of the thermoplastic resin in a case where the thermoplastic resin is crystalline, or up to a temperature of a glass transition temperature of the thermoplastic resin or more and less than a decomposition temperature of the thermoplastic resin in a case where the thermoplastic resin is amorphous, before or after arranging the random mat within a mold; a process of pressurizing and molding the random mat in which the thermoplastic resin is impregnated into the carbon fiber bundles within the mold at a pressure ranging from 0.1 MPa to 20 MPa; and a process of taking out the shaped product obtained from the mold,
A valve comprising: a valve body defining a valve cavity; first and second inlet ports, an outlet port, and a dump port each through the valve body; a weighted member positioned in the valve cavity and movable between a first position wherein the first inlet port is fluidically connected to the outlet port and the second inlet port is fluidically connected to the dump port and a second position wherein the second inlet port and the dump port are fluidically connected to the outlet port; wherein the weighted member is configured to move to the second position when the valve experiences gravitational forces less than a threshold; and an inner sleeve positioned inside the valve cavity between the valve body and the weighted member; wherein the inner sleeve comprises: a main sub-cavity containing the weighted member; a second sub-cavity connecting the second inlet port to the dump port; and a sub-cavity port connecting the main sub-cavity to the second sub-cavity when the weighted member is in the second position. a valve body defining a valve cavity; first and second inlet ports, an outlet port, and a dump port each through the valve body; a weighted member positioned in the valve cavity and movable between a first position wherein the first inlet port is fluidically connected to the outlet port and the second inlet port is fluidically connected to the dump port and a second position wherein the second inlet port and the dump port are fluidically connected to the outlet port; wherein the weighted member is configured to move to the second position when the valve experiences gravitational forces less than a threshold; and an inner sleeve positioned inside the valve cavity between the valve body and the weighted member; wherein the inner sleeve comprises: a main sub-cavity containing the weighted member; a second sub-cavity connecting the second inlet port to the dump port; and a sub-cavity port connecting the main sub-cavity to the second sub-cavity when the weighted member is in the second position. a main sub-cavity containing the weighted member; a second sub-cavity connecting the second inlet port to the dump port; and a sub-cavity port connecting the main sub-cavity to the second sub-cavity when the weighted member is in the second position.
A method for supporting bi-directional communication over a user interface back channel, UIBC, between a source device and a sink device, at the source device comprising: establishing a bi-directional UIBC to said sink device (160, 352); receiving a forward tunnel identifier value that identifies a peripheral device (354, 356, 358) of said sink device and which corresponds to a predefined field in the payload data of a UIBC packet; receiving encapsulated peripheral data associated with the peripheral device from the sink device using at least one UIB(; packet; decapsulating the peripheral data generating a reverse tunnel identifier that identifies said sink device (160, 352); transmitting the reverse tunnel identifier to the sink device receiving additional peripheral data associated with the peripheral device; encapsulating the additional received peripheral data; and transmitting the encapsulated additional peripheral data to the sink device using at least one UIBC packet, wherein the reverse or forward tunnel identifier is added into the payload data of said UIBC packets to support the bidirectional communication between the source device and said peripheral device (354, 356, 358) connected to said sink device. establishing a bi-directional UIBC to said sink device (160, 352); receiving a forward tunnel identifier value that identifies a peripheral device (354, 356, 358) of said sink device and which corresponds to a predefined field in the payload data of a UIBC packet; receiving encapsulated peripheral data associated with the peripheral device from the sink device using at least one UIB(; packet; decapsulating the peripheral data generating a reverse tunnel identifier that identifies said sink device (160, 352); transmitting the reverse tunnel identifier to the sink device receiving additional peripheral data associated with the peripheral device; encapsulating the additional received peripheral data; and transmitting the encapsulated additional peripheral data to the sink device using at least one UIBC packet, wherein the reverse or forward tunnel identifier is added into the payload data of said UIBC packets to support the bidirectional communication between the source device and said peripheral device (354, 356, 358) connected to said sink device.