mhurhangee/ep-ind-claims huggingface dataset:
A Brillouin and Rayleigh distributed sensor comprising: a first laser source to emit a first laser beam; a second laser source to emit a second laser beam; a photodiode to acquire a beat frequency between the first laser beam and the second laser beam, wherein the beat frequency is used to maintain a predetermined offset frequency shift between the first laser beam and the second laser beam, wherein the predetermined offset frequency shift is relative to a predetermined frequency of either the first laser beam or the second laser beam; a modulator to modulate the first laser beam, wherein the modulated first laser beam is to be injected into a device under test, i.e., DUT; a coherent receiver to acquire a backscattered signal from the DUT and determine, based on the acquired backscattered signal and the second laser beam, Brillouin and Rayleigh traces with respect to the DUT; a processor; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: determine, based on the Brillouin and Rayleigh traces, temperature and strain associated with the DUT. a first laser source to emit a first laser beam; a second laser source to emit a second laser beam; a photodiode to acquire a beat frequency between the first laser beam and the second laser beam, wherein the beat frequency is used to maintain a predetermined offset frequency shift between the first laser beam and the second laser beam, wherein the predetermined offset frequency shift is relative to a predetermined frequency of either the first laser beam or the second laser beam; a modulator to modulate the first laser beam, wherein the modulated first laser beam is to be injected into a device under test, i.e., DUT; a coherent receiver to acquire a backscattered signal from the DUT and determine, based on the acquired backscattered signal and the second laser beam, Brillouin and Rayleigh traces with respect to the DUT; a processor; and a non-transitory computer readable medium storing machine readable instructions that when executed by the processor cause the processor to: determine, based on the Brillouin and Rayleigh traces, temperature and strain associated with the DUT.
A method, comprising: at a base station, BS: generating physical broadcast channel, PBCH, payload information, the PBCH payload information including time information and master information block, MIB, information; generating a scrambling sequence based on a portion of the time information; scrambling the PBCH payload by performing modulus 2 addition with the scrambling sequence to generate scrambled PBCH payload, wherein scrambling bits of the scrambling sequence are set to 0 for the PBCH payload containing the portion of the time information so that bit values of the portion of the time information are unchanged after scrambling; and encoding the scrambled PBCH payload including the portion of the time information and cyclic redundancy check, CRC, information to generate encoded PBCH information for transmission to a user equipment, UE, wherein the CRC is computed from the scrambled PBCH payload. at a base station, BS: generating physical broadcast channel, PBCH, payload information, the PBCH payload information including time information and master information block, MIB, information; generating a scrambling sequence based on a portion of the time information; scrambling the PBCH payload by performing modulus 2 addition with the scrambling sequence to generate scrambled PBCH payload, wherein scrambling bits of the scrambling sequence are set to 0 for the PBCH payload containing the portion of the time information so that bit values of the portion of the time information are unchanged after scrambling; and generating physical broadcast channel, PBCH, payload information, the PBCH payload information including time information and master information block, MIB, information; generating a scrambling sequence based on a portion of the time information; scrambling the PBCH payload by performing modulus 2 addition with the scrambling sequence to generate scrambled PBCH payload, wherein scrambling bits of the scrambling sequence are set to 0 for the PBCH payload containing the portion of the time information so that bit values of the portion of the time information are unchanged after scrambling; and encoding the scrambled PBCH payload including the portion of the time information and cyclic redundancy check, CRC, information to generate encoded PBCH information for transmission to a user equipment, UE, wherein the CRC is computed from the scrambled PBCH payload.
An additive manufacturing system for printing a three-dimensional part, the additive manufacturing system comprising: one or more electrophotography engines configured to develop layers of the three-dimensional part; a rotatable transfer belt configured to receive the developed layers from the one or more electrophotography engines; a detector configured to measure at least one parameter related to a powder density of at least one of the developed layers on the rotatable transfer belt, and to transmit signals relating to the measured at least one parameter; a printing assembly configured to receive the developed layer from the rotatable transfer belt and to print the three-dimensional part from the developed layers; and a controller assembly configured to receive the transmitted signals from the detector, compare the received signals to a set point, and adjust one or more process parameters while developing one or more subsequent layers based on a difference between the received signals and the set point. one or more electrophotography engines configured to develop layers of the three-dimensional part; a rotatable transfer belt configured to receive the developed layers from the one or more electrophotography engines; a detector configured to measure at least one parameter related to a powder density of at least one of the developed layers on the rotatable transfer belt, and to transmit signals relating to the measured at least one parameter; a printing assembly configured to receive the developed layer from the rotatable transfer belt and to print the three-dimensional part from the developed layers; and a controller assembly configured to receive the transmitted signals from the detector, compare the received signals to a set point, and adjust one or more process parameters while developing one or more subsequent layers based on a difference between the received signals and the set point.
A method, executed by a cloud logic, for selecting a subset (D S) of cloud stored data (D 1 -D n) related to locations within a road network and sending the selected subset of data (D S) to a vehicle which is connected to the cloud and operates within the road network, characterized in that it comprises the steps of: determining a current position and direction of the vehicle within the road network; and determining a respective inverse most probable path up to each respective location related to a respective subset of data (D S) as a respective set of all possible paths in the road network leading up to a respective location related to a respective subset of data (D S), and checking if the current position and direction of the vehicle within the road network is included in an inverse most probable path related to any subset of data (D S), and if the current position and direction of the vehicle within the road network is included in an inverse most probable path related to a subset of data (D S) selecting that subset of data (D S); and sending the selected subset of data (D S) to the vehicle. determining a current position and direction of the vehicle within the road network; and determining a respective inverse most probable path up to each respective location related to a respective subset of data (D S) as a respective set of all possible paths in the road network leading up to a respective location related to a respective subset of data (D S), and checking if the current position and direction of the vehicle within the road network is included in an inverse most probable path related to any subset of data (D S), and if the current position and direction of the vehicle within the road network is included in an inverse most probable path related to a subset of data (D S) selecting that subset of data (D S); and sending the selected subset of data (D S) to the vehicle.
A manufacturing method for an LED display screen, comprising: preparing a batch of LED chips of the same or different specifications; picking up the LED chips illogically according to a random sampling method, and arranging the picked LED chips in sequence; and packaging and assembling the LED chips arranged in sequence to form the LED display screen; wherein the LED display screen comprises an area comprising a plurality of LED chips, and not all adjacent LED chips in an area of the LED display screen are adjacent LED chips of the same specification, the specification of the LED chip comprising a specification of at least one of color and brightness. preparing a batch of LED chips of the same or different specifications; picking up the LED chips illogically according to a random sampling method, and arranging the picked LED chips in sequence; and packaging and assembling the LED chips arranged in sequence to form the LED display screen; wherein the LED display screen comprises an area comprising a plurality of LED chips, and not all adjacent LED chips in an area of the LED display screen are adjacent LED chips of the same specification, the specification of the LED chip comprising a specification of at least one of color and brightness.
A method for generating a content-message-related profile, the method comprising on a wireless access terminal, W-AT: receiving a rule for establishing a user profile via an external network apparatus; synthesizing at least one profile attribute based on user behavior and said rule; determining a need for further information based on the at least one profile attribute; requesting the further information from an apparatus external to the W-AT; receiving the further information from the apparatus; and generating the profile based on the profile attributes and the further information. receiving a rule for establishing a user profile via an external network apparatus; synthesizing at least one profile attribute based on user behavior and said rule; determining a need for further information based on the at least one profile attribute; requesting the further information from an apparatus external to the W-AT; receiving the further information from the apparatus; and generating the profile based on the profile attributes and the further information.
A drying machine comprising: a drum for storing clothes to be dried; and a drum drive section for rotatably driving said drum; characterized in that the drying machine comprises: a blower section for blowing drying air into said drum; a first air duct with a first blowoff opening which is opened at a rear side of said drum; a second air duct with a second blowoff opening which is opened at a front side of said drum; an air duct switch section which selectively switches between said first air duct and said second air duct; an oscillation detection section which detects an oscillation of said drum; and a control section which controls the air duct switch section based on a result of detection by said oscillation detection section to selectively switch between the first air duct and the second air duct in a drying process. a drum for storing clothes to be dried; and a drum drive section for rotatably driving said drum; characterized in that the drying machine comprises: a blower section for blowing drying air into said drum; a first air duct with a first blowoff opening which is opened at a rear side of said drum; a second air duct with a second blowoff opening which is opened at a front side of said drum; an air duct switch section which selectively switches between said first air duct and said second air duct; an oscillation detection section which detects an oscillation of said drum; and a control section which controls the air duct switch section based on a result of detection by said oscillation detection section to selectively switch between the first air duct and the second air duct in a drying process. a blower section for blowing drying air into said drum; a first air duct with a first blowoff opening which is opened at a rear side of said drum; a second air duct with a second blowoff opening which is opened at a front side of said drum; an air duct switch section which selectively switches between said first air duct and said second air duct; an oscillation detection section which detects an oscillation of said drum; and a control section which controls the air duct switch section based on a result of detection by said oscillation detection section to selectively switch between the first air duct and the second air duct in a drying process.
A recombinant human immunodeficiency virus envelope (Env) protein, comprising two or more of the following amino acid residues: (i) Phe, Leu, Met, or Trp, preferably Phe, at position 651; (ii) Phe, Ile, Met, or Trp, preferably Ile, at position 655; (iii) Asn or Gln, preferably Asn, at position 535; (iv) Val, Ile or Ala, preferably Val, at position 589; (v) Phe or Trp, preferably Phe, at position 573; (vi) Ile at position 204; and/or (vii) Phe, Met, or Ile, preferably Phe, at position 647, wherein the numbering of the positions is according to the numbering in gp160 of HIV-1 isolate HXB2. (i) Phe, Leu, Met, or Trp, preferably Phe, at position 651; (ii) Phe, Ile, Met, or Trp, preferably Ile, at position 655; (iii) Asn or Gln, preferably Asn, at position 535; (iv) Val, Ile or Ala, preferably Val, at position 589; (v) Phe or Trp, preferably Phe, at position 573; (vi) Ile at position 204; and/or (vii) Phe, Met, or Ile, preferably Phe, at position 647,
A method for inter-system air interface connection redirection, comprising: receiving, by a first mode network device, a connection request message sent by a user equipment, UE, through a first mode cell, and making, by the first mode network device, a redirection decision; after determining to redirect the UE to a second mode cell managed by a second mode network device, sending, by the first mode network device, a notification message to request the second mode network device to allocate a connection setup parameter for the UE; and receiving, by the first mode network device, a response message carrying the connection setup parameter sent by the second mode network device; and sending, by the first mode network device, the connection setup parameter to the UE, setting up, by the UE, a connection with the second mode network device according to the connection setup parameter, characterized in that the connection request message comprises service type indication information, said service type indication information is used for indicating a type of a service initiated by the UE, and the making a redirection decision is performed from a connectionless state between the UE and the first mode network device and comprises: acquiring, according to the service type indication information, a type of a service initiated by the UE; and when the type of the service initiated by the UE is a preset service type, determining to redirect the UE to the second mode cell. receiving, by a first mode network device, a connection request message sent by a user equipment, UE, through a first mode cell, and making, by the first mode network device, a redirection decision; after determining to redirect the UE to a second mode cell managed by a second mode network device, sending, by the first mode network device, a notification message to request the second mode network device to allocate a connection setup parameter for the UE; and receiving, by the first mode network device, a response message carrying the connection setup parameter sent by the second mode network device; and sending, by the first mode network device, the connection setup parameter to the UE, setting up, by the UE, a connection with the second mode network device according to the connection setup parameter, characterized in that the connection request message comprises service type indication information, said service type indication information is used for indicating a type of a service initiated by the UE, and the making a redirection decision is performed from a connectionless state between the UE and the first mode network device and comprises: acquiring, according to the service type indication information, a type of a service initiated by the UE; and when the type of the service initiated by the UE is a preset service type, determining to redirect the UE to the second mode cell. acquiring, according to the service type indication information, a type of a service initiated by the UE; and when the type of the service initiated by the UE is a preset service type, determining to redirect the UE to the second mode cell.
A centraliser having a central axis, and having first and second axially spaced collars (15,16) and first and second sets of resilient devices (20,30) extending between the collars (15,16), the collars (15,16) having bores which are coaxial with the central axis, for receiving a tubular T to be centralised, wherein the resilient devices (20, 30) in each set are spaced around the circumference of the collars (15,16), each of the resilient devices (20, 30) comprising a first arc (21, 31), and wherein each resilient device (20, 30) is asymmetric along the central axis, characterised in that the first arc (21,31) is connected to a second arc (25, 35) at a transition point (26, 36) spaced axially between the first and second collars (15, 16), and wherein the curvature between the first and second arcs reverses at the transition point between them, such that the curvature of the second arc (25, 35) in relation to the central axis is inverted with respect to the curvature of the first arc (21, 31), and wherein in each resilient device in the first set, the first arc extends from the first collar, and the second arc extends from the second collar, and wherein in each resilient device in the second set, the first arc extends from the second collar and the second arc extends from the first collar.
A connector for being housed in an electronic device having a reference member (21, 22) whose potential is kept at a constant level, and for connecting to another electronic device via a wired communication link, comprising: a housing which houses connection terminals therein; and an electrically conductive protrusion (14, 15) joined to at least a distal end portion of said housing, said electrically conductive protrusion including at least a portion which is elastic (14b, 15b), and configured to be electrically connected to said reference member; and characterized in that said electrically conductive protrusion (14, 15) comprises a first metal member (14a, 15a) integrally formed with said housing and a second metal member (14b, 15b) joined by a screw (14c, 15c) to said first metal member (14a, 15a), said second metal member (14b, 15b) having a sheet thickness thinner than said first metal member (14a, 15a). a housing which houses connection terminals therein; and an electrically conductive protrusion (14, 15) joined to at least a distal end portion of said housing, said electrically conductive protrusion including at least a portion which is elastic (14b, 15b), and configured to be electrically connected to said reference member; and characterized in that said electrically conductive protrusion (14, 15) comprises a first metal member (14a, 15a) integrally formed with said housing and a second metal member (14b, 15b) joined by a screw (14c, 15c) to said first metal member (14a, 15a), said second metal member (14b, 15b) having a sheet thickness thinner than said first metal member (14a, 15a).
A divider arrangement for use in a vehicle partition assembly for dividing a load area of a vehicle, the divider arrangement comprising: a divider member configured to be removably mountable to a partition member of a vehicle partition assembly, the divider member having a first major portion and a second minor portion (101"), wherein the divider member is configured such that, in use when mounted to said partition member: the first major portion of the divider member extends behind said partition member from a first side of said partition member in a first direction, and the second minor portion of the divider member extends in front of said partition member in a second direction opposite to the first direction, wherein the divider member comprises: a rear end, a front end, an upper end, a lower end, wherein the front end comprises a straight upper section, and an inclined lower section (101 b"), and wherein the inclined lower section (101b") comprises the second minor portion (101 "); a bracing arrangement, configured to be engageable with a floor of the load area, for supporting the divider member; and wherein the second minor portion (101") is configured to receive the bracing arrangement. a divider member configured to be removably mountable to a partition member of a vehicle partition assembly, the divider member having a first major portion and a second minor portion (101"), wherein the divider member is configured such that, in use when mounted to said partition member: the first major portion of the divider member extends behind said partition member from a first side of said partition member in a first direction, and the second minor portion of the divider member extends in front of said partition member in a second direction opposite to the first direction, the first major portion of the divider member extends behind said partition member from a first side of said partition member in a first direction, and the second minor portion of the divider member extends in front of said partition member in a second direction opposite to the first direction, wherein the divider member comprises: a rear end, a front end, an upper end, a lower end, wherein the front end comprises a straight upper section, and an inclined lower section (101 b"), and wherein the inclined lower section (101b") comprises the second minor portion (101 "); a rear end, a front end, an upper end, a lower end, wherein the front end comprises a straight upper section, and an inclined lower section (101 b"), and wherein the inclined lower section (101b") comprises the second minor portion (101 "); a bracing arrangement, configured to be engageable with a floor of the load area, for supporting the divider member; and wherein the second minor portion (101") is configured to receive the bracing arrangement.