mhurhangee/ep-ind-claims huggingface dataset:
A method of generating an uplink, UL, load in a communication network, comprising: determining whether a user equipment, UE, 140 in the communication network is in an Idle mode or an Active mode;if the UE is in the Idle mode: transmitting a page message to the UE; determining whether a response to the page message is received; if the response is received, determining whether UL resources sufficient for UL load generation according to a set of parameters are available; if sufficient UL resources are available, setting up a radio access bearer to the UE for uplink load generation; and generating an UL load on the radio access bearer according to the set of parameters.; and if the UE is in the Active mode: determining whether UL resources sufficient for UL load generation according to the set of parameters are available; if sufficient UL resources are available, adding a radio access bearer to the UE dedicated to uplink load generation; and generating an UL load on the radio access bearer added according to the set of parameters. determining whether a user equipment, UE, 140 in the communication network is in an Idle mode or an Active mode;if the UE is in the Idle mode: transmitting a page message to the UE; determining whether a response to the page message is received; if the response is received, determining whether UL resources sufficient for UL load generation according to a set of parameters are available; if sufficient UL resources are available, setting up a radio access bearer to the UE for uplink load generation; and generating an UL load on the radio access bearer according to the set of parameters.; and transmitting a page message to the UE; determining whether a response to the page message is received; if the response is received, determining whether UL resources sufficient for UL load generation according to a set of parameters are available; if sufficient UL resources are available, setting up a radio access bearer to the UE for uplink load generation; and generating an UL load on the radio access bearer according to the set of parameters.; and if the UE is in the Active mode: determining whether UL resources sufficient for UL load generation according to the set of parameters are available; if sufficient UL resources are available, adding a radio access bearer to the UE dedicated to uplink load generation; and generating an UL load on the radio access bearer added according to the set of parameters. determining whether UL resources sufficient for UL load generation according to the set of parameters are available; if sufficient UL resources are available, adding a radio access bearer to the UE dedicated to uplink load generation; and generating an UL load on the radio access bearer added according to the set of parameters.
A display device having a plurality of pixels arrayed so as to form a matrix-like pattern, wherein the display device comprises an organic electroluminescence element that is formed in a longitudinally oblong shape in each pixel, a drive thin-film transistor that is formed in each pixel and that feeds a current to the organic electroluminescence element to make the organic electroluminescence element emit light, and a control thin-film transistor that controls operation of the drive thin-film transistor, the drive thin-film transistor has a gate electrode which is formed in a laterally oblong shape, a gate signal line and a source signal line connected to the control thin-film transistor are arranged so as to form a grid-like pattern, the organic electroluminescence element is arranged so that a longer-side direction thereof is parallel to the source signal line, the drive thin-film transistor has a channel region formed in an elongate shape, the channel region being arranged so that a longer-side direction thereof is parallel to the gate signal line and to shorter sides of the organic electroluminescence element, and being disposed over a substantially entire area of each pixel in a direction parallel to the gate signal line, the drive thin-film transistor and the control thin-film transistor have a semiconductor layer formed of amorphous silicon, the drive thin-film transistor has one of source and drain electrodes (8,9) thereof formed in a rectilinear shape and the other is formed in a U-shape surrounding the one, the channel region is, as seen in a plan view, a U-shaped channel region where the gate electrode is formed and which is formed between the one of the source and drain electrodes (8, 9) that is formed in a rectilinear shape and the other which is formed in a U-shape surround-ing the one, the one of the source and drain electrodes (8, 9) being formed in a rectilinear shape along a direction in which the gate signal line extends, the other being formed so as to have an opening of the U-shape in the direction in which the gate signal line extends, and in a region surrounded by the gate signal line and the source signal line, the organic electroluminescence element, the drive thin-film transistor, and the control thin-film transistor are arranged in this order along the source signal line as seen in a plan view.
An optical fiber comprising a core, made of substantially pure silica glass, and a cladding, wherein, at a wavelength of 1550 nm, an effective area Aeff [μm 2] is 100 μm 2 or less and a chromatic dispersion Disp [ps/nm/km] is 19.0 ps/nm/km or more and 22 ps/nm/km or less, and, a figure of merit FOM [dB] represented by an expression FOM = 5 ⋅ log Disp ⋅ Leff − 10 ⋅ log Leff / Aeff − 100 α is 3.2 dB or more, where an effective length of the optical fiber is denoted by Leff [km] = (1-exp(-100α/4.343)) / (α/4.343), and an attenuation of the optical fiber is denoted by α [dB/km], wherein α is 0.15 dB/km or more, wherein a relative refractive index difference of the core with respect to a refractive index of pure silica glass is -0.1% or more and 0.1% or less, wherein the core includes a first core and a second core, the first core having a minimum refractive index N i, a maximum refractive index N i2, and an outer radius r i, the second core having a maximum refractive index N c at a distance r x from a center axis of the optical fiber and an outer radius r c, where N c ≥ N i2, and r c ≥ r x ≥ r i, wherein a diameter 2r c of the core is 9.0 μm or more and 11.0 μm or less, a relative refractive index difference Δ c = (N c - N d2)/N d2 of the maximum refractive index N c of the second core with respect to a minimum refractive index N d2 of the cladding in a distance range of r c or more and 4.5r c or less from the center axis of the optical fiber is 0.40% or more and 0.62% or less, and a relative refractive index difference Δ i = (N c - N i)/N i is 0.05% or more and 0.25% or less. wherein α is 0.15 dB/km or more, wherein a relative refractive index difference of the core with respect to a refractive index of pure silica glass is -0.1% or more and 0.1% or less, wherein the core includes a first core and a second core, the first core having a minimum refractive index N i, a maximum refractive index N i2, and an outer radius r i, the second core having a maximum refractive index N c at a distance r x from a center axis of the optical fiber and an outer radius r c, where N c ≥ N i2, and r c ≥ r x ≥ r i, wherein a diameter 2r c of the core is 9.0 μm or more and 11.0 μm or less, a relative refractive index difference Δ c = (N c - N d2)/N d2 of the maximum refractive index N c of the second core with respect to a minimum refractive index N d2 of the cladding in a distance range of r c or more and 4.5r c or less from the center axis of the optical fiber is 0.40% or more and 0.62% or less, and a relative refractive index difference Δ i = (N c - N i)/N i is 0.05% or more and 0.25% or less.
A method, comprising: establishing, by Bluetooth Low Energy, "BLE", circuitry of an access control device, a BLE communication connection with a first mobile device while a main microprocessor and Wi-Fi circuitry of the access control device are in sleep states; waking, by the access control device, the Wi-Fi circuitry of the access control device from the sleep state in response to establishing the BLE communication connection with the first mobile device; establishing, by the Wi-Fi circuitry of the access control device, a Wi-Fi communication connection with an access control server in response to waking the Wi-Fi circuitry from the sleep state; and receiving, by the access control device and from the access control server via the Wi-Fi communication connection, access control data including at least one access control command for the access control device, the at least one access control command being transmitted from a second mobile device different from the first mobile device to the access control server. establishing, by Bluetooth Low Energy, "BLE", circuitry of an access control device, a BLE communication connection with a first mobile device while a main microprocessor and Wi-Fi circuitry of the access control device are in sleep states; waking, by the access control device, the Wi-Fi circuitry of the access control device from the sleep state in response to establishing the BLE communication connection with the first mobile device; establishing, by the Wi-Fi circuitry of the access control device, a Wi-Fi communication connection with an access control server in response to waking the Wi-Fi circuitry from the sleep state; and receiving, by the access control device and from the access control server via the Wi-Fi communication connection, access control data including at least one access control command for the access control device, the at least one access control command being transmitted from a second mobile device different from the first mobile device to the access control server.
Method for measuring antenna patterns and angle error measurement by elevation segments of a secondary radar, each pattern (11, 12, 14, 15) being associated with a reception channel, characterized in that, over a given time period, - the unsolicited asynchronous replies, of long ADS-B squitters type, transmitted by targets present in the airborne environment of said radar, are detected, each of said squitters containing 3D position information on the target which transmits it; - for each detection, the long ADS-B squitter is decoded to check that the detected target is located in accordance with the position information contained in said squitter, the non-conforming detections being rejected; - for each detection retained, the time of said detection, the value of the azimuth of the axis of the main beam of said antenna, the angle error measurement voltage and the received power value (61, 611, 612) on each of said SUM, DIFF, CONT_Front, CONT_Back reception channels are associated with said detection, the position information contained in said squitter giving, by calculation, the elevation segment in which said detection is situated; said values obtained over said period being stored, the measured patterns (42", 43", 44") and the angle error measurements being sampled, by elevation segment, from said stored values. - the unsolicited asynchronous replies, of long ADS-B squitters type, transmitted by targets present in the airborne environment of said radar, are detected, each of said squitters containing 3D position information on the target which transmits it; - for each detection, the long ADS-B squitter is decoded to check that the detected target is located in accordance with the position information contained in said squitter, the non-conforming detections being rejected; - for each detection retained, the time of said detection, the value of the azimuth of the axis of the main beam of said antenna, the angle error measurement voltage and the received power value (61, 611, 612) on each of said SUM, DIFF, CONT_Front, CONT_Back reception channels are associated with said detection, the position information contained in said squitter giving, by calculation, the elevation segment in which said detection is situated;
A safety valve for a low-pressure gas pipe installed in a waste gas pipeline to discharge condensate so that safely controls discharge of the waste gas, comprising: a first pipeline connected to a bottom surface of the waste gas pipeline and having a waste gas outlet on an inner wall thereof at one side thereof; a second pipeline extending from the first pipeline to be bent and extending in a direction parallel to the first pipeline; and an opening/closing unit for opening or closing the waste gas outlet characterised in that the opening/closing unit includes: an opening/ closing member hingedly coupled to the inner wall of the first pipeline at one side of the first pipeline to block the waste gas outlet; a connecting member connected to the opening/closing member; and a float connected to the connecting member to be moved in a direction in which the connecting member opens the waste gas outlet along the first pipeline by a pressure and return to an initial position by a buoyant force of the condensate in the first pipeline. a first pipeline connected to a bottom surface of the waste gas pipeline and having a waste gas outlet on an inner wall thereof at one side thereof; a second pipeline extending from the first pipeline to be bent and extending in a direction parallel to the first pipeline; and an opening/closing unit for opening or closing the waste gas outlet characterised in that the opening/closing unit includes: an opening/ closing member hingedly coupled to the inner wall of the first pipeline at one side of the first pipeline to block the waste gas outlet; a connecting member connected to the opening/closing member; and a float connected to the connecting member to be moved in a direction in which the connecting member opens the waste gas outlet along the first pipeline by a pressure and return to an initial position by a buoyant force of the condensate in the first pipeline.
A voice signal encoding method comprising: converting sinusoidal components constituting an input voice signal; generating transform coefficients of the sinusoidal components; determining target transform coefficients to be encoded out of the generated transform coefficients; and transmitting index information indicating the target transform coefficients, wherein the index information includes a first index information and a second index information, each of the first index information and the second index information includes position information, amplitude information, and sign information, and wherein the position information of the first index information and the position information of the second index information indicate a same position when the target transform coefficients to be encoded are a transform coefficient which is at the indicated position and two neighboring transform coefficients at positions adjacent to the indicated position. converting sinusoidal components constituting an input voice signal; generating transform coefficients of the sinusoidal components; determining target transform coefficients to be encoded out of the generated transform coefficients; and transmitting index information indicating the target transform coefficients,
An auto-paver system with a measuring and positioning structure, comprising a paver, the paver comprising: a support structure supported on a water bottom surface; a transport structure slidably connected to the support structure; and a distributing structure connected to the transport structure, and comprising a feed port and a discharge port through which materials pass, the discharge port being configured to be extended towards the water bottom surface, and the transport structure being configured to drive the distributing structure to move on the support structure to lay materials through the discharge port; characterized in that the measuring and positioning structure comprises a measuring frame and at least one positioning structure, one end of the measuring frame being rotatably connected with the support structure, and the positioning structure being fixed to the other end of the measuring frame. a support structure supported on a water bottom surface; a transport structure slidably connected to the support structure; and a distributing structure connected to the transport structure, and comprising a feed port and a discharge port through which materials pass, the discharge port being configured to be extended towards the water bottom surface, and the transport structure being configured to drive the distributing structure to move on the support structure to lay materials through the discharge port; characterized in that the measuring and positioning structure comprises a measuring frame and at least one positioning structure, one end of the measuring frame being rotatably connected with the support structure, and the positioning structure being fixed to the other end of the measuring frame.
A filter box for filtering fuel upstream from at least one ejector and from at least one fuel transfer pump, characterised in that said filter box comprises: - at least one compartment, referred to as "main compartment ", provided with an inlet referred to as "main inlet " having the function of being in fluid communication with a main tank and with one outlet referred to as "main outlet " per transfer pump to be fed, - at least one compartment referred to as "secondary compartment ", each secondary compartment comprising an inlet referred to as "secondary inlet " having the function of being in fluid communication with a secondary tank distinct from the main tank and an outlet referred to as "secondary outlet " having the function of being in fluid communication with an ejector, - one grating per compartment for filtering a fuel passing through this compartment, each grating cooperating with a system for movement in translation in order to be extracted from said compartment via a slot (23, 33) present in a bottom of the compartment (20, 30), - one hermetic blocking system per compartment (20, 30), having the function of preventing fuel from escaping via said slot (23, 33) from a compartment (20, 30) in the event of said grating being absent. - at least one compartment, referred to as "main compartment ", provided with an inlet referred to as "main inlet " having the function of being in fluid communication with a main tank and with one outlet referred to as "main outlet " per transfer pump to be fed, - at least one compartment referred to as "secondary compartment ", each secondary compartment comprising an inlet referred to as "secondary inlet " having the function of being in fluid communication with a secondary tank distinct from the main tank and an outlet referred to as "secondary outlet " having the function of being in fluid communication with an ejector, - one grating per compartment for filtering a fuel passing through this compartment, each grating cooperating with a system for movement in translation in order to be extracted from said compartment via a slot (23, 33) present in a bottom of the compartment (20, 30), - one hermetic blocking system per compartment (20, 30), having the function of preventing fuel from escaping via said slot (23, 33) from a compartment (20, 30) in the event of said grating being absent.
A method performed by a radio network node for load balancing in a wireless communications network, wherein the radio network node is configured to communicate with a wireless device supporting operation in both normal coverage and extended coverage, wherein extended coverage supports operation at a radio coverage range exceeding a normal coverage range supported by a 3GPP cellular network, wherein the radio network node and the wireless device are operating in the wireless communications network, and wherein the method comprises: - determining an indication informing the wireless device that it, when in normal coverage, is to use one of an uplink legacy resource and an extended coverage resource when accessing the wireless communications network; and - transmitting the indication to the wireless device. - determining an indication informing the wireless device that it, when in normal coverage, is to use one of an uplink legacy resource and an extended coverage resource when accessing the wireless communications network; and - transmitting the indication to the wireless device.
An optical demultiplexing system for demultiplexing a multiplex formed of at least three granularity levels, said multiplex including m wavelength bands, each wavelength band including p wavelengths, the bands being interlaced, the wavelengths of the multiplex being distributed on a regular grid, the system comprising a 1-to-m demultiplexer/deinterleaver (Demux' F→B) for demultiplexing said multiplex into m bands, the 1-to-m demultiplexer/deinterleaver (Demux' F→B) implementing an interlaced band filter of which the transfer function (Ftb') is periodic and has a constant period equal to m times the step of the regular grid, and for each period has a bandwidth equal to the step of the regular grid, said system comprises at least one 1-to-p demultiplexer/deinterleaver (Demux' B→W) for demultiplexing a wavelength band into p wavelengths, characterized in that the 1-to-p demultiplexer/deinterleaver (Demux' B→HW) implements a channel filter of which the transfer function (FTc') is periodic and has a constant period equal to p times the step of the regular grid, and for each period has a bandwidth equal to the step of the regular grid, and in that the numbers m and p are relatively prime, the system further comprising m 1-to-p demultiplexer/deinterleavers (Demux' B→W) for demultiplexing each of said m wavelength bands into p wavelengths.