mhurhangee/ep-ind-claims huggingface dataset:
A method of identifying a spectrum and extracting features thereof for RF signals in an ultra-wide bandwidth; said method comprising the steps of a. obtaining said RF signal to be analyzed; b. high-pass filtering said obtained signal; c. digitizing said high filtered signal; d. spectrum compressing SC; e. analyzing said digitized signal; characterized in that said step of spectrum compressing SC further comprises splitting said high pass filtered signal into two channels; Phase true-time delay modulating said signal within one of said channels; said step of Phase true-time delay modulating comprises a linear modulation with sub-wavelength increments causing the Doppler frequency shift f d = v c ⋅ F c, where v is the velocity of the linear range modulation defined by digitally controlled switching circuit, c is the speed of light, f d is the Doppler shift and F c is the carrier frequency; said step of SC comprises linearly mapping high-frequency spectrum within low frequency spectrum; said step of analyzing said digital signal comprises fusing spectral information derived from under-sampled measurement of the original frequency and the Doppler shift between original and modulated frequencies enabling calculation of ambiguity-free frequency measurement with Khz scale frequency resolution. a. obtaining said RF signal to be analyzed; b. high-pass filtering said obtained signal; c. digitizing said high filtered signal; d. spectrum compressing SC; e. analyzing said digitized signal;
Motor vehicle, with an automatic transmission with a P-drive position, an N-drive position, and one or more forward and reverse drive positions, characterised in that an electric parking brake device and an assistance system are provided for outputting warning information on opening the driver's door and for activating the parking brake device if the P-drive stage has not been engaged in the transmission, wherein the warning information (i) is output only if the parking brake device could not be activated or could not be activated in a fault-free manner.
A compact photonic radio frequency receiver system for space and airborne applications, the system comprising: a laser source configured to generate laser light; radio frequency, RF, and local oscillator, LO, input ports (223, 233) configured to receive RF and LO signals, respectively; one or more centimeter scale or smaller waveguide phase modulators coupled to the laser source and configured to receive the RF and LO signals and to modulate the laser light with the RF and LO signals in a first and a second path (220, 230) and to generate phase-modulated laser lights including an RF-modulated light signal and an LO-modulated light signal; and a first and a second centimeter scale or smaller filters (226, 236) coupled to the centimeter scale or smaller waveguide phase modulators, the first centimeter scale or smaller filter configured to separate a desired spectral band in the phase-modulated laser light of the first path and the second centimeter scale or smaller filter configured to pass a first portion of the LO-modulated light signal for heterodyne purposes and to reflect a second portion of the LO modulated signal to facilitate wavelength locking of the laser light of the second path; an optical combiner configured to combine output laser lights of the first and second centimeter scale or smaller filters (226, 236) to generate a combined RF-modulated and LO-modulated light signal; and a processing means coupled to the combiner and configured to perform a heterodyne process by mixing the combined RF-modulated and LO-modulated light signal to recover a radio frequency output of a desired downlink frequency component. a laser source configured to generate laser light; radio frequency, RF, and local oscillator, LO, input ports (223, 233) configured to receive RF and LO signals, respectively; one or more centimeter scale or smaller waveguide phase modulators coupled to the laser source and configured to receive the RF and LO signals and to modulate the laser light with the RF and LO signals in a first and a second path (220, 230) and to generate phase-modulated laser lights including an RF-modulated light signal and an LO-modulated light signal; and a first and a second centimeter scale or smaller filters (226, 236) coupled to the centimeter scale or smaller waveguide phase modulators, the first centimeter scale or smaller filter configured to separate a desired spectral band in the phase-modulated laser light of the first path and the second centimeter scale or smaller filter configured to pass a first portion of the LO-modulated light signal for heterodyne purposes and to reflect a second portion of the LO modulated signal to facilitate wavelength locking of the laser light of the second path; an optical combiner configured to combine output laser lights of the first and second centimeter scale or smaller filters (226, 236) to generate a combined RF-modulated and LO-modulated light signal; and a processing means coupled to the combiner and configured to perform a heterodyne process by mixing the combined RF-modulated and LO-modulated light signal to recover a radio frequency output of a desired downlink frequency component.
A method of wireless communication performed by a device being a scheduled entity, comprising: obtaining a first medium access control, MAC, control element, CE, and a second MAC CE from a network, wherein the first and second MAC CEs are configured to indicate one of a plurality of state transition actions for a secondary cell, wherein the first MAC CE is configured to control a transition to a secondary cell dormant state and the second MAC CE is configured to control activation and deactivation of the secondary cell, wherein the secondary cell dormant state is a state in which the scheduled entity refrains from monitoring at least one downlink control channel of the secondary cell; transitioning (3604, 3704) to a secondary cell activated state from the secondary cell dormant state and from a secondary cell deactivated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell activated state; transitioning (3606, 3706) to the secondary cell deactivated state from the secondary cell dormant state or the secondary cell activated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell deactivated state; and operating in the secondary cell activated state based on the transition to the secondary cell activated state or operating in the secondary cell deactivated state based on the transition to the secondary cell deactivated state. obtaining a first medium access control, MAC, control element, CE, and a second MAC CE from a network, wherein the first and second MAC CEs are configured to indicate one of a plurality of state transition actions for a secondary cell, wherein the first MAC CE is configured to control a transition to a secondary cell dormant state and the second MAC CE is configured to control activation and deactivation of the secondary cell, wherein the secondary cell dormant state is a state in which the scheduled entity refrains from monitoring at least one downlink control channel of the secondary cell; transitioning (3604, 3704) to a secondary cell activated state from the secondary cell dormant state and from a secondary cell deactivated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell activated state; transitioning (3606, 3706) to the secondary cell deactivated state from the secondary cell dormant state or the secondary cell activated state when the first MAC CE excludes an indication to transition to the secondary cell dormant state and the second MAC CE includes an indication to transition to the secondary cell deactivated state; and operating in the secondary cell activated state based on the transition to the secondary cell activated state or operating in the secondary cell deactivated state based on the transition to the secondary cell deactivated state.
A high-strength cold-rolled steel sheet, having a chemical composition consisting of, by mass%, C: 0.050 to 0.40%, Si: 0.01 to 3.0%, Mn: 1.0 to 5.0%, sol. Al: 0.001 to 1.0%, Ti: 0.005 to 0.20%, B: 0.0005 to 0.010%, P: 0.1% or less, S: 0.01% or less, O: 0.1% or less, N: 0.01% or less, Cr: 0 to 1.0%, Mo: 0 to 1.0%, Ni: 0 to 1.0%, Cu: 0 to 1.0%, Sn: 0 to 0.50%, Nb: 0 to 0.20%, V: 0 to 0.50%, W: 0 to 0.50%, Ca: 0 to 0.01%, Mg: 0 to 0.01%, Bi: 0 to 0.01%, Sb: 0 to 0.10%, Zr: 0 to 0.01%, REM: 0 to 0.01%, and the balance: Fe and impurities, and satisfying formula (i) and formula (ii) below: sol. Bs / B ≤ 0.50 sol. Bq / B > 0.50 where, the meaning of each symbol in the above formulas is as follows: B: B content, in mass%, contained in steel sheet; sol. Bs: B content, in mass%, present as a solid solution from a surface down to a depth of 30 μm of the steel sheet wherein the value of sol. Bs is determined by calculating the B amount consumed as a precipitate by measuring the mass of boride by an electrolytic extraction residue method to a depth of 30 μm without grinding the steel sheet surface, and thereafter deducting the calculated B amount from the B content contained in the steel; and sol. Bq: B content, in mass%, present as a solid solution at a position of 1/4 thickness of the steel sheet wherein the value of sol. Bq is determined by calculating the B amount consumed as a precipitate by measuring the mass of boride by an electrolytic extraction residue method by mechanically grinding the steel sheet to the position of 1/4 thickness, and thereafter performing electrolytic extraction to a depth of 30 μm, and thereafter deducting the calculated B amount from the B content contained in the steel. B: B content, in mass%, contained in steel sheet; sol. Bs: B content, in mass%, present as a solid solution from a surface down to a depth of 30 μm of the steel sheet wherein the value of sol. Bs is determined by calculating the B amount consumed as a precipitate by measuring the mass of boride by an electrolytic extraction residue method to a depth of 30 μm without grinding the steel sheet surface, and thereafter deducting the calculated B amount from the B content contained in the steel; and sol. Bq: B content, in mass%, present as a solid solution at a position of 1/4 thickness of the steel sheet wherein the value of sol. Bq is determined by calculating the B amount consumed as a precipitate by measuring the mass of boride by an electrolytic extraction residue method by mechanically grinding the steel sheet to the position of 1/4 thickness, and thereafter performing electrolytic extraction to a depth of 30 μm, and thereafter deducting the calculated B amount from the B content contained in the steel.
A strip for use in multiplex analyte analyses, enrichment or purification, the strip comprising a bar member and at least one macro bead attached to the bar member, the bar member having a length equal to or longer than a width of a device with which the strip is capable of being used, the macro bead having a surface that can accept a coating of a substance, which when subjected to a procedure can interact or react with an analyte and provide a result of analysis, enrichment or purification for the analyte.
An ultrasonic diagnostic system comprising: an ultrasonic probe constituted by a group of ultrasonic transducer elements arranged in at least one direction; a beam forming unit (91, 215) adapted to form an acoustic field in a subject by focusing an ultrasonic wave on a sequence of sampling points existing along the group of scan lines, and adapted to apply delay and apodization on a transmission/reception signal of each of the ultrasonic transducer elements, wherein the beam forming unit is adapted to perform sensitivity modulation in the reception signals in a direction substantially orthogonal to said group of scan lines; and a detecting unit (90, 226) adapted to detect displacements in at least two directions at each of the sampling points by arithmetic between reception signals for the sampling point at different time points, said detecting unit (90, 226) being adapted to detect displacements at the sampling point in a direction tangential to the group of scan lines and in a direction tangential to a group of curves substantially orthogonal to the scan lines, the group of curves substantially orthogonal to the group of scan lines being a group of curves in the subject, each of the curves being constituted by a sequence of points for which a total of times taken for ultrasonic pulses to reach from two points fixed to the ultrasonic probe is substantially the same. an ultrasonic probe constituted by a group of ultrasonic transducer elements arranged in at least one direction; a beam forming unit (91, 215) adapted to form an acoustic field in a subject by focusing an ultrasonic wave on a sequence of sampling points existing along the group of scan lines, and adapted to apply delay and apodization on a transmission/reception signal of each of the ultrasonic transducer elements, wherein the beam forming unit is adapted to perform sensitivity modulation in the reception signals in a direction substantially orthogonal to said group of scan lines; and a detecting unit (90, 226) adapted to detect displacements in at least two directions at each of the sampling points by arithmetic between reception signals for the sampling point at different time points, said detecting unit (90, 226) being adapted to detect displacements at the sampling point in a direction tangential to the group of scan lines and in a direction tangential to a group of curves substantially orthogonal to the scan lines, the group of curves substantially orthogonal to the group of scan lines being a group of curves in the subject, each of the curves being constituted by a sequence of points for which a total of times taken for ultrasonic pulses to reach from two points fixed to the ultrasonic probe is substantially the same.
A loading platform configured for attachment of cargo holding belts by means of a hook, said platform comprising: a substantially rectangular frame supporting a loading surface, said frame including two longitudinal side members; platform walls (12, 25) attached to outer sides of said frame members, inner surfaces of said platform walls delimiting a generally flat loading area; characterized in that each side member on a side facing away from the loading area is provided with a protruding edge for engaging a hook of a cargo holding belt, wherein said edge extends beyond said loading area, and is received by a recess in a platform wall. a substantially rectangular frame supporting a loading surface, said frame including two longitudinal side members; platform walls (12, 25) attached to outer sides of said frame members, inner surfaces of said platform walls delimiting a generally flat loading area; characterized in that each side member on a side facing away from the loading area is provided with a protruding edge for engaging a hook of a cargo holding belt, wherein said edge extends beyond said loading area, and is received by a recess in a platform wall.
A mobile station for power headroom reporting in a mobile communication system comprising: circuitry, which is configured to establish a dual connectivity between the mobile station and both a master base station via a first radio link and a secondary base station via a secondary radio link, wherein a scheduler of the secondary base station is independent from a scheduler of the master base station, and calculate a virtual power headroom report for an activated serving cell of the secondary radio link based on a virtual uplink resource assignment for the secondary radio link, when a virtual power headroom calculation is configured; and a transmitter, which is configured to transmit the calculated virtual power headroom report of the secondary radio link from the mobile station to the master base station, and a receiver, which is configured to receive power distribution information from the master base station for adapting a power distribution ratio for uplink transmissions from the mobile station to the master and secondary base stations. circuitry, which is configured to establish a dual connectivity between the mobile station and both a master base station via a first radio link and a secondary base station via a secondary radio link, wherein a scheduler of the secondary base station is independent from a scheduler of the master base station, and calculate a virtual power headroom report for an activated serving cell of the secondary radio link based on a virtual uplink resource assignment for the secondary radio link, when a virtual power headroom calculation is configured; and establish a dual connectivity between the mobile station and both a master base station via a first radio link and a secondary base station via a secondary radio link, wherein a scheduler of the secondary base station is independent from a scheduler of the master base station, and calculate a virtual power headroom report for an activated serving cell of the secondary radio link based on a virtual uplink resource assignment for the secondary radio link, when a virtual power headroom calculation is configured; and a transmitter, which is configured to transmit the calculated virtual power headroom report of the secondary radio link from the mobile station to the master base station, and a receiver, which is configured to receive power distribution information from the master base station for adapting a power distribution ratio for uplink transmissions from the mobile station to the master and secondary base stations.
A method for transmitting bit indexed explicit replication information, comprising: transmitting, by a bit indexed explicit replication traffic engineering, BIER TE, node in a BIER TE network, a range information of configurable link bit positions, BPs, of the BIER TE node, capable of forwarding network data traffic between the BIER TE node and neighboring nodes of the BIER TE node to another node in the BIER TE network, wherein the another node refers to any one BIER TE node other than the BIER TE node in the BIER TE network, and wherein the range information of the configurable link BPs is a bit position value range of the configurable link BPs; receiving, by the BIER TE node, range information of configurable link BPs of the another node; adjusting, by the BIER TE node, the range information of the configurable link BPs of the BIER TE node according to a preset adjustment rule, in a case where the range information of the configurable link BPs of the BIER TE node overlaps with the range information of the configurable link BPs of the another node.
A method for removing gaseous elementary mercury from a stream of gas, wherein the method comprises (i) feeding the stream of gas into a first washing tower, (ii) treating the stream of gas in the first washing tower with a first washing solution that circulates in a first closed system through the first washing tower and that contains mercury -ions to form a stream of once processed gas of the stream of gas, (iii) feeding the stream of once processed gas from the first washing tower into a second washing tower, (iv) treating the stream of once processed gas in the second washing tower with a second washing solution circulating in a second closed system through the second washing tower and that contains a higher concentration of mercury -ions than the first washing solution to form a stream of twice processed gas of the stream of once processed gas, (v) feeding the stream of twice processed gas from the second washing tower into a third washing tower, (vi) treating the stream of twice processed gas in the third washing tower with a third washing solution circulating in a third closed system through the third washing tower and that contains a lower concentration of mercury -ions than the first washing solution to form a stream of cleaned gas of the stream of twice processed gas, and (vii) discharging the stream of cleaned gas from the third washing tower. (i) feeding the stream of gas into a first washing tower, (ii) treating the stream of gas in the first washing tower with a first washing solution that circulates in a first closed system through the first washing tower and that contains mercury -ions to form a stream of once processed gas of the stream of gas, (iii) feeding the stream of once processed gas from the first washing tower into a second washing tower, (iv) treating the stream of once processed gas in the second washing tower with a second washing solution circulating in a second closed system through the second washing tower and that contains a higher concentration of mercury -ions than the first washing solution to form a stream of twice processed gas of the stream of once processed gas, (v) feeding the stream of twice processed gas from the second washing tower into a third washing tower, (vi) treating the stream of twice processed gas in the third washing tower with a third washing solution circulating in a third closed system through the third washing tower and that contains a lower concentration of mercury -ions than the first washing solution to form a stream of cleaned gas of the stream of twice processed gas, and (vii) discharging the stream of cleaned gas from the third washing tower.
A method for classifying media access control addresses based on an Ethernet ring network, characterized by comprising: when the Ethernet ring network is carrying out initialization a first node of ring classifying MAC addresses corresponding to a non-ring port in a forward database of the first node of ring into one MAC address group and taking the MAC address of the first node of ring as an index of the MAC address group; the first node of ring broadcasting a message carrying the MAC address group that takes the MAC address of the first node of ring as the index in the Ethernet ring network; and a second node of ring receiving the message completing classification of the MAC addresses corresponding to a ring port in the FDB of the second node of ring based on the index of the MAC address group by adding the MAC address group carried in the message to the FDB of the second node of ring; said second node of ring being any node of ring but the first node of ring in the Ethernet ring network. when the Ethernet ring network is carrying out initialization a first node of ring classifying MAC addresses corresponding to a non-ring port in a forward database of the first node of ring into one MAC address group and taking the MAC address of the first node of ring as an index of the MAC address group; the first node of ring broadcasting a message carrying the MAC address group that takes the MAC address of the first node of ring as the index in the Ethernet ring network; and a second node of ring receiving the message completing classification of the MAC addresses corresponding to a ring port in the FDB of the second node of ring based on the index of the MAC address group by adding the MAC address group carried in the message to the FDB of the second node of ring; said second node of ring being any node of ring but the first node of ring in the Ethernet ring network.