mhurhangee/ep-ind-claims huggingface dataset:
A mobile station device which communicates with a base station device, the mobile station device comprising: a signal reception unit which receives a signal including information specifying a plurality of system bands from the base station device via any of the plurality of system bands, and receives a signal in which data is assigned in a natural number of resource blocks located in a frequency axis in each of the plurality of system bands from the base station device based on the information specifying the plurality of system bands; wherein, in each system band, the natural number of resource blocks constitutes contiguous subbands for which channel quality indicators are fed back to the base station, and a data extraction unit which extracts data from the signal in which the data is assigned in the natural number of resource blocks located in the frequency axis received by the signal reception unit, wherein each of the plurality of system bands has a carrier frequency, the plurality of system bands are discontinuous to each other, each of the plurality of system bands has guard bands at both sides, each of the natural number of resource blocks is constituted by a predetermined number of subcarriers, and a synchronization signal and a physical broadcast channel are arranged in any of the plurality of system bands. a signal reception unit which receives a signal including information specifying a plurality of system bands from the base station device via any of the plurality of system bands, and receives a signal in which data is assigned in a natural number of resource blocks located in a frequency axis in each of the plurality of system bands from the base station device based on the information specifying the plurality of system bands; wherein, in each system band, the natural number of resource blocks constitutes contiguous subbands for which channel quality indicators are fed back to the base station, and a data extraction unit which extracts data from the signal in which the data is assigned in the natural number of resource blocks located in the frequency axis received by the signal reception unit, wherein each of the plurality of system bands has a carrier frequency, the plurality of system bands are discontinuous to each other, each of the plurality of system bands has guard bands at both sides, each of the natural number of resource blocks is constituted by a predetermined number of subcarriers, and a synchronization signal and a physical broadcast channel are arranged in any of the plurality of system bands.
Power sourcing equipment, PSE, for power over Ethernet, PoE, comprising a first power supply control circuit, a first Ethernet port, and a surge protection circuit, wherein the first Ethernet port comprises a first power supply pin group and a first non-power supply pin group; the surge protection circuit comprises a first circuit, a second circuit, and a first common discharge circuit; the first circuit is connected to the first power supply pin group, the first power supply control circuit, and the first common discharge circuit; the second circuit is connected to the first non-power supply pin group and the first common discharge circuit; the first circuit is configured to transmit a first surge to the first common discharge circuit, wherein the first surge is a surge that is input from the first power supply pin group to the PSE; the second circuit is configured to transmit a second surge to the first common discharge circuit, wherein the second surge is a surge that is input from the first non-power supply pin group to the PSE; and the first common discharge circuit is configured to discharge the first surge and the second surge; wherein the first power supply pin group comprises a first power supply pin pair and a second power supply pin pair; the first circuit comprises a first connection end, a second connection end, and a third connection end; the second circuit comprises a fourth connection end, a fifth connection end, and a sixth connection end; the first common discharge circuit comprises a first common connection end and a second common connection end; the first connection end and the first common connection end are connected to a first electrode of a first power supply of the PSE, and connected to the first power supply pin pair; the second connection end and the second common connection end are connected to a second electrode of the first power supply, and connected to a first control end of the first power supply control circuit; the third connection end is connected to the second power supply pin pair, and connected to a second control end of the first power supply control circuit; and the fourth connection end is connected to the first electrode of the first power supply, the fifth connection end is connected to the second electrode of the first power supply, and the sixth connection end is connected to the first non-power supply pin group.
A DC/DC converter comprising at least one clocked switching element (1, 2) and at least one inductance arranged between an input terminal and an output terminal of the DC/DC converter for the intermediate storage of an energy transmitted by the DC/DC converter, the inductance comprising a core with permanent magnetisation, the DC/DC converter configured for bidirectional operation, and the at least one switching element (1, 2) being switched in a first energy transmission direction in a first mode of operation, and the at least one switching element (1, 2) being switched in a second mode of operation, which differs from the first, in a second energy transmission direction opposite to the first direction, characterized in that in the second energy transmission direction and thus in the second mode of operation, the at least one clocked switching element (1, 2) is switched at a switching frequency which is variable and dynamically adapted to the power to be transmitted.
A data processing system, comprising: one or more processor cores; and a cache hierarchy comprising: a first-level cache; a second-level cache; a third-level cache; and cache hierarchy control logic configured to implement a caching policy in which each cacheline cached in the first-level cache has a copy of the cacheline cached in at least one of the second-level cache and the third-level cache and in which an eviction of a cacheline from the third-level cache triggers the cache hierarchy control logic to evict a copy of that cacheline from the first-level cache based on the copy of the cacheline not being present in the second-level cache. one or more processor cores; and a cache hierarchy comprising: a first-level cache; a second-level cache; a third-level cache; and cache hierarchy control logic configured to implement a caching policy in which each cacheline cached in the first-level cache has a copy of the cacheline cached in at least one of the second-level cache and the third-level cache and in which an eviction of a cacheline from the third-level cache triggers the cache hierarchy control logic to evict a copy of that cacheline from the first-level cache based on the copy of the cacheline not being present in the second-level cache. a first-level cache; a second-level cache; a third-level cache; and cache hierarchy control logic configured to implement a caching policy in which each cacheline cached in the first-level cache has a copy of the cacheline cached in at least one of the second-level cache and the third-level cache and in which an eviction of a cacheline from the third-level cache triggers the cache hierarchy control logic to evict a copy of that cacheline from the first-level cache based on the copy of the cacheline not being present in the second-level cache.
Sole for protective shoes for diabetic persons, comprising an injection-moulded outsole and a stiffening sole integrated in the outsole, which stiffening sole has a greater flexural strength than the outsole, the sole being divided in its longitudinal extension direction into a toe region, a ball region, a longitudinal arch region and a heel region, and the stiffening sole extending at least over the toe region, ball region and over the longitudinal arch region of the outsole, and the stiffening sole comprising bond-enhancing means on the surface thereof facing the outsole, the bond-enhancing means comprising continuous openings (8, 9) in the stiffening sole which are filled with the material of the outsole, the flexural strength acting in the longitudinal extension direction of the stiffening sole being lower than that which acts in the transverse extension direction, characterised in that larger openings and smaller openings are formed in the stiffening sole, in that the open area of the openings (8, 9) associated with the ball region is in each case greater than the adjacent regions (A, C), and in that the ball region comprises a higher number of openings (8, 9) than the rest of the regions (A, C and D).
A fusible plug type pressure relief valve (1; 1A; 1B; 1C; 1D; 1E) comprising: a housing in which a valve passage is formed; a valve element arranged at a closed position in the housing and movable relative to the housing to an open position, the closed position being a position at which the valve element closes the valve passage, the open position being a position at which the valve element opens the valve passage; a pressing member configured to press the valve element in an open direction that is a direction from the closed position toward the open position, the pressing member being a spring member; and a supporting body supporting the valve element against pressing force of the spring member and configured to melt at not less than a predetermined melting temperature, the supporting body being located at the open direction side of the valve element and interposed between an upper end of the valve element and a ceiling surface of the housing, and a contact surface (55; 55B; 51a; 14c) of the supporting body contacting the valve element to support the valve element; characterised in that the supporting body contacts the ceiling surface of the housing, and in that the contact surface (55; 55B; 51a; 14c) of the supporting body includes an inclined portion inclined relative to an axis line of the valve element. a housing in which a valve passage is formed; a valve element arranged at a closed position in the housing and movable relative to the housing to an open position, the closed position being a position at which the valve element closes the valve passage, the open position being a position at which the valve element opens the valve passage; a pressing member configured to press the valve element in an open direction that is a direction from the closed position toward the open position, the pressing member being a spring member; and a supporting body supporting the valve element against pressing force of the spring member and configured to melt at not less than a predetermined melting temperature, the supporting body being located at the open direction side of the valve element and interposed between an upper end of the valve element and a ceiling surface of the housing, and a contact surface (55; 55B; 51a; 14c) of the supporting body contacting the valve element to support the valve element; characterised in that the supporting body contacts the ceiling surface of the housing, and in that the contact surface (55; 55B; 51a; 14c) of the supporting body includes an inclined portion inclined relative to an axis line of the valve element.
A method for determining the sequence of a target nucleic acid, comprising (a) providing a target nucleic acid; (b) contacting the target nucleic acid with a polymerase to sequentially remove nucleotide triphosphates from the target nucleic acid by pyrophosphorolysis, wherein the nucleotide triphosphates that are removed have a variety of different base moieties; and (c) distinguishing the different base moieties for the nucleotide triphosphates that are removed, thereby determining the sequence of the target nucleic acid; and, wherein the polymerase is attached to a nanopore. (a) providing a target nucleic acid; (b) contacting the target nucleic acid with a polymerase to sequentially remove nucleotide triphosphates from the target nucleic acid by pyrophosphorolysis, wherein the nucleotide triphosphates that are removed have a variety of different base moieties; and (c) distinguishing the different base moieties for the nucleotide triphosphates that are removed, thereby determining the sequence of the target nucleic acid; and, wherein the polymerase is attached to a nanopore.
An ink jet recording method using an ink jet recording apparatus including a plurality of heads including at least a first head and a second head, each of which ejects droplets of a different radiation-curable ink composition onto a recording medium, a plurality of first light sources and a second light source that emits active radiation to irradiate the droplets on the recording medium, the second head being located at a first side in a direction in which the recording medium is transported, one of the plurality of first light sources being located at the first side from the first head, another of the plurality of first light sources being located at the first side from the second head, and the second light source being located at the first side from the plurality of heads in the first direction, the method comprising: ejecting droplets of the ink compositions from the heads onto the recording medium; performing a first irradiation by irradiating the droplets of each ink composition with the active radiation from the corresponding first light source at an irradiation energy within 500 ms after the droplets have landed on the recording medium; and performing a second irradiation to irradiate the droplets with active radiation after 500 ms has elapsed from the landing of the droplets, wherein the corresponding first light source includes an LED, the each ink composition contains a photopolymerization initiator of 5% to 15% by mass, and the photopolymerization initiator contains an acylphosphine oxide-based photopolymerization initiator. ejecting droplets of the ink compositions from the heads onto the recording medium; performing a first irradiation by irradiating the droplets of each ink composition with the active radiation from the corresponding first light source at an irradiation energy within 500 ms after the droplets have landed on the recording medium; and performing a second irradiation to irradiate the droplets with active radiation after 500 ms has elapsed from the landing of the droplets, wherein
A motor control device configured to control an electric motor based on a PWM signal generated for each of a plurality of PWM cycles (Tc) included in a current control cycle (Ta), the motor control device comprising: means configured to determine a rotation speed (ω) of the electric motor; a motor rotation angle estimating unit configured to estimate a rotation angle (θi) of the electric motor for each of the PWM cycles (Tc) in the current control cycle (Ta); a two-phase current command value setting unit configured to set a two-phase current command value in a two-phase rotating coordinate system for each of the PWM cycles (Tc) in the current control cycle (Ta); an open-loop control unit configured to calculate a two-phase voltage command value for each of the PWM cycles (Tc), according to a motor voltage equation, based on the two-phase current command value for each of the PWM cycles (Tc) that is set by the two-phase current command value setting unit and a rotation speed (ω) of the electric motor, the two-phase voltage command value being a command value of voltage that is to be applied to the electric motor; and a PWM control unit configured to generate a PWM signal for each of PWM cycles (Tc) in a given current control cycle (Ta), based on the two-phase voltage command value generated for the given current control cycle (Ta) by the open-loop control unit and the rotation angle (θi) of the electric motor for each of the PWM cycles (Tc) in the given current control cycle (Ta) estimated by the motor rotation angle estimating unit. means configured to determine a rotation speed (ω) of the electric motor; a motor rotation angle estimating unit configured to estimate a rotation angle (θi) of the electric motor for each of the PWM cycles (Tc) in the current control cycle (Ta); a two-phase current command value setting unit configured to set a two-phase current command value in a two-phase rotating coordinate system for each of the PWM cycles (Tc) in the current control cycle (Ta); an open-loop control unit configured to calculate a two-phase voltage command value for each of the PWM cycles (Tc), according to a motor voltage equation, based on the two-phase current command value for each of the PWM cycles (Tc) that is set by the two-phase current command value setting unit and a rotation speed (ω) of the electric motor, the two-phase voltage command value being a command value of voltage that is to be applied to the electric motor; and a PWM control unit configured to generate a PWM signal for each of PWM cycles (Tc) in a given current control cycle (Ta), based on the two-phase voltage command value generated for the given current control cycle (Ta) by the open-loop control unit and the rotation angle (θi) of the electric motor for each of the PWM cycles (Tc) in the given current control cycle (Ta) estimated by the motor rotation angle estimating unit.
A method comprising: receiving, by a first device, content; receiving, by the first device, a content transfer command to provide the content to a second device at a switch point comprising a moment in time when the content being received by the first device should begin being provided to the second device, wherein the switch point is received by the first device; determining, by the first device based on a proximity metric, the second device from a plurality of devices (101a-d) for content consumption, wherein determining the second device comprises excluding a non-transferable device of the plurality of devices from consideration as the second device, wherein the non-transferable device is blocked from content consumption transfer, and wherein the proximity metric comprises a received signal strength indicator RSSI; and causing, based on a command, the content to be provided to the second device at the switch point. receiving, by a first device, content; receiving, by the first device, a content transfer command to provide the content to a second device at a switch point comprising a moment in time when the content being received by the first device should begin being provided to the second device, wherein the switch point is received by the first device; determining, by the first device based on a proximity metric, the second device from a plurality of devices (101a-d) for content consumption, wherein determining the second device comprises excluding a non-transferable device of the plurality of devices from consideration as the second device, wherein the non-transferable device is blocked from content consumption transfer, and wherein the proximity metric comprises a received signal strength indicator RSSI; and causing, based on a command, the content to be provided to the second device at the switch point.
A cerium-zirconium based mixed oxide having: (a) a Ce:Zr molar ratio of 1 or less, and (b) a cerium oxide content of 20-50% by weight, wherein the composition has (i) a surface area of at least 18m 2 /g, and a total pore volume as measured by N 2 physisorption of at least 0.11 cm 3 /g, after ageing at 1100°C in an air atmosphere for 6 hours, and (ii) a surface area of at least 42m 2 /g, and a total pore volume as measured by N 2 physisorption of at least 0.31 cm 3 /g, after ageing at 1000°C in an air atmosphere for 4 hours. (a) a Ce:Zr molar ratio of 1 or less, and (b) a cerium oxide content of 20-50% by weight,
Surgical microscope for ophthalmology, having one, two or more stereoscopic observation beam paths with, in each case, an observation beam and having an illumination device, having at least one light source for producing at least one illumination beam for illuminating an eye to be observed, wherein at least two illumination partial beams are provided and wherein each illumination partial beam extends coaxially to a stereoscopic observation beam, i.e., at exactly zero degrees or in the form of a near-axis oblique illumination at an angle of less than/equal to two degrees, wherein at least one apparatus for modifying the beam cross section of at least one illumination partial beam is provided, wherein the apparatus is embodied as an iris stop or as a zoom system, and wherein the apparatus is embodied such that the illumination partial beams are embodied in such a way that they form two or more illumination spots, which are variable in size, on the fundus of an eye to be observed, wherein the illumination spots have a round geometry and wherein the diameters of the illumination spots are adjustable.
An austenitic heat resistant alloy, which consists of, by mass percent, C: 0.01 to 0.15%, Si: 0.02 to 2%, Mn: 0.02 to 3%, Ni: 40 to 80%, Cr: 15 to 40%, W and/or Mo: 1 to 15% in total content, Ti: exceeding 0% and not more than 3%, Al: exceeding 0% and not more than 3%, Co: 0.03 to 20%, N: 0.0005 to 0.03% and O: 0.001 to 0.03%, and optionally one or more elements selected from among B: not more than 0.01%, Ta: not more than 0.1%, Hf: not more than 0.1%, Nb: not more than 0.1% and Zr: not more than 0.2%, Ca: not more than 0.02%, Mg: not more than 0.02%, Y: not more than 0.1%, La: not more than 0.1%, Ce: not more than 0.1% and Nd: not more than 0.1%, with the balance being Fe and impurities, in which the contents of P, S, Sn, As, Zn, Pb and Sb among the impurities are P: not more than 0.04%, S: not more than 0.03%, Sn: not more than 0.1%, As: not more than 0.01%, Zn: not more than 0.01%, Pb: not more than 0.01% and Sb: not more than 0.01%, and the value of P1 defined by the following formula and the value of P2 defined by the following formula satisfy the relationships expressed by the following formulas to; P 1 = S + P + Sn / 2 + As + Zn + Pb + Sb / 5 P 2 = Ti + 2 Al P 1 ≤ 0.050 0.2 ≤ P 2 ≤ 7.5 − 10 × P 1 P 2 ≤ 9.0 − 100 × O N ≤ 0.002 × P 2 + 0.019 wherein each element symbol in the formulas represents the content by mass percent of the element concerned.